diversity, distribution and - usp...
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DIVERSITY, DISTRIBUTION AND
ABUNDANCE OF FIJIAN
FRESHWATER FISHES
Plate 1. A new (as yet unnamed) freshwater fish species in the subfamily Sicydiinae from Fiji
by
David Boseto
BSc Marine Science 2000
Postgraduate Diploma Marine Science 2001
A thesis submitted in partial fulfillment of the requirements for the degree of Master of
Marine Science at the University of the South Pacific, Laucala Campus, Suva, Fiji.
© April 2006
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DECLARATION
I, David Boseto certify that this thesis is my own work. Assistance and work by other people has
been properly acknowledged and cited.
3/04/06
_____________________ ____________________
David BOSETO (Date)
The research described in this thesis was performed under my supervision and to my knowledge
is the sole work of Mr. David BOSETO
3/04/06
_______________________________ _____________________________
Professor William G.L. Aalbersberg (Date)
You are encouraged to cite my thesis with proper citations and acknowledgements.
ABSTRACT
One of the poorly known aspects of the biodiversity of the Fijian Islands is the biodiversity of
freshwater fauna. Data collected from this study were used to compile a checklist of Fijian
freshwater and estuarine fish, determine the physical habitat factors influencing richness and
abundance and identify biogeographic patterns including fish communities and assemblages
found in different regions and habitat.
In this survey, gill net, cast net, beach seine net, fine mesh net, pole seine net, hand net, spear
gun, electro fisher machine, visual observation and hand gleaning were the techniques employed
to document freshwater fish during the period of October 20th 2002 to October 10th 2004.
Freshwater fish surveys were carried out in 66 sites in seven watersheds on the islands of Viti
Levu, Vanua Levu and Taveuni. There are 40 sites in Viti Levu, 5 sites in Vanua Levu and 21
sites on Taveuni.
The field surveys resulted in the collection of 2,615 fish specimens from 31 families and 76
species. Data from previous surveys and museum collections identified 151 species from 41
families. Taking into account overlap between field data and other collections, there are 89
known freshwater fish species from 26 families in Fiji. Furthermore, 72 estuarine fishes from 31
families were recorded from previous data and during this field survey which gives a total of 161
freshwater/estuarine fish species from 45 families in Fiji.
This study has contributed 11 new records and a new genus to the total number of brackish and
freshwater fishes of Fiji. The new species are Glossogobius sp., Redigobius sp., Sicyopus (c.f.
Juxtastiphodon) sp., Stenogobius sp., Stiphodon sp. 1, Stiphodon sp. 2 and Sicydiinae: new genus
and new species. One of the new species was already described by Jenkins and Boseto (2005) as
Schismatogobius vitiensis. The new records are Yirrkala gjellerupi, Gerres longirostris, Lentipes
kaaea and Belobranchus belobranchus.
The “Inter Quartile Range” and multiple regression analyses were used to analyse the data
collected from this survey. “Inter Quartile Range” analysis was used to describe how common
were the fish species caught from the different sites collected during this survey, other collections
and the combine collections. Multiple regression analyses were used to examine the relationships
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between physical habitat characteristics and freshwater fish species richness and abundance.
SPSS Version 11.5 for Windows was used for all analyses and was set at 0.05 for all analyses.
Anguilla marmorata (Anguillidae) was the most common species collected during this survey.
The common species after combining all the collections are Anguilla marmorata (Anguillidae),
and Kuhlia rupestris (Kuhliidae). The moderate to occasionally common and the least common
fish species of the combined collections are in Appendix 6.
This study shows species richness depends on physical habitat factors, mainly water temperature
and river depth for total number of fish species and number of native species and distance from
the coast for endemic species. The number of introduced fish species decreased with distance
from the coast (p = 0.001). Species abundance depends on physical habitat factors such as water
temperature for the total number of fish species and number of native species.
In this survey it was found that there is greater species richness in the estuarine zone and lower
reaches of freshwater. Species richness decreases as one moves inland to the mid reaches and is
lowest in the headwaters.
Fiji has the Environment Management Act and is signatory to international conventions (CITES,
CBD, RAMSAR) that have legislation to protect Fiji’s biodiversity. Therefore, findings from this
survey should help decision makers to recognize the importance of the flora and fauna of the
rivers, streams, creeks and lakes, and protect them. Once care is given to the aquatic systems, it
will help take care of the whole ecosystem.
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DEDICATION
This thesis is dedicated to my beloved father the late Mr. David Pitisopa Boseto, who was called
to rest on December 22nd, 2004 by the Almighty GOD. This was six weeks before the completion
of the first draft of this thesis.
This is a product of your faith in me to allow me to continue with my studies. I wouldn’t have
come this far if it wasn’t for your commitment, in persuading me to be successful in whatever
things I do in life.
You have also taught me how to love and care for nature. Therefore, that’s one thing I’ll continue
to do and advocate to our people the importance of these creatures and how to look after them as
required by the Creator.
Thank you Dad for being my dear father and I thank GOD for your life. I’ll say bye to you for
now but my hope is “for in awhile” to see you again.
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ACKNOWLEDGEMENT
This study could not have been completed without the help of a considerable number of people,
friends and families whose help and support I must salute.
First and foremost I would like to thank GOD for the gift of life. I want to thank Him, Praise
Him, and give him all the credit for what He has done for me.
Secondly, to Professor William Aalbersberg, for securing funds from the University of Utah
(2001) and the John D. and Catherine T. MacArthur Foundation (2002 – 2005) to fund my
studies. In addition, the University of the South Pacific for providing a research grant for
fieldwork and the Institute of Marine Resources for purchasing the electro fishing machine for my
study.
I would like to thank the Department of Forestry and Public Works Department for granting me
permission to do the work in Savura Creek, the Naitasiri Provincial Council, the Roko Tui of
Cakaudrove Provincial Council in Taveuni and the Turaga ni Koro of Korovou Village (Taveuni),
for allowing me to do the work in Tavoro Creek. Samplings at the other sites were made possible
through the arrangements between the South Pacific Regional Herbarium and the landowners.
My sincere thanks to Messrs, Marika Tuiwawa, Alivereti Naikatini, Isaac Rounds, Timoci
Koliyavu, Fred Pitisopa, Ms. Nunia Thomas and Dr. Clare Morrison from the South Pacific
Regional Herbarium in Suva and all the Marine Studies Programme and Institute of Applied
Sciences postgraduate students and staff for giving me valuable advice and company while
carrying out this study.
To Marine Studies Program and Institute of Applied Sciences secretaries and clerical officers,
Mesdames Nanise Bulai, Fulori Bulai, Susan Naco, Aisha Khan, Frances Lee and Reena Sagar, a
very big vinaka vaka levu to you all for giving me all the support and help with administration
and logistics, MSP drivers for transportations and workshop workers for their assistance: Messrs
Sunia Lavaka, Jone Lima and Shiv Sharma for field logistics, equipment and laboratory space. I
would also thank the late Mr. Peni Bulivakarua for making life more interesting while doing my
studies and also the late Mr. Suren Chand for sewing the fishing nets for me. Foeksia aka to Mr.
Sidney Malo for being my field assistant in Taveuni and the Tamavua River system.
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I am greatly indebted to the following people: Mr. Aaron Jenkins, Mr. Johnson Seeto and Dr.
Patricia Kailola for allowing me to use their fish books, their comments, advice and support
towards my work; Dr. Clare Morrison for her contribution in statistics, organization of my thesis
and reading the first drafts, Mr. Roger Jaensch (Wetlands International) for his comments on
chapters three, four and five. Dr. Patricia Kailola for mentoring, reorganization, and editing of the
whole thesis; Mr. Baravi Thaman (University of the South Pacific) and Ms. Leary Cokonasiga
(Wildlife Conservation Society) for maps.
I am also very thankful for the support that I received through corresponding with the following
people who provided me with electronic and hard copies of their published papers, Dr. R.M.
McDowall, Dr. Andrew W. Storey, Dr. Ronald Watson, Ms Roselyn Kumar, Mr. Gunnar Keppel
and Professor Randy Thaman. I would also like to extend my heartfelt thank you for people who
always help me out when I need their help by continuing to communicate my work with Dr Helen
Larson, Mr. Mark McGrouther and Dr. Ronald Watson.
I am indebted to the following specialists who provided assistance by identifying specimens and
confirming some of my identifications: Mr. Johnson Seeto, University of the South Pacific
(Lutjanidae and Crabs), Dr. Douglass F. Hoese, Australian Museum Sydney (Glossogobius
sp. 1 and Eleotridae), Dr. Helen Larson Northern Territory Museum, Darwin (Redigobius leveri),
Dr. Gerry Allen, Western Australia Museum, Perth (Schismatogobius vitiensis), Dr. John
McCosker, California Academic of Science, San Francisco, U.S.A. (Eels) and Dr. Ronald
Watson, Florida (Stenogobius sp. 1 and Sicydiinae). Dr. Patricia Kailola (Sydney) and Mr. Aaron
Jenkins (Wetlands International, Oceania) confirmed all the other fish species. I would also like
to thank Mr. James Teri, Institute of Marine Resources for identifying some of my crustaceans
and Dr. Alison Haynes, Institute of Applied Sciences, University of the South Pacific for
identifying the snails.
I would also like to thank the museum managers of the following museums; Australian Museum
Sydney, Queensland Museum, California Academy of Science, San Francisco, U.S.A., National
Museum of Natural History, Washington D.C. and British Museum of Natural History who have
provided information on the holdings of Fijian freshwater fish in their collections.
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To my unofficial supervisors Dr. Patricia Kailola, Dr. Clare Morrison and Mr. Aaron Jenkins
thank you for your invaluable guidance in directing me to complete my study. I would also like to
thank Professor William Aalbersberg and Professor Leon Zann for giving me the push to
complete my studies.
A big vinaka vakalevu to the following families: Misinare and family of Wairua Village in Suva
for helping me out in my survey of the Tamavua River system, Mr Iowani Colaudolu and family
of Korovou Village (Taveuni) for providing accommodation and support in the field and not
forgetting Mr. Mikaele Colaudolu and Mr. Koinsteino Colaudolu for making all the arrangements
for my travels to Taveuni.
I also extend my heartfelt gratitude to my Fijian families, my church families, the Solomon Island
students and Solomon Islands community in Suva and my wantoks from Choiseul for their
support, encouragement and the joyous times that we spent together in Suva.
I would not come this far without the love and support of my mother Joy Betina Pitisopa; sisters
Caroline Qilabari Pitisopa, Althea Qolelalu Pitisopa; brother Davis Pesala Pitisopa; nephew
Terenz Atu and niece Betina Atu. Thank you for having faith in me by allowing me to continue
with my studies. I thank you all for your understanding and patience during the loss of our father
even though I did not come home for the funeral.
Last but not the least to the many friends although I may not mention all your names, thank you
for your support. I especially would like to thank Mr. Afease Manoa and family, Mr. John
Cocoran and family, the late Mr. Sam Hunt and family, Mr. Latchman Prasad and family, Mr.
Patrick Pikacha and family, Dr Tenneth Dalipanda and family, Mr and Mrs Calvin Rore, Ms
Freda Tuaveku, Messrs George Peter, Rex Valoa, Rex Willie, Jack Willie, Marson Lilopeza,
Haymond Posala, Kevin Kegar Toata, Zoleilo Paul Jama and Moffat Ghala Mamu for making my
stay in Fiji a home away from home. Thank you and GOD Bless.
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TABLE OF CONTENTS
Declaration ......................................................................................................................... .iiAbstract ............................................................................................................................. .iii
Dedication.............................................................................................................................v
Acknowledgement.............................................................................................................. .vi
Table of Contents............................................................................................................... .ixList of Tables ...................................................................................................................... xi
List of Figures.................................................................................................................... xii
List of Plates ..................................................................................................................... xiii
Abbreviations and definitions ............................................................................................xvi
CHAPTER 1 GENERAL INTRODUCTION ................................................................ 1 1.1 Global freshwater .................................................................................................................. 1
1.2 Biota of freshwaters – global overview ................................................................................ 1
1.3 Distribution and ecology of freshwater fishes....................................................................... 2
1.4 Utilisation of freshwaters – fishes and other biota................................................................ 3
1.5 Threats to freshwater communities ....................................................................................... 5
1.6 Freshwater fishes in Fiji ........................................................................................................ 7
CHAPTER 2 STUDY SITES AND SAMPLING METHODS ................................... 112.1 Sampling sites ..................................................................................................................... 11
2.2 Additional sources of information ...................................................................................... 14
2.3 Sampling ............................................................................................................................. 15
2.4 Site descriptions .................................................................................................................. 19
CHAPTER 3 FIJI FRESHWATER FISH CHECKLIST AND
BIOGEOGRAPHY…..................................................................................................... 50 3.1 Introduction......................................................................................................................... 50
3.2 Methods............................................................................................................................... 51
3.3 Results................................................................................................................................. 53
3.4 Discussion ........................................................................................................................... 59
3.5 Chapter Summary ............................................................................................................. 102
CHAPTER 4 PHYSICAL HABITAT FACTORS INFLUENCING FIJI
FRESHWATER FISH DISTRIBUTION ................................................................... 103 4.1 Introduction....................................................................................................................... 103
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4.2 Methods............................................................................................................................. 104
4.3 Results............................................................................................................................... 106
4.4 Discussion ......................................................................................................................... 115
4.5 Chapter summary .............................................................................................................. 117
CHAPTER 5 FISH COMMUNITIES AND ASSEMBLAGES………………….…1185.1 Introduction....................................................................................................................... 118
5.2 Methods............................................................................................................................. 119
5.3 Results............................................................................................................................... 120
5.4 Discussion ......................................................................................................................... 124
5.5 Chapter summary..................................................................................................... 128
CHAPTER 6 Conclusions and Recommendations……………………………….…129 6.1 Conclusions....................................................................................................................... 129
6.2 Recommendations............................................................................................................. 131
CHAPTER 7 LITERATURE CITED........................................................................ 132
CHAPTER 8 APPENDICES ....................................................................................... 152 Appendix 1. Physical parameters, river measurements, fish and invertebrates collected... 152
Appendix 2. Fish list of species collected from the 66 sites during this study. .................. 173
Appendix 3. Freshwater fish from Fiji collected from other sources. ................................ 177
Appendix 4. Freshwater fishes collected from Fiji from other sources, identified only to
genus. .................................................................................................................................. 205
Appendix 5. Summary of Fijian estaurine and freshwater fishes. ...................................... 208
Appendix 6. Fish counted into the quartiles and representing common, moderate to
occasionally common and less common species. ............................................................... 213
Appendix 7. Fishes categorised into different water habitats namely freshwater,
freshwater/brackish, freshwater/brackish/marine and brackish/marine.............................. 216
Appendix 8. Gazetteer of fish collections in Fiji and other sources………………………218
Appendix 9. Habitat type preferences of Fiji fish............................................................... 224
Appendix 10. Some of the habit types surveyed during this study…………...……...……228
Appendix 11. Some freshwater and estuarine fishes caught during this study................... 234
.
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LIST OF TABLES
TITLE PAGE Table 3.1 Summary of the quartiles calculation for the common and less common species from
the two different collections and their combination. The first quartile is = > 75%, Inter
quartile = 25% to 75% and third quartile is = <25%.. .......................................................... 53
Table 3.2 Number of species found in each category. .................................................................. 56
Table 3.3 More common species in each collection. .................................................................... 56
Table 3.4 List of species and families that are present in the four zones within Fiji. ................... 57
Table 3.5 Fish collected from different water salinity. ................................................................. 58
Table 3.6 Total number of endemics and total freshwater fish fauna of Pacific Countries. ......... 59
Table 3.7 Goby species that are common between Fiji, Africa and Asia. ................................... .74
Table 5.1 Summary of the fish species collected from the different habitat types. ................... .120
Table 5.2 Fish species found in sand substrate habitat. .............................................................. 121
Table 5.3 Fish species found in silt habitat................................................................................. 122
Table 5.4 Fish species found in muddy habitat........................................................................... 122
Table 5.5 Fish species from three sub families of Gobiidae found in sand, gravel and boulders
habitat. ................................................................................................................................ 123
Table 5.6 Fish species found in fused rocks substrate and rock wall side. ................................. 123
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LIST OF FIGURES
TITLE PAGE Figure 1.1 The Fiji Islands. Source: Morrison, 2003...................................................................... 9
Figure 2.1 Water systems surveyed on Viti Levu......................................................................... 13
Figure 2.2 Water systems surveyed on Vanua Levu and Taveni.................................................. 13
Figure 2.3 Tamavua River, Savura and Vago Creeks sampling sites 1- 21. ................................ 48
Figure 2.4 Tavoro Creek sampling sites 22 – 34. ......................................................................... 49
Figure 3.1 Zonal distribution of the total number of fish in four zones from past and current
records. ................................................................................................................................. 57
Figure 4.1 Relationship between total number of fish species and physical habitat characteristics.
............................................................................................................................................ 107
Figure 4.2 Relationship between number of native fish species and physical habitat
characteristics. .................................................................................................................... 108
Figure 4.3 Relationship between number of endemic fish species and physical habitat
characteristics. .................................................................................................................... 109
Figure 4.4 Relationship between number of introduced fish species and physical habitat
characteristics. .................................................................................................................... 110
Figure 4.5 Relationship between total abundance of fish and physical habitat characteristics. . 111
Figure 4.6 Relationship between abundance of native fish and physical habitat characteristics.112
Figure 4.7 Relationship between abundance of endemic fish and physical habitat characteristics.
............................................................................................................................................ 113
Figure 4.8 Relationship between abundance of introduced fish and physical habitat types....... 114
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LIST OF PLATES
TITLE PAGE Plate 1. A new (as yet unnamed) freshwater fish species in the subfamily Sicydiinae from Fiji,
Tavoro Fall, site 34. Female specimen. Photo-Aaron Jenkins……….....................................i
Plate 2. A. Tamavua River, Site 1, Viti Levu. (Photo- David Boseto).. .................................... 228
Plate 3. A. Tamavua River, Site 4, Viti Levu.. (Photo- David Boseto). .................................... 228
Plate 4. A. Savura Creek, Site 7, Viti Levu. (Photo- David Boseto).. ....................................... 229
Plate 5. A. Vago Creek, Site 21, Viti Levu. (Photo- David Boseto).......................................... 229
Plate 6. G. Wainivalau River, Site 50, Viti Levu. (Photo- David Boseto).. .............................. 230
Plate 7. J. Wabu Creek, Site 54, Viti Levu(Photo- David Boseto)...………………………...230
Plate 8. L. Lower Wailotua River, Site 61, Viti Levu. (Photo- David Boseto). ........................ 231
Plate 9. S. Nukunuku Creek, Site 64, Viti Levu (Photo- David Boseto).……………………...231
Plate 10. M. Tavoro Fall, Site 33, Taveuni.. (Photo- David Boseto)......................................... 232
Plate 11. O. Wailevu Creek, Site 38, Taveuni.. (Photo- David Boseto). ................................... 232
Plate 12. P. Waitavala Creek, Site 42, Taveuni. (Photo- David Boseto).. ................................. 233
Plate 13. Q. Savuqoro Creek below the fall, Site 58, Vanua Levu. (Photo- David Boseto)...... 233
Plate 14. Ambassis miops, 70.3 mm SL, Tamavua River, Viti Levu (Photo-
David Boseto)………………...….............……………………….…....…………………..234
Plate 15. Anguilla marmorata, 814.3 mm SL, Savura Creek, Viti Levu (Photo- David Boseto)
.............................………………...….............……………………….…....…………………..234
Plate 16. Aguilla megastoma, 420 mm SL, Savura Creek, Viti Levu. (Photo- David Boseto)....
.......................................................................................................................................... 235
Plate 17. Apogon amboinensis, 67 mm SL, Savura Creek, Viti Levu (Photo- David Boseto)
....................................................................................................................................... 235
Plate 18. Sardinella fijiensis, 150.2 mm SL, Tamavua River, Viti Levu (Photo- David Boseto)
.................................................................................................................................................... 236
Plate 19. Belobranchus belobranchus, 87.7 mm SL, Tavoro Creek, Taveuni (Photo- David
Boseto).………........................................................................................................ .......... 236
Plate 20. Eleotris fusca, 72.9 mm SL, Wailotua River, Viti Levu (Photo- David Boseto)........ 237
Plate 21. Giurus hoedti, 65 mm SL, Tavoro Creek, Taveuni (Photo- Aaron Jenkins).............237
Plate 22. Giurus margaritacea, 101.5 mm SL, Tavoro Creek, Taveuni (Photo- David Boseto)
.……… ........................................................................................................................................ 238
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Plate 23. Hypseleotris guentheri, 61 mm SL, Savura Creek, Viti Levu (Photo- Aaron Jenkins)
.……… ........................................................................................................................................ 238
Plate 24. Gerres longirostris, 12.7 mm SL, Tamavua River, Viti Levu (Photo- David Boseto)
.……… ........................................................................................................................................ 239
Plate 25. Glossogobius sp. 1., 101.7 mm SL, Wailotua River, Viti Levu. (Photo- David Boseto)
.……… ........................................................................................................................................ 239
Plate 26. Awaous ocellaris, 99.3 mm SL, Wailotua River, Viti Levu. (Photo- David Boseto).. 240
Plate 27. Redigobius leveri, 38.7 mm SL, Savura Creek, Viti Levu. (Photo-Aaron Jenkins).....240
Plate 28. Schismatogobius vitiensis, 34.5 mm SL, Nasekawa River, Vanua Levu (Photo- John
Pogonowski)... ............................................................................................................................ .241
Plate 29. Stenogobius sp. 1, 74.8 mm SL, Savura Creek, Viti Levu. (Photo- David Boseto).. . 241
Plate 30. Lentipes kaaea, 37.2 mm SL, Waitavala Creek, Taveuni. (Photo-Aaron Jenkins)..... 242
Plate 31. Sicyopterus lagocephalus, 106 mm SL, Tavoro Creek, Taveuni (Photo- David Boseto)
.……… ........................................................................................................................................ 242
Plate 32. Sicyopus zosterophorum, 85.4 mm SL, Wailevu Creek, Taveuni. (Photo-
Aaron Jenkins)……………………………………………………………….…………….243
Plate 33. Sicyopus (c.f. Juxtastiphodon) sp., 85.4 mm SL, Waitavala Creek, Taveuni. (Photo-
Aaron Jenkins).. .................................................................................................................. 243
Plate 34. Stiphodon rutilaureus, 31.8 mm SL, Tavoro Creek, Taveuni. (Photo-Aaron Jenkins)..
......................................................................................................................................... 244
Plate 35. Stiphodon sp. 1. 35.1 mm SL, Tavoro Creek, Taveuni. (Photo-Aaron Jenkins)......... 244
Plate 36. Stiphodon sp. 2, 25.3 mm SL, Waitavala Creek, Taveuni. (Photo-Aaron Jenkins). ... 245
Plate 37. Zenarchopterus dispar, 68.3 mm SL, Tamavua River, Viti Levu (Photo- David Boseto)
..................................................................................................................................................... 245
Plate 38. Kuhlia marginata, 98 mm SL, Savura Creek, Viti Levu (Photo- David Boseto) . ......246
Plate 39. Kuhlia munda, 67 mm SL, Tavoro Creek, Taveuni (Photo- David Boseto) ...............246
Plate 40. Kuhlia rupestris, 135 mm SL, Savura Creek, Viti Levu (Photo- David Boseto) . ......247
Plate 41. Leiognathus equulus, 4.2 mm SL, Tamavua River, Viti Levu (Photo- David Boseto)
..................................................................................................................................................... 247
Plate 42. Leiognathus fasciatus, 135 mm SL, Savura Creek, Viti Levu (Photo- David Boseto)
..................................................................................................................................................... 248
Plate 43. Lutjanus argentimaculatus, 225.3 mm SL, Savura Creek, Viti Levu. (Photo- David
Boseto)................................................................................................................................ 248
Plate 44. Lutjanus fulvus, 12.6 mm SL, Tavoro Creek, Taveuni (Photo- David Boseto) ...........249
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Plate 45. Lutjanus russellii, 12.6 mm SL, Tavoro Creek, Taveuni (Photo- David Boseto) .......249
Plate 46. Monodactylus argenteus, 5.3 mm SL, Tamavua River, Viti Levu (Photo- David Boseto)
..................................................................................................................................................... 250
Plate 47. Liza subviridis, 15.9 mm SL, Tavoro Creek, Taveuni (Photo- David Boseto)............250
Plate 48. Upeneus sulphureus, 89.1 mm SL, Savura Creek, Viti Levu (Photo- David Boseto)
..................................................................................................................................................... 251
Plate 49. Upeneus vittatus, 15.5 mm SL, Tavoro Creek, Taveuni (Photo- David Boseto) ........251
Plate 50. Lamnostoma kampeni, 230 mm SL, Savura Creek, Viti Levu. (Photo- David Boseto).
............................................................................................................................................ 252
Plate 51. Yirrkala gjellerupi, 150 mm SL, Savura Creek, Viti Levu. (Photo- David Boseto)... 252
Plate 52. Tetraroge niger, 4.4 mm SL, Tamavua River, Viti Levu (Photo- David Boseto) .......253
Plate 53. Siganus vermiculatus, 13.2 mm SL, Tamavua River, Viti Levu (Photo- David Boseto)
..........................................................................................................................................253
Plate 54. Sphyraena obtusata, 270.4 mm SL, Tamavua River, Viti Levu (Photo- David Boseto)
..................................................................................................................................................... .254
Plate 55. Microphis brachyurus brachyurus, 280 mm SL, Tavoro Creek, Taveuni. (Photo- David
Boseto)................................................................................................................................ 254
Plate 56. Mesopristes kneri, 17.2 mm SL, Tavoro Creek, Taveuni (Photo- David Boseto) .......255
Plate 57. Oreochromis mossambicus, 140.5 mm SL, Wailotua River, Viti Levu (Photo- David
Boseto) ........................................................................................................................................ 255
Plate 58. Barbonymus gonionotus, 88.6 mm SL, Wailotua River, Viti Levu (Photo- David
Boseto) ........................................................................................................................................ 256
Plate 59. Poecilia reticulata, 61.3 mm SL, Wailotua River, Viti Levu (Photo- David Boseto)..256
xv
ABBREVIATIONS AND DEFINITIONS
AMS – Australian Museum, Sydney, Australia
BPBM – Bishop Museum, Hawaii, United States of America.
BMNH – British Museum of Natural History, London, United Kingdom
CAS – California Academy of Science, San Francisco, United States of America.
FIT – Fiji Institute of Technology
IAS – Institute of Applied Sciences, USP.
MSP – Marine Studies Programme, USP
NTM – Museum and Art Gallery of the Northern Territory, Australia
PABITRA – Pacific Biodiversity Transect
PWD – Public Works Department, Suva
QM – Queensland Museum, Brisbane, Australia
SPRH – South Pacific Regional Herbarium, IAS
USNM – The Smithsonian Institution, National Museum of Natural History, Washington D.C.,
United States of America
USP – University of the South Pacific
WAM – Western Australia Museum, Australia
WCS – Wildlife Conservation Society, Suva
WI – Wetlands International, Suva
INR – Institute of Natural Resources
CITES – Convention on International Trade in Endangered Species of Wild Fauna and Flora
CBD – Convention on Biological Diversity
RAMSAR – Convention on Wetlands of International Importance Especially as Waterfowl
Habitat
% of clarity – percentage of clarity
asl – above sea level
cm – centimetre
E – east
ha – hectare
kg – kilogram
km – kilometre
km2 – square kilometre
m – metre
xvi
m/s – metres per second
Ma – million years ago
mg/l – milligrams per litre
mm – millimetre
Mt – mountain oC – degrees celsius
pH – potential of hydrogen
ppt – parts per thousand
S – south
SL – standard length
S – microsiemens
xvii
1
CHAPTER 1 GENERAL INTRODUCTION
1.1 Global freshwater
Water is the most abundant substance and it covers 71% of the earth’s surface (Thorpe et al.,
1995). Of this amount, the ocean comprises over 97% and the polar ice caps and glaciers
comprise an additional 2%. Less than 1% of the earth’s surface water therefore, is freshwater
(Nelson, 1994). This freshwater forms the rivers, lakes and actively exchanged groundwater.
Although water in lakes and rivers constitute less than one-hundredth of one percent of the
world’s total water volume (Lowe-McConnell, 1987), freshwater is the habitat for a large number
of species and these aquatic organisms and the ecosystems in which they exist represent a
substantial sector of the earth’s biological diversity (Kottelat and Whitten, 1996; Groombridge
and Jenkins, 1998). The freshwater system is one of the most productive ecosystems and
maintains large fisheries in different parts of the world (Lowe-McConnell, 1987; Allen, 1991;
McDowall, 1993; 1997; 2001; Keith, 2003).
1.2 Biota of freshwaters – global overview
Freshwaters provide habitats for an estimated 4,500 species of amphibians (Morrison, 2003),
approximately 75,000 species of aquatic insects (Dr. D. Polhemus, pers. comm., 2005), 5,000
species of freshwater snails (Abbott, 1950 in Supian and Ikhwanuddin, 2002), more than 10,000
species of freshwater crustaceans (Burukovskii, 1985; Holdich and Lowery, 1988), about 94
reptile species (Kottelat and Whitten, 1996) and 10,000 fish species, or 40% of the world’s
25,000 fish species (Nelson, 1994). Fish researchers believe that at least 5,000 more species await
collecting universally, a large amount of these within freshwaters (Kottelat and Whitten, 1996).
Pacific Island countries are made up of many isolated volcanic island (Nunn, 1994). This limits
larval dispersal and their isolation and irregularity of water levels has hindered some species from
completing their life cycle in the ocean. This causes many fish fauna to be sea-locked that can
cause the fish species to evolve quickly into a new species (Paulay, 1994). This is the case in Fiji
where seven new endemic species and a new genus were found during this study which are not
recorded from other continental and oceanic islands.
2
Hence, many freshwater fishes are vulnerable, endangered or extinct, mainly due to habitat
alteration (Nelson, 1994).
1.3 Distribution and ecology of freshwater fishes
1.3.1 GLOBAL PATTERNS
Lowe-McConnell (1987) listed the total number of freshwater fish species present in some rivers
and lakes of America and Africa. In the Amazon system, there are more then 1,300 species and in
the Congo (Zaire) almost 700 species. The Mississippi system of North America has 250 species,
and in the whole of Europe there are 192 species. The Great Lakes of eastern Africa (Victoria,
Tanganyika and Malawi) have over 200 fish species each, most of them endemic to a particular
lake (Lowe-McConnell, 1987).
Kottelat and Whitten (1996) compiled a list of the top ten countries in terms of numbers of
freshwater fish species that are actually recorded. These countries are Brazil (3,000 species),
Indonesia (1,300), Venezuela (1,250), China (1,010), Peru (855), Tanzania (800), United States of
America (790), India (750), Thailand (690) and Malaysia (600).
Kottelat and Whitten (1996) also compiled a list of the total number of freshwater fish species in
additional Asian countries. These countries are Vietnam (450 species), Philippines (330), Papua
New Guinea (329), Malaysia (300), Laos (262), Bangladesh (260), Cambodia (215), Pakistan
(159), Nepal (129), Taiwan (95), Sri Lanka (90), Korea (90), Mongolia (56), Brunei (55) and
Singapore (45).
1.3.2 PACIFIC PATTERNS
In the eastern Indo-Pacific region Indonesia has the highest recorded diversity of freshwater fish
with Papua New Guinea recording the second highest diversity (Allen, 1991; Kottelat and
Whitten, 1996). Freshwater fish diversity is much lower in neighbouring Pacific countries
including tropical and sub-tropical Australia (209 species: Allen et al., 2002), New Caledonia
(64 species: Marquet et al., 2003) and Vanuatu (62 species: Nimoho, 2000). Fish biodiversity
declines from eastern Indonesia to the outer Pacific countries (Myers, 1999). The pattern of
3
distribution of freshwater fishes in the eastern Indian Ocean and Pacific Ocean is due to either
freshwater fish with marine larvae moving through ocean currents (Briggs, 1999), geological
processes such as movement of tectonic plates (Zink et al., 1996; Yap, 2002), intolerance of
species to different climatic events, and vicariance.
Most freshwater fish species that are distributed in the Pacific are amphidromous (Lowe-
McConnell, 1987; McDowall, 1993; 2004a) which means the adults live and breed in freshwater
and larvae are washed into the sea where they develop into juvenile fish before swimming back
into the rivers and continuing upstream where they complete their life cycles (Parenti, 1991;
McDowall, 1993; Keith 2003). Most of the freshwater biota of the Pacific islands represents
secondary species derived from marine ancestors (Springer, 1982; Kinzie, 1988).
1.3.3 FIJI PATTERNS
One of the poorly known aspects of the biodiversity of the Fijian Islands is the biodiversity of
freshwater fauna. Ryan (1980) reported 75 native species of fresh and brackish water fishes from
Fiji, and later (Ryan, 1991) listed a total of 80 species representing 28 families. Other collections
by individuals and organizations have added to these numbers. Although more collections of
freshwater fishes have been made in Fiji than in other Pacific countries, the knowledge of the
freshwater fish fauna in Fiji is still insufficient.
Fiji is blessed with many freshwater ecosystems. These are described by Southern et al. (1986)
and Gray (1993). The Fijian freshwater ecosystems conform to those described by Polhemus et
al. (1992) for tropical Pacific islands. Therefore, Fiji should have a more diverse freshwater fish
fauna compared to what has been reported so far.
1.4 Utilisation of freshwaters – fishes and other biota
Freshwater fishes and other freshwater biota are widely utilised around the globe. As well as
being used for food, fish and other aquatic biota are used as fertilizers, medicines and pets and are
an integral part of a dynamic food chain (Kottelat and Whitten, 1996). For example, in Indonesia,
the clown loach Botia macracanthus is collected for the aquarium fish trade. This is the most
important wild caught pet fish in the world, in terms of biomass, with an estimated 10 million
4
exported each year (Kottelat and Whitten, 1996). In Vietnam a total of 240,000 freshwater turtles
valued at US$2.4 million are traded annually. In Bangladesh during the late 1980s, freshwater
turtles and their eggs worth almost US$1 million were traded (Das, 1990 in Kottelat and Whitten,
1996).
In peninsular Malaysia, there are 327 species of aquatic plants of which 64 species have a socio-
economic value: 15 plants for food, five plants for livestock food, 30 plants for medicine, three
for fertilizers and another 11 plants for the aquarium trade, ornaments, magic, dyes, baskets, mats
and strings (Khan, 1990 in Kottelat and Whitten, 1996).
In 1994, global commercial freshwater fisheries harvested from aquaculture and culture-based
fisheries was roughly 97 million metric tonnes valued at USD $82 billion (Thorpe et al., 1995), of
which 71% was consumed by humans.
Freshwater fish and other freshwater fauna are amongst the most nutritious of foods (English et
al., 1996; Gadgil, 2001). Almost everywhere along rivers in the Indo-Pacific region, people catch
fish. Large fish are generally brought to the market and sold and smaller fishes are usually eaten
locally. In rivers and streams children catch frogs, tadpoles, snails, mussels, beetles, bugs, and
almost everything is eaten (Nelson, 1994; Thorpe et al., 1995; Kottelat and Whitten, 1996). The
aquatic biotas are the main sources of protein for many of the world’s poorer populations.
The over-harvesting of the aquatic flora and fauna for food and trade was evident in the Asian
countries reported above. Hence, the formation of the Convention on International Trade in
Endangered Species of Wild Fauna and Flora (CITES) in the 1960s should help to protect the
survival of the wild animals and plants. Furthermore, countries have to become parties to the
CITES and species have to be listed by CITES in order for the conventions to protect the species
from exploitation.
Fish are also used as indicators of river health. In the Murray River, South Australia, carp
gudgeons (Hypseleotris klunzingeri, Eleotridae) are used to assess the environmental health of the
river system (Bertozzi et al., 2000; Berra, 2001). This native fish species is used as an indicator
because it was probably abundant in the healthy water system of eastern Australia. The overall
biodiversity in terms of species present in a fish community or ecosystem also can indicate water
quality (Bertozzi et al., 2000). For example, small gobies like Sicyopus, Lentipes and Stiphodon
5
can be used as species indicators of a healthy water system. This was observed during these
surveys: the Sicydiinae are more diverse and abundant in the most undisturbed environments.
1.4.1 FIJI
Fijians, like most people in other Pacific countries, depend on fish as their staple protein diet
while others use it as a vital dietary supplement. People with lower income depend largely on fish
as a major source of their protein.
Most of the villagers reported having fish and prawns about once a week as part of their diet.
Although fish consumption by these villagers is relatively low, due to limited and inadequate
alternative protein sources which are available, fish and prawns represent a very important dietary
component of these people. It is also likely that consumption has decreased due to lower
availability.
The harvest of freshwater fishes is generally ignored by authorities who do not discriminate
between aquaculture, reservoir production, and subsistence capture. In Fiji there is the
Environmental Management Act that is in place to safeguard the over harvesting of the aquatic
fauna and flora.
1.5 Threats to freshwater communities
1.5.1 HABITAT AND HUMAN POPULATION
Freshwater systems worldwide are under threat (Bräutigam, 1999). These threats are due to
human activities such as poor land use practices as a result of logging and mining; catchment
alteration primarily for irrigation, weirs or hydropower dams; pollution from urban areas, industry
and mines; and invasion of exotic species such as water hyacinths (Eichhornia crassipes) and
tilapia (Oreochromis mossambica) (Jenkins, 1999; Berkamp et al., 2000; Thaman et al., 2002).
Poor agricultural and mining practices often result in erosion of soil and increased turbidity which
may disrupt feeding success of fishes (Gratwicke et al., 2002). Dams or weirs reduce or block
flow to the extent that lower reaches of waterways can no longer support aquatic life and
6
migratory species such as eels and amphidromous species lose their migratory paths and cannot
complete their life cycles (Berkamp et al., 2000; Keith, 2003).
Increased world population raises the volume demands of water use in the agricultural sector and
industrial processes on which economic development depends. According to a United Nations
report (1997) in Groombridge and Jenkins (1998) inevitable per capita shares of water for human
use are increasing and water stress is becoming more widespread. Industrial untreated chemicals
from increased agricultural practices are often washed into the water by heavy rain (Clark, 1997).
These pollutants pose a major threat by significantly altering the chemical and biophysical
characteristics of the water, making the habitat non-conducive to aquatic life.
Other threats to freshwaters include habitat loss due to land reclamation, overfishing and the pet
trade. Loss of fish habitat through development can cause a major loss to the biodiversity of the
local area that has been affected.
1.5.2 INTRODUCTION OF EXOTIC ORGANISMS
Introduced species often affect native species indirectly through competition for space and food
resources or directly by feeding on native species and their eggs and fry (Crossman, 1991;
Wilcove, 1994; Howe et al., 1997; Englund and Filbert, 1999; Ivantsoff and Aarn, 1999). Species
such as the popular tilapia (Oreochromis mossambicus and O. niloticus) and carp (Cyprinus
carpio) often create turbid conditions in formerly clean waterways and badly overcrowd native
fauna due to their prolific breeding (Allen, 1991). Some of the major under-recognized impacts
are introduction of pathogens, hybridization, and broad scale environmental and socio-economic
effects (Eldredge, 2000).
Introducing exotic species such as carp can also influence water quality. Some examples of this
have been documented in the lakes and ponds in Europe and the USA, showing that high
densities of carp increase turbidity and play a role in increasing phytoplankton biomass by
altering nutrient availability in the water column (King et al., 1997).
7
1.6 Freshwater fishes in Fiji
1.6.1 HABITAT DIVERSITY
The Fiji Islands are located in the south-west of the Pacific Ocean, roughly central to most of the
other Pacific Island countries (Figure 1.1). Fiji is located between latitudes 15 oS and 21o South
and longitudes 177o West to 175o East. The Fiji Islands are made up of 320 islands. The two
largest islands are Viti Levu (10,386 km2) and Vanua Levu (5,535 km2), which make up 87% of
the total land area. In addition, two small islands, Taveuni (435 km2) and Kadavu (408 km2),
account for a further 4.6% of the land area. Most of the remaining islands are very small, less
than 100 km2 on average (Gray, 1993; Figure 1.1).
The Fiji Islands comprise a group of high islands of volcanic origin, with barrier reefs, atolls,
sand cays and raised coral islands. The larger islands are well watered by rivers and streams. Viti
Levu alone is drained by five large rivers (the Rewa, Navua, Sigatoka, Nadi and Ba rivers) and on
Vanua Levu there are several short rivers, with the Dreketi River the largest, 55 km long.
There are four main types of freshwater ecosystems in Fiji. They are rivers, creeks, peat swamps
and lakes. Most of them are on the two main islands and the largest peat swamp is Bonatoa (870
ha) in Viti Levu. The freshwater lakes are generally restricted to mountainous regions. The largest
lake is Lake Tagimaucia located on Taveuni Island, covering 213 ha. Other fresh water systems
include human-made impounded reservoirs. In Viti Levu, there are two major dams: the small
dam is Vaturu Dam (160 ha), which provides water for the western division of Viti Levu, and the
larger Monasavu Dam (670 ha), which provides water and hydro-electricity for the whole island
of Viti Levu. Recently a new dam (80 ha) has been built at Wainikavika Creek near Navua to
provide water for rice irrigation (Gray, 1993).
Fijian streams and rivers are highly variable in size and length. The variability in streams and
rivers size and environmental factors are likely to influence the diversity and the distribution of
both the indigenous and the introduced fishes of Fiji. On the larger islands, many short coastal
streams have very small catchment areas and few side-branches. Further inland, many streams are
branches of much larger systems with collective catchments covering thousands of hectares. On
some of the smaller steep-sided islands, e.g. Taveuni, the streams are short and unbranched and
8
also relatively steep, often being interrupted by high waterfalls that may act as barriers to fish
dispersal.
The nature of the catchments is also highly variable. Many have been deforested and repeatedly
burned and grazed, others have been over-planted with exotic trees such as pine (Pinus sp.) and
mahogany (Swietenia macrophylla), yet in a few cases the indigenous forest of the catchments
has been largely left intact (Cabaniuk, 1987). Many streams drain from limestone and
sedimentary rocks, while others drain from acidic volcanic rocks.
Freshwater streams provide a wide range of microhabitats for fishes. Observations from this study
show that climbing gobies of the subfamily Sicydiinae are adapted to live in fast flowing habitats
while other fishes are adapted to slow flowing zones. Deeper bodied mid-water dwellers, for
example Kuhlia sp. and Lutjanus sp., tend to live in a deeper area of the stream while others, for
example Schismatogobius vitiensis, live in the shallow zone. Several species spend a great deal of
time on the river edge under the overhanging plants and grasses, for example Microphis sp. and
Ambassis sp. This is an ideal habitat for shelter from predators and a generally safer zone for egg
deposition (Welcomme, 2002).
Freshwater ecosystem habitats are discontinuous. Freshwater fish biodiversity can be highly
localized and even small lake or stream systems may harbour unique locally evolved forms of
life. The numbers of different species in any given freshwater habitat can be high even if the
population numbers of the individual species are low (Thaman et al., 2002).
9
Figure 1.1. The Fiji Islands. Source: Morrison, 2003.
1.6.2 PREVIOUS STUDIES
Raj and Seeto (1984) reported the history of fish collections in Fiji. Of those collections, the
following included freshwater fishes: Jordan and Dickerson 1908, Whitley 1927, Fowler 1928,
Fowler 1931, Fowler 1932, Fowler 1934, Seale 1935, Herre 1936, Fowler 1940, Fowler 1949,
Whitley 1950 and Fowler 1953.
Based on these past collections and publications Fowler compiled a book in 1959, “Fishes of
Fiji,” reporting 545 species of which most were marine and estuarine species. However, he listed
75 freshwater and brackish water fish. Patrick Ryan in 1980 published the first checklist of the
native brackish and freshwater fishes of Fiji, and some new records (Ryan, 1981), based on
previous reports and several personal collections made in creeks near Suva and creeks in Lavena
in Taveuni in 1979.
10
A list of introduced aquatic species was produced in 1985 (Andrews, 1985); Beumer (1985)
carried out a study on the freshwater eel resources of Fiji; then a revised list of freshwater and
estuarine fishes was published in 1986 (Lewis and Pring, 1986). Current research on freshwater
fish in Fiji is being carried out by University of the South Pacific, Wetlands International,
Wildlife Conservation Society and the Fiji Institute of Technology’s freshwater fauna research
group. Knowledge of the true level of diversity and distribution of Fiji freshwater fishes and their
ecology is still inadequate. Therefore, the purposes of this study are to further explore the
freshwater fish in Fiji and to provide information on the variations that are to be expected in fish
distribution in Fiji by comparing the fish biotas from different stream types.
1.6.3 AIMS OF STUDY
Throughout the tropical Pacific much conservation attention focuses on terrestrial species and on
the destruction of rainforest and coral reef habitats (Thaman, 1994; Nishimoto and Fitzsimons,
1999). The increased pace of the development in many of the islands of the tropical Pacific have
resulted in an increased threat to the fauna of their inland, aquatic habitats; therefore, there is an
urgent need for ecological information of these ecosystems. Therefore, it is important to survey
the freshwater fish resources of Fiji now before they are destroyed by the effects of land
development, deforestation, mining and exotic species (Bräutigam, 1999; Jenkins, 1999; Ryan,
2000). This study is intended to improve our understanding of the diversity, distribution and the
abundance of Fiji’s freshwater fish fauna.
The research aims of this study were to:
(i) describe and record the diversity, distribution and abundance of freshwater fishes in
Fiji;
(ii) compare and contrast fish species composition in different habitats, and correlate the
results with environmental characteristics and habitat diversity;
(iii) explain freshwater species distributions, abundance and habitat preferences in Fiji.
Whereas data from all freshwater studies to date conducted in Fiji will be referred to,
emphasis will be given to information on waterways in southeastern Viti Levu,
interior Viti Levu, Taveuni and north-eastern Vanua Levu; and
(iv) compare the freshwater fish species diversity of Fiji with those in other Pacific
countries.
11
CHAPTER 2 STUDY SITES AND SAMPLING METHODS
Freshwater fish surveys were carried out in 66 sites in seven watersheds on the three largest
islands in Fiji (Figure 2.1 and 2.2). Different sampling methods were used at each site depending
on the substrate type and location of the site. Seven different types of fishing methods were used
in total.
Sampling in this survey was biased towards the island of Viti Levu and Taveuni. The original aim
of the thesis was to compare two systems; difficulties in design caused the focus to change to
more general surveying, including a single stream in Vanua Levu and collections by individuals
and other research organizations (See section 2.2.3 on page 14) from Vanua Levu, Ovalau, Gau,
Kadavu and Lau.
2.1 Sampling sitesThe Tamavua System in Viti Levu (Figure 2.3) and Tavoro Creek in Taveuni (Figure 2.4) are the
main study sites. The creeks were chosen because of their differences in geological formation.
The Tamavua System is within the older geological island of Viti Levu (Rodd, 1993) and Tavoro
Creek is on the younger geological island of Taveuni (Nunn, 1994). The fish collected from the
Tamavua System and Tavoro Creek cannot represent the biodiversity and abundance expected in
Fijian fresh water fishes. Therefore, other coastal creeks and rivers in Fiji were surveyed to
complement the collection from the two main study sites.
The additional sites were chosen to represent disturbed and undisturbed coastal and inland water
systems. The water systems selected were the
Upper Navua River, in Viti Levu
Watershed of the Sovi Basin (Sovi River, Wainavobo River, Wainadi Creek, Wainasa
Creek, (Wainivalau River and Waibasaga Creek) in Viti Levu,
Wabu watershed (Waiveikove Creek and Wabu Creek) in Viti Levu,
Headwaters of the Sigatoka River and Ba River (Upper Ba River, Nukunuku Creek,
Nadala Creek and Qaliwana Creek) in Viti Levu,
Wailotua System (Wairoko Creek and Wailotua River) in Viti Levu,
Navaka Creek, Wailevu and Waitavala creeks in Taveuni, and
Waisali System (Waisali Creek and Savuqoro Creek) in Vanua Levu.
12
The watersheds on Viti Levu are labelled A to L and R to U (Figure 2.1). The watersheds on
Vanua Levu and Taveuni are labelled M to Q (Figure 2.2). A survey of freshwater fish and other
biota was carried out in the 66 sites within 21 watersystems over the period October 2002 to
October 2004.
13
Figure 2.1. Water systems surveyed on Viti Levu. A – Tamavua River system, B – Navua River,
C – Sovi River, D – Wainavobo River, E – Wainadi Creek, F – Wainasa Creek, G – Wainivalau
River, H – Waibasaga Creek, I – Weiveikovi Creek, J – Wabu watershed, K – Wairoko Creek,
and L – Wailotua River. R– Upper Ba River, S – Nukunuku Creek, T – Nadala Creek and U –
Qaliwana Creek. Source: Jenkins and Boseto, 2003.
Figure 2.2. Water systems surveyed on Vanua Levu and Taveuni. M – Tavoro Creek,
N – Navaka Creek, O – Wailevu Creek, P - Waitavala Creek, Q – Waisali Water system.
Source: Jenkins and Boseto, 2003.
14
2.2 Additional sources of information
Museum holdings, published materials and recent collections of Fijian brackish and freshwater
fishes were also utilized.
2.2.1 MUSEUMS
Searches for fish collections of Fiji freshwater fishes and brackish water were made through
several Pacific Rim natural history museums and the British Museum, with the assistance of
collection managers. These museums were the Australian Museum, Sydney (AMS); Queensland
Museum, Brisbane (QM); California Academy of Sciences, San Francisco (CAS); the
Smithsonian Institution, National Museum of Natural History, Washington (USNM); the British
Museum of Natural History, London (BMNH); and the Bishop Museum, Hawaii (BPBM).
2.2.2 LITERATURE
Most literature sources consulted included Jordan and Dickerson 1908, Whitley 1927, Fowler
1928, Fowler 1931, Fowler 1932, Fowler 1934, Seale 1935, Herre 1936, Fowler 1940, Fowler
1949, Whitley 1950 and Fowler 1953. Fowler’s (1959) book “Fishes of Fiji” and papers by
Paddy Ryan (1980, 1981 and 1991) recording his collections from creeks near Suva and
Wainibau Creek in Lavena, on the island of Taveuni in 1979 and 1980. Other publications
consulted are Lewis and Pring (1986) who published a revised list of freshwater and estuarine
fishes, and Andrews (1985) who published a list of aquatic species introduced to Fiji.
2.2.3 RECENT FISH COLLECTION
Unpublished data on recent collections of freshwater and brackish water fishes in Fiji have been
kindly made available for comparison. The Fiji Institute of Technology (FIT, Suva) research
group surveyed the freshwater fauna of three major river systems (Wainimala and Wainibuka in
Viti Levu and Dreketi River in Vanua Levu) in 2002. John Pogonowski (AMS) surveyed
waterways in Viti Levu and Vanua Levu which was reported in Jenkins (2003), Salote Waqairatu
collected material from the lower Savura Creek and Nalase Creek in 2003 and the Wildlife
Conservation Society (South Pacific, Suva) collected freshwater fishes in Kadavu Island and the
Lau Islands in 2003.
15
The information obtained from museums, literature and recent collections by other individuals,
institutions and organisations are incorporated in Chapter 3 to Chapter 5.
2.3 Sampling
2.3.1 METHODS
2.3.1.1 Fishing gearSeveral types of fishing gear were used in this survey. They included gill nets of three different
mesh sizes, a throw/cast net, beach seine net, a fine mesh net, pole seine net, a small hand net, a
spear gun and a L-R 24 electro fisher.
(a) Gill nets
The three types of gill nets were made of monofilament material and have different lengths,
widths and mesh sizes. The gill nets were 10 m x 1.5m x 3.75 cm, 12 m x 1.5m x 3.75 cm and 30
m x 2 m x 5 cm respectively. The gill nets were weighted with lead on the bottom (lead line) and
had floats on the top (float line). When they were stretched to their full lengths the nets were tied
onto two rods at each end of the net when sealing off a mangrove passage, or the terminal reaches
of the creek, then allowed time to soak before being checked.
(b) Cast net
The cast net was made of a nylon cord and had a mesh size of 2 cm. It was circular in shape,
approximately 3 m diameter, and is weighted around the circumference. This net was used only at
Site 1, the Tamavua River (A). The net was thrown so that it spreads out into a circle before it
enters the water, and then it sinks down quickly to trap the fishes inside before they can swim
away. The fish caught are then pulled back into the canoe or to shore, before being taken out of
the net.
(c) Beach seine net
This net, which measured 2 m x 7 m, 0.4 cm2, was pulled in a rough circle, with the bottom edge
down as close as possible to the substrate and forward of the top floating edge of the net. This
technique was carried out with care to lessen the number of fleeing fishes. It is commonly used
only in slow moving or still waters.
16
(d) Fine mesh net
This net was made of 3-ply mending twine. The length of this net was 10 m, and the width was
2 m, and mesh was 3 cm. One person had to stand at one end of the net while another person
pulled it in a circle. The bottom of the net was weighted and is kept close to the substrate. The net
was pulled onto the river’s edge. This technique was used on slow moving and oxbow pools,
especially those beside the Wailotua River.
(e) Pole seine net
This net is made of 2-ply mending twine with a length of 2 m and width of 3 m. It was used in
three ways. Firstly, it was held by two people downstream as another two people kicked, splashed
and removed rubble upstream and swam towards the net. Secondly, the net was submerged under
over-hanging vegetation and the vegetation was disturbed to chase the fish into the net and then
the net was thrust upwards. Finally, the net was set behind a person with the electric fishing
machine to catch the fish that had been stunned.
(f) Hand net
This net was used to scoop fish that were stunned by the electric fishing machine and were
floating on the surface of the water. This hand net was made of 1-ply mending twine with a mesh
size of 1cm and was tied to a wire ring at the end of a wooden rod of 30 cm length. The
circumference of the ring was 15 cm.
(g) Spear gun
This is a long thin iron rod used with an elastic rubber band. It was very useful in collecting fast
moving fish and fish hiding under tree roots or under big rocks in a pool. The spear gun was used
while swimming with mask and snorkel.
(h) Electric fishing machine
This is a LR -24 Smith – Roote Electric Fishing Machine. This machine was used extensively in
shallow waters of the creeks and rivers including along the banks of the deeper areas. A fine mesh
net was attached to the wand and two other persons were positioned behind the person with the
electric fishing machine with a fine mesh net and hand net each to collect the stunned fishes.
17
(i) Visual observation
This was used in big clear pools while swimming underwater with a mask and a snorkel. A tape
measure was used to run a transect line and fish within a metre distance from each side of the line
were counted from one end of the pool to the other.
(j) Hand gleaning
This was used in pools where prawns are dominant. Prawns were collected by hand from under
stones and rocky substrate.
2.3.1.2 Physical parameter equipment A portable Global Positioning System (GPS) (Garmin 8 – hand held) was used to take the
position and altitude of the sampling sites. Water turbidity was measured by estimating the water
clarity in percentage ranging from 0 to 100%, with 100% denoting pristine freshwater. River flow
was measured by calculating the flow of an object from point A to point B over a length of one
meter using the formula Velocity = distance (metres)/time (seconds). Other equipment used to
measure the water parameters were:
YSI meter 85, model # 85/10 FT to measure the dissolved oxygen, conductivity, salinity
and temperature
YSI meter 83 model #63/10FT to measure the pH
100 m tape measure to measure the length, width and depth of the sampling site
2.3.2 PROCESSING
At each of the sampling sites, the physical parameters were measured and recorded before the fish
survey began. The site location, substrate type, the creek and river type and the flow rate
determined the fishing method used at a particular site.
During field collections all known fish species were counted, measured and returned to the water.
Unidentified specimens were brought back to the laboratory. The fish specimens were fixed in 10
% formalin, stored in sampling bottles and labeled with site and date of collection. Later the fish
were changed over to 70 % ethanol.
In the laboratory, all fish collected were counted, identified and their standard length recorded.
They were registered and are kept in the USP Marine Reference Collection.
18
2.3.2.1 FishAll fishes were identified to the lowest possible taxonomic level using available literature. This
included Munro (1967), Dawson (1984, 1985), Allen (1985), Allen and Burgess (1990), Allen
and Leggeh (1990), Allen (1991), Watson (1991), Watson (1991a), Allen, Parenti and Coates
(1992), Allen (1997), Carpenter, K.E. and Niem, V.H eds (1998, 1999), Myers (1999), Kuiter
(2000), Fishbase (2004), Larson and Murdy (2001), Allen, Midgley and Allen (2002) and
Gloerfelt-Tarp and Kailola (no date).
Help was also sought from fish taxonomists to identify or verify some identifications. These
included Aaron Jenkins (WI), Johnson Seeto (USP) and Patricia Kailola (Sydney), John
McCosker (CAS), Douglass Hoese and Sally Reader (AMS), Helen Larson (NTM) and Ronald
Watson (Florida).
Aquatic invertebrates caught were also collected as a means of determing relative biodiversity
and also food availability. Furthermore, the plants alone the water systems were recorded as a
way of identifying habitats.
2.3.2.2 Invertebrates All invertebrates collected such as snails, prawns, crabs and freshwater insects were identified to
the lowest possible taxonomic level using available literature. This was Burukovskii (1983) and
Haynes (2001).
2.3.2.3 FloraThe plant materials from sampling sites were identified on site by Alifereti Naikatini and Marika
Tuiwawa (SPRH) or from specimens brought back to the SPRH. Not all plants have common
names. Hence, the plants that have common names are put in brackets beside the
scientific names.
19
2.4 Site descriptions2.4.1 (A) TAMAVUA SYSTEM- SAVURA CREEK, TAMAVUA RIVER AND VAGO
CREEK (Sites 1-21).
The Tamavua System was chosen as it represents a coastal lowland tropical rainforest in Viti
Levu (Figure 2.3). This system comprises three different water courses (Vago Creek, Savura
Creek and Tamavua River), which run through two forest reserves (Vago and Savura catchments)
and a disturbed area in the Tamavua River. Therefore, it could provide a comparison between the
fish fauna of a forest reserve and a disturbed area. The final reason for choosing this site was that
it would provide information on the fish fauna of an old (ancient) geological island formation
(Viti Levu) (Nunn, 1994).
The Savura Forestry Reserve Catchment is located in the province of Naitasiri and includes two
adjacent forest reserves, Vago and Savura, catchments for the Tamavua River system. The Vago
Forest Reserve was established in 1959 and comprises 24.7 ha of lowland rainforest, while the
Savura Forest Reserve was established in 1963 and comprises 396.5 ha (Keppel et al., 2003). The
Savura and Vago Creeks provide much of Suva’s water supply (Figure 2.3) and drain into the
Tamavua River, which then flows into the sea. The Savura Forestry Reserve Catchment is located
on the western perimeter of Suva and has its headwaters at an altitude of 29 m at the top of Vago
Waterfall.
2.4.1.1 General description of Tamavua River System. (a) Vegetation
The Tamavua System is an example of a tropical lowland rainforest in South-eastern Viti Levu.
The forest is dominated by trees of the species Balaka microcarpa and Cyathea hormei (tree
fern). The creek is overshadowed by tall riparian trees such as Dolicholobium macgregorii,
woody shrubs such as Ficus bambusifolia and tree shrubs such as Syzygium seemannianum and
Acalypha rivularis. Other riparian plants that are common along the creek edge and the creek
banks at the middle upper section of the Savura and Vago Creeks are vines and creepers such as
Derris malaccensis (New Guinea Creeper), herbs such as Elatostema vitiense and E. australe,
woody shrubs such as Ficus vitiensis, small trees such as Ficus theophrastoides and Astronidium
robustum, and big forest trees such as Dillenia biflora, Geniostoma ternate, Atuna racemosa and
Geniostoma macrophyllum. The banks of the lower middle section of the Savura Creek are
20
covered with paragrass meadow of Brachira mutica. The Tamavua River estuary is dominated by
mangrove forest of Rhizophora stylosa and R. samoensis.
(b) Climate
The Savura Forestry Reserve Catchment records an average monthly rainfall of 230 mm (Fiji
Meteorology Service, 2004). The monthly rainfall ranges from 104 mm in July to 366 mm in
January. Monthly mean temperature ranges from 22.8 0C in August to 27.2 0C in February. The
average temperature from June 2002 to October 2004 was 28.7 0C and the average minimum
temperature of the same period was 22.2 0C (Fiji Meteorology Service, 2004).
(b) Geology
The geology of the Savura Forestry Reserve Catchment was first described by Skiba in 1953. He
found that the major rocks are igneous, and include andesites with tuffs and andesitic
agglomerates, rhyolites and rhyolitic tuffs, and dacites. The youngest rocks are basalts.
Vago Creek flows within 50 m of the embedded Tawavatu Tuff above the first waterfall (Skiba,
1953). Above and below the falls are large boulders, gravel and sand in the creek bed. A further
50 m downstream, where Vago Creek joins Savura Creek, the creek flows through another
exposed 20 m stretch of embedded Tawavatu Tuff. The bed of Savura Creek is mainly
characterised by large metamorphic boulders, whereas the Tamavua River bed downstream
comprises smaller gravel until near the river mouth where silt and mud cover most of the river
bed.
2.4.1.2 Description of sites and sampling techniques used in Sites 1 to 21 within
Tamavua catchment.The Tamavua catchment was sampled during the wet and dry seasons. The sites denoted with (a)
refers to wet season sampling (b) refers to the dry season sampling.
A. Site 1a. Mouth of Tamavua River (Appendix 10, Plate 2) (at 180 06’.92”S, 1780 25’.80”E), 3
February 2003, at sea level. Substrate mainly of silt, mud and rubble on sides and sand in middle
of river. Lower reach of river, including this site, mainly in mangrove forest of Rhizophora
stylosa and R. samoensis. Cast net thrown randomly on both sides of the canoe when canoe was
paddled upstream and downstream on either side of river. Gill net (10 m x 1 m x 2.75 cm) was
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used to seal off the river mouth from 1050 to 1500 hours. Sampling time 1100 till 1530 hours.
Tidal range from high to 1.60 m at 0804 hours to low 0.50 m 1402 hours.
A. Site 1b. Same site and method as 1a. Date: 5 October 2004; gill net set: 1050 to 1500 hours,
tide 1.51 m at 1128 hours to 1.01 m at 1656 hours.
A. Site 2a. Tamavua River. Small mangrove passage opposite lower Tamavua-i-Wai village (at
180 06’.15”S, 1780 26’.01”E), 3 - 4 February 2003, at sea level. Substrate of silt and mud. Passage
in mangrove forest of Rhizophora stylosa and R. samoensis. Gill net (10 m x 1.5 m x 3.75 cm),
used to seal small passage overnight (2000 to 0400 hours). Tidal range from high 1.70 m at 2000
to low 0.30 m at 0230 hours.
A. Site 2b. Same site and method as 2a. Date: 8 October 2004; gill net set: 0100 to 0800 hours,
tide 1.64 m at 0130 hours to 0.72 m at 0800 hours.
A. Site 3a. Tamavua River. Small mangrove passage 5 m away from site 2 (at 180 06’.23”S,
1780 26’.02” E), 3 - 4 February 2003, at sea level. Substrate of silt and mud. Passage in mangrove
forest of Rhizophora stylosa and R. samoensis. Gill net (12 m x 1.5 m x 3.75 cm), used to seal off
this passage overnight (2000 till 0400 hour). Tidal range from high 1.70 m 2000 hours to low
0.30 m at 0230 hours.
A. Site 3b. Same site and method as 3a. Date: 8 October 2004; gill net set: used 0100 to 0800
hours, tide 1.64 m at 0130 hours to 0.72 m at 0800 hours.
A. Site 4a. Tamavua River. Larger mangrove passage compared to that of sites 2 and 3, about 80
m away from site 3 (Appendix 10, Plate 3) (at 180 06’.10”S, 1780 26’.02”E), 4 February 2003, at
sea level. Substrate of silt and mud. Vegetation type dominated by mangrove forest of
Rhizophora stylosa and R. samoensis. Two gill nets used in site 2 and 3 joined together and set
during the day (0800 to 1420 hours). Tidal range from high 1.6 m at 0844 hours to low 0.50 m at
1445 hours.
A. Site 4b. Same site and method as 4a. Date: 4 October 2004; two gill nets used in site 2 and 3
joined together set: 1100 to 1500 hours, tide 1.57 m at 1020 hours to 0.94 m at 1600 hours.
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A. Site 5a. Tamavua River. 200 m upstream from site 4 and the Tamavua-i-Wai Village (at 180
05’.80”S’, 1780 26’.81”E), 5 February 2003, at sea level. Substrate within passage mostly silt and
mud. Passage in mangrove forest of Rhizophora stylosa and R. samoensis. Gill net (12 m x 1.5 m
x 3.75 cm), set from 0900 am to 1355 hours. Tidal range from high 1.60 m at 0800 to low 0.50 m
at 1414 hours.
A. Site 5b. Same site and method as 5a. Date: 6 October 2004; gill net set: 1130 to 1630 hours,
tide 1.50 m at 1230 hours to low 1.04 m at 1800 hours.
A. Site 6a. Tamavua River. 600 m away from site 5 (at 180 05’.53”S 1780 25’.59”E), 6 February
2003, 1 m above sea level. Substrate of silt and mud. Passage enclosed in mangrove forest of
Rhizophora stylosa and R. samoensis. Gill net (10 m x 1.5 m x 3.75 cm) used to seal mangrove
passage from 1400 to 1800 hours. Tidal range from high 1.60 m 0840 hours to low 0.50 m 1452
hours.
A. Site 6b. Same site and method as 6a. Date: 6 October 2004; gill net set: 1230 to 1730 hours,
tide 1.50 m at 1230 hours to low 1.04 m at 1800 hours.
A. Site 7a. Lower Savura Creek. 50 m away from confluence of Savura Creek and Tamavua
River and 400m away from Wailoku Public Works Department Pump Station (Appendix 10,
Plate 4) (at 180 05’.45”S, 1780 25’.98”E), 10 February 2003, 2 m above sea level. This is where
the freshwater begins. Substrate of sand and rubble in centre and mud on edge where grasses
overhang creek. Vegetation type dominated by paragrass, Brachiaria mutica. Electro fisher, hand
net and pole seine net used for 30 minutes for five sweeps along both sides and towards centre of
creek. Sampling took place between 0900 and 0930 hours and tide rising from 0.70 m at 0632 to
1.50 m at 1309 hours. Sampling abandoned then due to heavy rain.
A. Site 7b. Same site as 7a. Date: 6 October 2004; beach seine net and pole seine net used for 30
minutes to shovel along both sides under overhanging vegetation and towards centre of creek.
Sampling from 1000 to 1030 hours during rising tide from 0.77 m at 0603 hours to 1.50 m at
1240 hours.
A. Site 8a. Savura Creek. 300 m away from site 7 (at 180 05’.43”S, 1780 26’.09”E), 11 February
2003, 3 m above sea level. Substrate of sand and rubble at side and towards centre and mud on
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edge where grasses overhang creek. Vegetation dominated by paragrass, Brachiaria mutica.
Electro fishing machine, hand net and pole seine net used for 30 minutes for five sweeps along
both sides and towards centre of creek. Sampling time from 0830 to 0900 hours, during rising tide
from 0.70 m at 0723 hours to 1.50 m at 1403 hours.
A. Site 8b. Same site as 8a and method as in 7b. Date: 7 October 2004; beach seine net and pole
seine net used from 1230 to 1300 hours, during rising tide from 0.76 m at 0713 hours to 1.54 m at
1345 hours.
A. Site 9a. Savura Creek. 200 m away from site 8 (at 180 05’. 41”S, 1780 26’. 22”E), 11 February
2003, 4 m above sea level. Substrate type mainly has sand and rubble on side and towards centre
and mud on edge where grasses overhang creek. Vegetation dominated by paragrass, Brachiaria
mutica. Electro fishing machine, hand net and pole seine net used for 30 minutes for five sweeps
along both sides and towards centre of creek. Sampling time from 0915 to 0945 hours, during
rising tide from 0.70 m at 0723 hours to 1.50 m at 1403 hours.
A. Site 9b. Same site as 9a and method as in 7b. Date: 7 October 2004; beach seine net and pole
seine net used from 1320 to 1350 hours, during high tide; 1.54 m at 1345 hours.
A. Site 10a. Savura Creek. 200 m away from site 9 (18o 05’.29”S, 178o26’.26” E), 11 February
2003, 5 m above sea level. Substrate of sand and rubble in centre and mud on edge where grasses
overhang creek. Vegetation dominated by paragrass, Brachiaria mutica. Electro fishing machine,
hand net and pole seine net used for 30 minutes for five sweeps along both sides and towards
centre of creek. Sampling time from 1000 to 1030 hours, during rising tide from 0.70 m at
0723 hours to 1.50 m at 1403 hours.
A. Site 10b. Same site as 10a and method as in 7b. Date: 7 October 2004; beach seine net and
pole seine net used from 1400 to 1430 hours, during falling tide from 1.54 m at 1345 hours to
1.00 m at 1930 hours.
A. Site 11a. Savura Creek. 200 m above last site (at 180 06’.93”S, 1780 26’.46”E), 11 February
2003, 6 m above sea level. Substrate of sand and rubble in centre and mud on edge where grasses
overhang creek. Vegetation dominated by paragrass, Brachiaria mutica. Electro fishing machine,
hand net and pole seine net used for 30 minutes for five sweeps along both sides and towards
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centre of creek. Sampling time from 1045 to 1115 hours, during rising tide from 0.70 m at 0723
hours to 1.50 m at 1403 hours.
A. Site 11b. Same site as 11a and method as in 7b. Date: 7 October 2004; beach seine net and
pole seine net from 1450 to 1520 hours, during falling tide from 1.54 m at 1345 hours to 1.00 m
at 1930 hours.
A. Site 12a. Savura Creek. 200 m away from site 11. (at 180 05’.07”S, 1780 26’.44”E), 11
February 2003, 8 m above sea level. This site is within the forest reserve. Substrate of sand and
rubble in centre and mud on edge where ferns and creepers overgrow sides of creek. Vegetation
dominated by forest cover forming understorey shrubs and ferns along edges of creek Electro
fishing machine, hand net and pole seine net used for 30 minutes for five sweeps along both sides
and towards centre of creek. Sampling time from 1130 to 1200 hours, during rising tide from
0.70 m at 0723 hours to 1.50 m at 1403 hours.
A. Site 12b. Same site as 12a and method as in 7b. Date: 8 October 2004; beach seine net and
pole seine net used from 0900 to 0930 hours, during rising tide from 0.72 m at 0813 hours to
1.62 m at 1438 hours.
A. Site 13a. Savura Creek. 200 m below water dam (at 180 05’. 08”S, 1780 26’.54”E), 28 January
2003, 9 m above sea level. Substrate of sand and rubble in centre and mud on edges where ferns
and creepers overhang creek. Vegetation dominated by forest cover forming understorey shrubs
and ferns along edges of creek. Electro fishing machine, hand net and pole seine net used for 30
minutes for five sweeps along both sides and towards centre of creek. Sampling time from 1015
to 1045 hours, during rising tide from 0.50 m at 0843 hours to 1.70 m 1510 hours.
A. Site 13b. Same site as 13a and method as in 7b. Date: 8 October 2004; beach seine net and
pole seine net were used from 0950 to 1020 hours, during rising tide from 0.72 m at 0813 hours
to 1.62 m at 1438 hours.
A. Site 14a. Savura Creek. Deep pool below water dam, 10 m away from site 13 (at 180 04’.59”
S, 1780 26’.36”E), 28 January 2003, 10 m above sea level. Substrate of sand and rubble; few
scattered small boulders. Vegetation dominated by mosses and paragrass, Brachiaria mutica.
Electro fishing machine, hand net and pole seine net used for 30 minutes for five sweeps along
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the pool edge. Visual observation used at this site using a transect line along length of pool.
Sampling time from 1100 to 1130 hours, during rising tide from 0.50 m at 0843 hours to 1.70 m
1510 hours. Sampling discontinued due to rain starting to fall.
A. Site 14b. Same site as 14a. Date: 8 October 2004; visual observation used at this site using a
transect line along length of pool and beach seine net was used dragged along side of pool from
1040 to 1110 hours, during rising tide from 0.72 m at 0813 hours to 1.62 m at 1438 hours.
A. Site 15a. Vago Creek. Sampling at confluence of Vago Creek and Savura Creek, 50 m away
from site 14 (at 180 05’.94”S, 1780 26’.56”E), 29 January 2003, 13 m above sea level. Substrate
of sand, rubble and boulders and in some parts of creek substrate comprises fused rock.
Vegetation dominated by mosses on fused rock, and grasses, Commelina sp., along creek edges.
Electro fishing machine, hand net and pole seine net used for 30 minutes for five sweeps along
both sides and towards centre of creek. Sampling time from 0900 to 0930 hours.
A. Site 15b. Same site as 15a. Date: 8 October 2004; beach seine net and pole seine net used for
30 minutes. Two people dislodge the rocks and pebble to chase the fish into net from 1130 to
1200 hours.
A. Site 16a. Vago Creek. 10 m upstream from site 15 (at 180 04’.89”S, 1780 26’.59”E), 29
January 2003, 14 m above sea level. Substrate of sand, rubble and boulders. Vegetation
dominated by small trees and grasses, Commelina sp. Electro fishing machine, hand net and pole
seine net used for 30 minutes for five sweeps along both sides and towards centre of creek.
Sampling time from 0945 to 1015 hours.
A. Site 16b. Same site as 16a and method as in 15b. Date: 10 October 2004; beach seine net and
pole seine net were used from 0930 to 1000 hours.
A. Site 17a. Vago Creek. 10 m from site 16 (at 180 04’.52”S, 1780 26’.32”E), 29 January 2003,
15 m above sea level. Substrate of sand, rubble and boulders. Vegetation dominated by forest
cover forming understorey shrubs and ferns along edges of creek. Electro fishing machine, hand
net and pole seine net used for 30 minutes for five sweeps along both sides and towards centre of
creek. Sampling time from 1025 to 1055 hours. Sampling discontinued due to heavy rain.
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A. Site 17b. Same site as 17a and method as in 15b. Date: 10 October 2004; beach seine net and
pole seine net were used from 1025 to 1055 hours.
A. Site 18a. Vago Creek. 20 m from site 17 (at 180 04’.03”S, 1780 27’.22”E), 31 January 2003,
at 17 m above sea level. Substrate of sand, rubble and boulders. Vegetation dominated by forest
cover forming understorey shrubs and ferns along edges of creek. Electro fishing machine, hand
net and pole seine net used for 30 minutes for five sweeps along both sides and towards centre of
creek. Sampling time from 0900 to 0930 hours.
A. Site 18b. Same site as 18a and method as in 15b. Date: 10 October 2004; beach seine net and
pole seine net were used from 1115 to 1145 hours.
A. Site 19a. Vago Creek. 20 m from site 18 and also below Vago Waterfall (at 180 04’.83”S,
1780 26’.51”E), 31 January 2003, 18 m above sea level. Substrate type of with sand on pool
bottom, and fused rock wall surrounding pool. Vegetation of a few ferns, creepers and grasses
over fused rock. Electro fishing machine, hand net and pole seine net used for 30 minutes for five
sweeps along the pool edges. Visual observation used at this site using a transect line along length
of pool. Sampling time from 1015 to 1045 hours. Sampling discontinued due to heavy rain.
A. Site 19b. Same site as 19a and method as in 15b. Date: 10 October 2004; beach seine net and
pole seine net were used from 1205 to 1235 hours.
A. Site 20a. Vago Creek. At top of Vago Waterfall (at 180 04’.49”S, 1780 26’.26”E), 12
February 2003, 27 m above sea level. Substrate comprises of fused rock. Vegetation dominated
by forest cover forming understorey shrubs and ferns along edges of creek. Electro fishing
machine, hand net and pole seine net used for 30 minutes for five sweeps along both sides and
towards centre of creek. Sampling time from 0830 to 0900 hours.
A. Site 20b. Same site as 20a and method as in 15b. Date: 10 October 2004; beach seine net and
pole seine net were used from 1300 to 1330 hours.
A. Site 21a. Vago Creek. Above Vago Falls, 200 m from its edge (Appendix 10, Plate 5) (at 180
04’.45”S, 1780 26’.26”E), 12 February 2003, 29 m above sea level. Substrate of sand, rubble,
boulders and fused rocks in some parts. Vegetation dominated by forest cover forming
27
understorey shrubs and ferns along edge of creek. Electro fishing machine, hand net and pole
seine net used for 30 minutes for five sweeps along both sides and towards centre of creek.
Sampling time from 0915 to 0945 hours.
A. Site 21b. Same site as 21a and method as in 15b. Date: 10 October 2004; beach seine net and
pole seine net were used from 1350 to 1420 hours.
2.4.2 (B) UPPER NAVUA RIVER (SITES 43 and 44)
The Upper Navua River was chosen because of its unique substrate type. This river is within the
Navua Gorge where interesting formations of limestone rocks form the gorge on both sides of the
river. It was anticipated that this habitat would contain a unique variety of fishes.
2.4.2.1 General description of the Upper Navua River (a) Vegetation
The forest type represents a lowland tropical forest type. The riparian plants of the Navua Gorge
were studied by Keppel et al. (2004) who compiled a plant list for the gorge. Some of the
common riparian plants that they listed are Acalypha rivularis, Ficus bambusifolia, Syzygium
seemanianum, Ophiorrhiza peploides, and ferns Plesioneuron prenticei and Pronephrium
rubinerve. Introduced species are also common on the river bank. They are Piper aduncum
(Honolulu), Vernonia cinera (Little iron weed) and Arundo donax (Giant reed).
(b) Climate
The meteorology station closest to the Navua Gorge is the Namosi Copper Mine. The average
monthly rainfall is 261 mm and range from 162 mm in July to 398 mm in April. Mean monthly
maximum temperature ranges from 23.1 oC in August to 27.2 oC in March (Fiji Meteorology
Service, 2004).
(c) Geology
The limestone rock formation at the Navua Gorge is from the Namosi Andesites (Kumar, 2003).
2.4.2.2 Description and sampling techniques used in Sites 43 and 44. B. Site 43. Upper Navua River (at 18 0 07’.43”S, 1770 56’.73”E), 10 April 2003, at 50 m above
sea level. Substrate mostly dominated by rubble, boulders and rocks. Vegetation beside river of
28
mosses and grasses. Electro fishing machine, hand net and pole seine net used for 30 minutes for
five sweeps along both sides and into centre of creek. Sampling time from 0950 to 1020 hours.
B. Site 44. Upper Navua River. Side stream flowing into Navua River (at 180 07’.49”S, 1770
56’.83”E), 10 April 2003, 45 m above sea level. Substrate of stream pools mainly sand, rubble
and boulders; sometimes edges of rock walls. Vegetation dominated by tropical rainforest,
mosses and grasses along stream edge. Pole seine net used at confluence of Navua River and a
tributary. Visual observation made in several small pools of tributary side creek, by using face
mask and sitting submerged in each pool to observe and record fish species present. Sampling
time from 1040 to 1110 hours.
2.4.3 (C – H) SOVI BASIN (SITES 45 – 52)
The Sovi Basin was picked to represent an undisturbed lowland tropical rainforest (less then 600
m) in the interior of Viti Levu. This site has a unique landform feature of a bowl shape. Two
major rivers, the Wainavobo River and the Wainivalau River, flow through the basin and join to
form the Sovi River. Many side tributaries flow into the rivers. These three rivers and the
following selected side creeks were surveyed within the Sovi Basin: the Wainadi Creek, Wainasa
Creek, Waibasaga Creek and Waiveikovi Creek.
2.4.3.1 General description(a) Vegetation
Along the banks of the three rivers and three creeks surveyed, typical riparian vegetation was
found. Common species included the three endemic riverine species of Acalypha rivularis,
Syzygium seemannianum and Ficus bambusifolia. Other species commonly found here include
Dipplazium sp., Acalypha insularis and Glochidion cordatum. There are introduced species such
as Kyllinga polymorpha (Nama sedge) and Piper aduncum (Honolulu) that are common along the
rivers and creeks. Keppel (2003) compiled the plant list of the lower Sovi Basin.
(b) Climate
The meteorology station closest to the Sovi Basin is Namosi Copper Mine. The average monthly
rainfall is 289 mm and ranges from 173 mm in July to 441 mm in April. Mean monthly maximum
temperature ranges from 22.4 oC in August to 26.6 oC in March (Fiji Meteorology Service, 2004).
29
(c) Geology
The Sovi Basin is composed of the Namosi Andesite and the Nubuonaboto Volcanic
Conglomerate. The Namosi Andesite belongs to the Medrausucu Group which consists mostly of
coarse epiclastic strata ranging from sedimentary rocks to andesitic tuff. The Nubuonaboto
Volcanic Conglomerate belongs to the Wainimala group, and is composed completely of coarse
volcanic clastic rocks, mostly conglomerate and breccia, basalt to dacite in composition (Kumar,
2003).
2.4.3.2 Description and sampling techiques used in Sites 45 – 52C. Site 45 Sovi River. Camp base (at 170 55’.38”S, 1780 15’.23”E), 6 May 2003, 65 m above
sea level. Substrate mainly rubble and sand. No vegetation close to river edge: open area exposed
to sunlight. Riparian vegetation further upstream and downstream of ferns, grasses and creepers.
Visual observation with face mask and snorkel while submerged at one position, counting and
recording all fish species passing reference point. Sampling carried out from 1600 to 1630 hours.
D. Site 46. Lower Wainadi Creek (at 180 04’.52”S, 1780 26’.26”E), 7 May 2003, 125 m above
sea level. Substrate in some pools of sand, rubble and boulders; in other places substrate of fused
rock and rock walls. Creek well covered by tropical rainforest. Creek sampled by visual
observation in pools along it, and with spear gun in pools and under rocks. Visual observation
made by using face mask and sitting submerged in each pool, observing and recording fish
species present in each pool. Sampling time from 0905 to 0935 hours.
D. Site 47. Mid Wainadi Creek (at 180 04’.49”S, 178o 26’.26”E), 8 May 2003, 131 m above sea
level. Substrate of sand in pool centre, rock wall on one side, boulders on other side. Creek
covered by tropical rainforest, and small ferns and grasses along side dominated by rock wall.
Visual observation made using transect line along length of pool. Sampling time from 0950 to
1020 hours.
D. Site 52. Upper Wainadi Creek. Upper section of creek (at 180 04’.45”S, 1780 26’.26”E), 15
May 2003, 139 m above sea level. Substrate dominated by rubble and sand. Creek covered by
tropical rainforest; ferns and mosses along both sides of creek. Visual observation made in small
pools of creek by using face mask and sitting submerged, observing and recording fish species
present in each pool. Sampling time from 0945 to 1015 hours.
30
E. Site 48. Wainavobo River. Lower to mid Wainivobo River (at 170 55’.64”S, 1780 14’.12”E), 8
May 2003, 75 m above sea level. Substrate of rubble and sand at centre of river and soft mud
along both sides. River dominated by riparian plants, with bamboo patches at river edge. Visual
observation in pools along creek, and with spear gun in pools and under rocks. Visual observation
by using face mask and sitting submerged in each pool, observing and recording fish species
present in each pool. Sampling time from 1320 to1350 hours.
F. Site 49. Wainasa Creek. Lower section of creek (at 170 33’.07”S, 1780 13’.25”E), 9 May 2003,
79 m above sea level. Substrate of rubble and sand at creek centre; some pools of fused rock
walls with sand at bottom. Creek well shaded under thick tropical rainforest; small ferns and
creepers along edges of creek.Visual observation and spear gun used to observe and collect fish
specimens from pool along creek. Visual observation by using face mask and sitting submerged
in each pool observing and recording fish species present. Sampling time from 1035 to 1105
hours.
G. Site 50. Wainivalau River. Upper section of creek (Appendix 10, Plate 6) (at 170 35’.64”S,
1780 14’.85”E), 13 May 2003, 81 m above sea level. Substrate dominated at centre by rubble and
sand; large boulders at sides. River exposed to sunlight; riparian plants of mosses, creepers and
grasses present. Sampling by visual observation in pools along creek, and with spear gun in pools
and under rocks. Visual observation made by using face mask and sitting submerged in each pool,
observing and recording fish species present. Sampling time from 1130 to1200 hours.
H. Site 51. Waibasaga Creek. Lower section of creek (at 170 54’.46”S, 1780 13’.41”E), 14 May
2003, 80 m above sea level. Substrate dominated at centre by rubble and sand; soft mud along
creek edges. Creek covered by thick tropical rainforest ferns and understorey shrubs along edges
of creek. Sampling by visual observation in pools along creek, and with spear gun in pools and
under rocks. Visual observation made by using face mask and sitting submerged in each pool,
observing and recording fish species present. Sampling time from 1515 to 1545 hours.
2.4.4 (I – J) WABU WATERSHED (SITES 53 and 54)
Wabu is one of the three main forest reserves in Fiji located on the north-west of Viti Levu. This
site was chosen as it represents a highland to cloud montane rainforest. Two creeks, Waiveikovi
and Wabu, were surveyed in this site, from one of the headwaters of the Wainimala River.
31
2.4.4.1 General description(a) Vegetation
The common riparian vegetation that is found on banks of the Wabu Creek include the three
endemic riverine species of Acalypha rivularis, Syzygium seemannianum and Ficus bambusifolia.
Other species commonly found here include Dipplazium sp. and Dolicholobium macgregorii.
Tuiwawa and Naikatini (2004) compiled the plant list of the Wabu Forest Reserve.
(b) Climate
The meteorology station closest to the Wabu area is the Monosavu Dam. The average monthly
rainfall is 399 mm and the monthly rainfall ranges from 190 mm in July to 670 mm in March.
Mean monthly maximum temperature ranges from 18.1 oC in August to 22.5 oC in March (Fiji
Meteorology Service, 2004).
(c) Geology
The Wabu site is dominated by the Vatukoro Grey wacks, Nakorotubu Basalt and
undifferentiated basalt flow belonging to the Ba Volcanic Group (Rodda, 1966). In the Wabu
area, the formation is dominated by volcanic conglomerate, pillow basalts and flow (Kumar,
2003).
2.4.4.2 Description and sampling techniques used in Sites 53 and 54 I. Site 53. Waiveikovi Creek (at 170 35’.13”S, 1780 02’.13”E), 17 November 2003, 862 m above
sea level. Main substrate of fused rock, rubble and pebbles. Creek in undisturbed montane forest.
Riparian vegetation of understorey shrubs and thick moss layers along edges. Electro fishing
machine, hand net and pole seine net used for 30 minutes for five sweeps along both sides and
into centre of creek. Sampling time from 0900 to 0930 hours.
J. Site 54. Wabu Creek (Appendix 10, Plate 7) (at 170 35’.27”S, 1780 02’.16”E), 17 November
2003, 848 m above sea level. Substrate varies along creek: large boulders, rock wall, fused rock,
sand and rubble. Creek within montane tropical rainforest. Creek flows through large rock
boulder and thick moss layers, ferns and in some parts, vines and creepers, along overhanging
bank. Electro fishing machine, hand net and pole seine net used for 30 minutes for five sweeps
along both sides and into centre of creek. Sampling time from 1000 to 1030 hours.
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2.4.5. (K –L) WAILOTUA RIVER (SITES 60-62)
This site was chosen as it represents a river and a side creek on the south-eastern side of Viti
Levu. It also represents a disturbed lowland rainforest area because of human settlement, road
construction and food gardens. The river and the creek flow through an uplifted reefal substrate
near the Wailotua Cave, which is a big uplifted limestone cavern in Fiji.
2.4.5.1 General description of Wailotua(a) Vegetation
The common riparian vegetation that is found on the banks of the Wailotua Creek include the
three endemic riverine species of Acalypha rivularis, Syzygium seemannianum and Ficus
bambusifolia. Other species commonly found here include Dipplazium sp. and Dolicholobium
macgregorii.
(b) Climate
The meteorology station closest to the Wailotua Creek is the Korovo Town. The average monthly
rainfall is 325 mm and monthly rainfall ranges from 165 mm in July to 635 mm in March. Mean
monthly maximum temperature ranges from 19.7 oC in August to 24.1oC in March (Fiji
Meteorology Service, 2004).
(c) Geology
The geology of the Wailotua area was first formed by the uplifting of the reefal rock due to
tectonic activity. These rocks were covered by soil and vegetation, but due to weathering they had
become exposed.
2.4.5.2 Description and survey techniques used in Sites 60 – 62 K. Site 60. Wairoko Creek (at 170 45’.40”S, 1780 24’.50”E), 1 April 2004, 142 m above sea level.
Rock wall in some places, substrate on sides muddy where vegetation overhangs creek. Boulders,
rubble and sand in middle of creek. Common vegetation of ferns, moss, bamboo, shrubs;
Merremia sp. (creeper) covers creek banks. Pole seine net used with chasers who dislodged rocks
and chased the fish into the net. Visual observation also made in small pools along creek with
face mask and snorkel, recording fish species. Sampling time from 1005 hours to 1035 hours.
33
L. Site 61. Wailotua River. Lower Wailotua River (Appendix 10, Plate 8) (at 170 45’.34”S, 1780
24’.01”E to 170 45’.32”S, 1780 24’.18”E), 1 April 2004, 4 m above sea level. Substrate of rubble,
sand and mud at sides of river; substrate of soft mud in oxbow pools along section of river
sampled. Common vegetation along creek and in pools is paragrass, Brachiaria mutica and water
hyacinths, Eichhornia crassipes; ferns on pool edges and sides of river. Fine seine net used in
three oxbow pools formed from bending of river. Fine seine net rounded to seal opening to
Wailotua River and then pulled towards pool and onto dry land. Sampling time from 1405 to
1435 hours.
L. Site 62. Mid Wailotua River (at 170 45’.36”S, 1780 24’.29”E to 170 45’33” S, 1780 24’.27” E),
2 April 2004, 8 m above sea level. Substrate type varies along river; rock walls on some sides,
mud at sides where vegetation overhangs river; mainly boulders, rubble and sand in river middle.
Common vegetation of ferns, grasses such as Brachiaria mutica, Kyllianga sp and Commelina sp.
and water hyacinth, Eichhornia crassipes, beside river; algae common on river edges. Spear gun
fishing and visual observations used in this river. Fish counts taken from two reference points 10
m apart along river, while sitting submerged. Sampling time from 0845 to 0915 hours.
2.4.6 (R) UPPER BA RIVER (SITE 63)
Upper Ba River represents a montane forest zone. This site was chosen with respect to its
substrate types, which have some parts with fused rock wall where water runs through.
2.4.6.1 General description (a) Vegetation
On each side of the river was grassland and weedy plants such as Wedelia biflora (Wedelia),
Vernonia cinerea (Little iron weed), Stachytarpheta urticaefolia (Blue rat tail), Nephrolepis
biserrata, Sporobolus diander (Indian dryseed) and Pennisetum polystachion (Buffel grass).
(b) Climate
The meteorology station closest to the Upper Ba River is from the Nadarivatu Forestry Station.
The average monthly rainfall is 279 mm and monthly rainfall ranges from 77 mm in July to 704
mm in March. Mean monthly maximum temperature ranges from 14.6 0C in August to 24.5 0C in
January (Fiji Meteorology Service, 2004).
34
(c) Geology
Refer to section 2.4.4.1 (b) of the Wabu watershed. This site is close to the Wabu watershed; the
geology formation is the same.
2.4.6.2 Description and sampling techniques used in Site 63R. Site 63. Upper Ba River (1770 54’.31”S, 170 42’.53”E), 26 August 2004, 740 m above sea
level. Substrate rock wall fused in the centre of the river on both sides and large boulders at
centre of river. River exposed to sunlight; riparian plants of mosses, creepers and grasses present.
Spear gun fishing and visual observations used in this river. Hand gleaning for prawns also
carried out in small pools in creek. Sampling time from 1100 to 1130 hours. Questionnaires were
used to gather additional fish information from the villagers.
2.4.7 (S) NUKUNUKU CREEK (SITE 64).
Nukunuku Creek represents a montane forest zone. This site was chosen to look at the different
habitats and altitudes fish may inhabit. This creek is one of the headwaters of the Sigatoka River.
It has a unique substrate with rock wall on one side of the creek.
2.4.7.1 General description (a) Vegetation
The plants on the river side are Wedelia biflora (Wedelia), Cyperus rotundas (Nut sedge),
Hedychium gardneriamum (Yellow ginger), Psidium guajava (Guava), Lantana camara
(Lautana), Spathodea campunulata (African tulip), Piper aduncum (Honolulu), Mikania
micrantha and Clidemia hirta.
(b) Climate
Refer to section 2.4.6.1 (b) of the Upper Ba River. These sites are close together therefore
experience similar climatic factors.
(c) Geology
Refer to section 2.4.4.1 (c) of the Wabu watershed. The geology formation is the same as of the
Wabu area.
35
2.4.7.2 Description and survey techniques used in Site 64 S. Site 64. Nukunuku Creek (Appendix 10, Plate 9) (1770 56’.30”S 170 38’.36”E), 25 August
2004, 835 m above sea level. Substrate dominated at centre by rubble and sand; large boulders at
sides and centre of the creek. River exposed to sunlight; riparian plants, mosses, creepers and
grasses present. Handline and visual observations used in river. Sampling time from 1345 to 1415
hours. Questionnaires were used to gather additional fish information from the villagers.
2.4.8 (S) NADALA CREEK (SITE 65)
2.4.8.1 General description. Nadala Creek represents a montane forest zone. The forest there is secondary as the original
forest was logged ten years ago. Now there are reforestation activities taking place at this site.
(a) Vegetation
The common plants along the creek edge were Syzygium seemannii, Acalypha rivularis,
Podocarpus neriifolius, Piper aduncum (Honolulu), Hedychium gardnerianum, Kyllinga
polymorpha (Nama sedge) and Arundo donax (Giant reed).
(b) Climate
Refer to section 2.4.4.1 (b) of the Wabu watershed. This site is close to Wabu watershed;
therefore, it has a similar rainfall.
(c) Geology
Refer to section 2.4.4.1 (c) of the Wabu watershed. This site is close to Wabu watershed; the
geology formation is the same.
2.4.8.2 Description and sampling techniques used in Site 65 T. Site 65. Nadala Creek (1770 57’.24”S 170 36’.18”E), 31 August 2004, 920 m above sea level.
Substrate dominated at centre by rubble and sand; large boulders at sides. River exposed to
sunlight; riparian plants of mosses, creepers and grasses present. Spear gun fishing and visual
observations used in river. Sampling time from 1347 to 1417 hours. Questionnaires were used to
gather additional fish information from the villagers.
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2.4.9 (U) QALIWANA CREEK (SITE 66)
Qaliwana Creek represents a montane forest zone. It was within a disturbed area where
settlements, farming and pastures lie along the creek edge.
2.4.9.1 General description (a) Vegetation
The plants on the creek edge are Syzygium seemannii, Acalypha rivularis, Podocarpus neriifolius,
Piper aduncum (Honolulu), Hedychium gardnerianum, Kyllinga polymorpha (Nama sedge),
Arundo donax (Giant reed) and Wedelia biflora (Wedelia).
(b) Climate
Refer to section 2.5.4.1 (b) of the Wabu watershed. This site is close to Wabu watershed;
therefore, it has a similar rainfall.
(c) Geology
Refer to section 2.5.4.1 (b) of the Wabu watershed. This site is close to Wabu watershed; the
geology formation is the same.
2.4.9.2 Description of Site 66 Site 66. Qaliwana Creek (1770 59’.57”S, 170 37’.13”E), 31st August 2004, 933 m above sea level.
Substrate dominated at centre by boulders and rubbles; rock wall at sides. River exposed to
sunlight, riparian plants, creepers and grasses present on the creek edge. Spear gun fishing and
visual observations used in river. Sampling time from 1115 to 1145 hours. Questionnaires were
used to gather additional fish information from the villagers.
2.4.10 (M) TAVORO CREEK, BOUMA (SITES 22 –34)
Tavoro Creek was chosen because it is a short coastal river system within a forest reserve
draining into a marine reserve area. The creek has a series of five waterfalls between its
headwaters and the coast. Tavoro Falls, one of the waterfalls, is a well-known tourist destination,
and is visited by an average of 21,000 tourists every year. Apart from the waterfall and the
marine reserve, Tavoro Creek is on a young geological island (Taveuni). It was surveyed to
provide information on the fish fauna of the creek for comparison with the fish fauna of the older
geological island of Viti Levu.
37
Taveuni is the third largest island in the Fiji group. It is one of the most recent (800 years ago)
volcanically active islands in the Fiji group. It has a total landmass of 435 km2 (Woodhall, 1985;
Cabaniuk, 1987). The island’s mountainous backbone is essentially a line of ancient volcanic
cones, which forms a ridge some 10 miles long from north to south, with the highest elevation of
1241m at Mt Uluiqalau. A flooded crater floor forms Lake Tagimaucia, which is located at the
northern end of the ridge (Southern et al., 1986 and Cabaniuk, 1987). This is Fiji’s largest
freshwater lake.
Taveuni is characterised by a landscape of deeply dissected valleys. Waterfalls, cascades and
associated pools are a common feature of this mountainous and forested environment. There are
a large number of swift flowing streams which run roughly parallel, in a west to east direction to
the coast (Cabaniuk, 1987).
The Bouma (or Tavoro) Waterfall (24m high) is located at 160 49’ S and 1790 52’ W on Taveuni
within the locally managed Bouma Forestry Reserve Park (Figure 2.4). The waterfall is about
500 m away from Korovou Village. Tavoro Creek has five major waterfalls, each associated with
deep natural pools at their base. Tavoro Creek is surrounded by 80% pristine forest comprising
the 15,000 ha Forest Reserve Park. In 1996, the adjacent Korovou Village had a total of 293
people within 46 households (Bureau of Statistics, 2003).
2.4.10.1 General description of Tavoro Creek. (a) Vegetation
The Bouma Forestry Reserve comprises a lowland tropical rainforest habitat. A riparian plant
survey of Tavoro Creek within the reserve was carried out by Naikatini (2003). In the upper
reaches the riparian trees are Agathis macrophylla (Fiji kauri), Sauraria rubicunda and Parinari
insularum, the shrubs are Ficus vittiensis, Syzygium seemannianianum, Cordyline sp., Ficus sp.
and Polyscias sp., and the vines and climbers are Merremia sp., Mikania micrantha, Dioscorea
sp., Ipomoea sp., Freycinetia sp., Entada phaseoloides (Water vine). The herbs are Clidemia
hirta, Heliconia sp. and Cyathea sp., and the ferns are Nephrolepis biserata and Marattia smithii.
The following plants were most common in the middle reaches. The trees Inocarpus fagifer
(Tahitian chestnut), Syzygium sp., Citrus sp., Dendrocnide harveyii, Sauraria rubicunda,
Mangifera indica (Mango), Agathis macrophylla (Fiji kauri), Artocarpus altilis (Breadfruit),
Pometia pinnata; shrubs Ficus vitiensis, Syzygium seemannianianum, Ficus bambusifolia,
38
Psidium guajava, vines and climbers Merremia sp., Mikania micrantha, Freycinetia sp.,
Epipremnum sp., herbs Clidemia hirda, Heliconia sp., Alpinia sp., Hedycanium sp., Cyrtosperma
sp., and ferns Nephrolepis biserrata and Marattia smithii.
The terminal reach vegetation is dominated by the tree species Syzygium malaccense (Malay
apple), Hibiscus tiliaceus, Spondias dulcis, Atuna raceamosa, Bruguiera gymnorrhiza,
Rhizophora samoensis and Cocos nucifera, and shrubs of the species Ficus vitiensis, Carica
papaya and Leucaena leucocephala. The non-coastal forest is generally above 350 m elevation
and is comprised of Calophyllum vitiense, Syzygium sp., Mysristica gillespieana, Dendrocnide
sp., Endospermum macrophyllum and Fulvo pilosa or F. greenwood (Shepherd and Neall, 1991).
Coastal forest clearings usually occur near the middle to lower reaches of the creeks. Yam
(Dioscorea sp.), cocoa (Theobroma cacao), dalo (Colocasia sp.), coconut trees (Cocos nucifera)
and yagona (Piper methysticum) plants are planted in these clearings. Cattle are grazed in farms at
lower elevations close to the root crops and often within the coconut plantations.
(b) Climate
Taveuni experiences tropical conditions year round. The meteorology station closest to the
Tavoro Creek is from the Matei Airport. It records an average monthly rainfall of 226 mm. The
monthly rainfall ranges from 100 mm in July to 349 mm in January, mean monthly maximum
temperature ranges from 24.1 oC in August to 28.3 oC in February and the minimum monthly
temperature is 22.2 o C (Fiji Meteorology Service, 2004).
Taveuni records the highest rainfall of the Fiji group, averaging in excess of 12 m per year. The
higher slopes of eastern Taveuni can experience even higher rainfall of more than 30 m per year
(Cabaniuk, 1987). This high rainfall can be explained by the island’s full exposure to the
moisture-laden south-east trade winds.
(c) Geology
Taveuni is the largest Pleistocene dormant volcano in Fiji. It is a basaltic eruption centre and the
island is dominantly constructed of lava flows with intercalated lava beccia and tephra
depositions (Cronin, 1999).
39
The age of the Taveuni volcanic group is from 0.01 - 0.02 Ma to 0.8 - 1.8 Ma. The whole island
is covered with the Somosomo Basalt of a parent rock known as the Olivine Basalt. The island
itself is dominated by basaltic lava with scoria cones all over the island.
Almost 80% of the upper Bouma Reserve was covered with the Somosomo Basalt, halite and
occasional benmoneite lava, whereas the lower Bouma Reserve to the coast is covered with
Somosomo Basalts and occasional hawiite lava (Woodhall, 1985).
Above the falls the Tavoro Creek substrate is mostly large metamorphic boulders with
interspersed gravel. The creek water flows through a conglomerate embedded rock wall substrate
before it drops off the waterfall into a big pool. The pool is surrounded by a rock wall and in the
centre of the pool sand and gravel dominate. The substrate of the middle reach of the creek is
more rubble and sand near the middle of the creek and mud and silt close to the banks. The lower
reaches of the creek are mainly mangrove swamps with silt near the banks and silt, sand and
scattered pebbles in the middle of the creek. The substrate of the creek mouth is intermittently
dominated by sand and silt.
2.4.10.2 Description and survey techniques used in Sites 22–34M. Site 22. Tavoro Creek. At mouth of Tavoro Creek (at 16o 49’.50”S, 179o 52’.31”W), 10
March 2003, at sea level. Main substrate type at mouth of silt and mud at sides, sand with some
gravel in middle. Vegetation of mangrove forest of Rhizophora stylosa and some Bruguiera
gymnorrhiza. Gill net (30 m x 2 m x 5 cm) used to seal off creek mouth (1135 to 1600 hours).
Tidal range from 1.40 m at 1121 hours to 0.60 m at 1747 hours.
M. Site 23. Tavoro Creek. 50 m away from mouth, (at 16o 49’.50”S, 179o 52’.28”W), 10 - 11
March 2003, at sea level. Gill net (30 m x 2 m x 5 cm) used to seal off part of creek. Substrate of
lower part of creek mostly silt and mud on sides, small rocks in middle. Vegetation mainly
mangrove forest of Rhizophora stylosa and some creepers edges of creek. Gill net set overnight
(1630 to 1800 hours). Tidal range from 1.30 m at 2400 hours to low tide 0.70 m at 0545 hours.
M. Site 24. Tavoro Creek. 50 m away from site 23 and 10 m below a bridge (at 16o 49’.50”S,
179o 52’.28”W), 12 March 2003, at sea level. Substrate mostly of large boulders on one side, mud
on other side, rock and rubble in middle of creek. Vegetation of grasses on one side and creepers
40
and grasses on other side of creek. Gill net (30 m x 2 m x 5 cm) used to seal off site (1250 to
1800 hours). Tidal range from 1.40 m at 1314 hours to 0.60 m at 1946 hours.
M. Site 25a. Tavoro Creek. Above bridge (at 16o 49’.58”S, 179o 52’.38”W), 21 October 2002, 2
m above sea level. Substrate mainly sand, rubble and boulders, mud at edge. Vegetation mainly
grasses and ferns along creek with bamboo on one side. Electro fishing machine, hand net and
pole seine net used for 30 minutes for five sweeps along both sides and towards centre of creek.
Sampling time from 0815 to 0845 hours, during falling tide from 1.50 m at 0624 hours to 0.40 m
at 1230 hours.
M. Site 25b. Same site and method as 25a. Date: 4 March 2003; electro fishing machine, hand
net and pole seine net used from 0800 to 0830 hours, during falling tide from 1.60 m at 0730
hours to 0.50 m at 1336 hours.
M. Site 26a. Tavoro Creek. 50 m upstream of bridge (at 160 49’.56”S, 1790 52’.42”W), 21
October 2002, 2 m above sea level. Substrate mainly sand, rubble and boulders; mud at edges of
creek. Vegetation of grasses and ferns along both sides and overhanging creek. Electro fishing
machine, hand net and pole seine net used for 30 minutes for five sweeps along both sides and
towards centre of creek. Sampling time was from 0855 to 0925 hours, during falling tide from
1.50 m at 0624 hours to 0.40 m at 1230 hours.
M. Site 26b. Same site and method as 26a. Date: 4 March 2003; electro fishing machine, hand
net and pole seine net used from 0840 to 0910 hours, during falling tide during falling tide from
1.60 m at 0730 hours to 0.50 m at 1336 hours.
M. Site 27a. Tavoro Creek. 100 m above bridge (at 160 49’.57”S, 1790 52’.44”W), 21 October
2002, 4 m above sea level. Substrate dominated by sand, rubble and boulders, mud at sides of
creek. Vegetation of grasses and ferns along both sides, some grasses and ferns spreading into
creek. Electro fishing machine, hand net and pole seine net used for 30 minutes for five sweeps
along both sides and towards centre of creek. Sampling time 0935 to 1005 hours, during falling
tide from 1.50 m at 0624 hours to 0.40 m at 1230 hours.
41
M. Site 27b. Same site and method as 27a. Date: 4 March 2003; electro fishing machine, hand
net and pole seine net used from 0920 to 0950 hours, during falling tide from 1.60 m at 0730
hours to 0.50 m at 1336 hours.
M. Site 28a. Tavoro Creek. 100 m upstream of site 27 (at 160 49’.57”S, 1790 52’.47”W), 22
October 2002, 6 m above sea level. Substrate mainly sand, rubble and boulders, mud at edges.
Vegetation of grasses and ferns along both sides, some grasses and ferns overhanging creek.
Electro fishing machine, hand net and pole seine net used for 30 minutes for five sweeps along
both sides and towards centre of creek. Sampling time is 0900 to 0930 hours, during falling tide
from 1.50 m at 0701 hours to 0.50 m at 1301 hours.
M. Site 28b. Same site and method as 28a. Date: 4 March 2003; electro fishing machine, hand
net and pole seine net used from 1000 to 1030 hours, during falling tide during falling tide from
1.60 m at 0730 hours to 0.50 m at 1336 hours.
M. Site 29a. Tavoro Creek. At confluence of Nakabuka and Tavoro creeks (at 160 49’.57”S, 1790
52’.47”W), 22 October 2002, 7 m above sea level. Substrate mainly sand, rubble and boulders,
mud at edges. Vegetation of grasses and ferns along sides, some grasses and ferns overhanging
creek. Dead tree fallen into creek, tree roots on side of creek. Electro fishing machine, hand net
and pole seine net used for 30 minutes for five sweeps along both sides of creek and towards
centre of creek. Sampling time from 0940 to 1010 hours, during falling tide from 1.50 m at 0701
hours to 0.50 m at 1301 hours.
M. Site 29b. Same site and method as 29a. Date: 4 March 2003; electro fishing machine, hand
net and pole seine net used from 1040 to 1110 hours, during the falling tide during falling tide
from 1.60 m at 0730 hours to 0.50 m at 1336 hours.
M. Site 29c. Same site and method as 29a. Date: 10 March 2003; electro fishing machine, hand
net and pole seine net used from 0830 to 0900 hours, during rising tide from 0.40 m at 0459 hours
to 1.40 m at 1121 hours.
M. Site 30a. Tavoro Creek. 100 m upstream of site 29 (at 160 49’.60”S, 1790 52’.53”W), 22
October 2002, 8 m above sea level. Substrate mainly sand, rubble and boulders, mud at edges.
Vegetation of grasses and ferns on sides, some grasses and ferns spreading into creek. Small dead
42
tree laying in creek and on one side a small tree overhangs creek. Electro fishing machine, hand
net and pole seine net used for 30 minutes for five sweeps along both sides and towards centre of
creek. Sampling time from 1020 to 1040 hours, during falling tide from 1.50 m at 0701 hours to
0.50 m at 1301 hours.
M. Site 30b. Same site and method as 30a. Date: 4 March 2003; electro fishing machine, hand
net and pole seine net used from 0910 to 0940 hours, during rising tide during falling tide from
1.60 m at 0730 hours to 0.50 m at 1336 hours.
M. Site 31a. Tavoro Creek. 100 m downstream from waterfall pool (at 160 49’.60”S, 1790 52’.62”
W), 21 October 2002, 9 m above sea level. Substrate dominated by thick layer of sediment
washed down creek during recent flood. Vegetation of grasses and ferns on sides with small
bushy shrubs overhanging one side of creek. Electro fishing machine, hand net and pole seine net
used for 30 minutes for five sweeps along both and towards centre of the creek. Sampling time
was from 1400 to 1430 hours, during rising tide from 0.40 m at 1230 hours to 1.60 m at
1840 hours.
M. Site 31b. Same site and method as 31a. Date: 4 March 2003; electro fishing machine, hand
net and pole seine net used from 1335 to 1405 hours, during the low tide 0.30 m at 1320 hours.
M. Site 31c. Same site and method as 31a. Date: 11 March 2003; electro fishing machine, hand
net and pole seine net used from 0905 to 0935 hours, during rising tide from 0.7 m at 0545 hours
to 1.4 m at 1215 hours.
M. Site 32a. Tavoro Creek. 50 m downstream of waterfall (at 160 49’.59”S, 1790 52’.70”W), 21
October 2002, 10 m above sea level. Substrate mainly sand, rubble and boulders, mud at edges.
Dead tree lying in creek, roots overhanging creek. Vegetation of grasses and ferns on sides, some
grasses and creepers overhanging creek. Electro fishing machine, hand net and pole seine net
used for 30 minutes for five sweeps along both sides and towards centre of creek. Sampling time
from 1415 to 1445 hours, during rising tide from 0.40 m at 1230 hours to 1.60 m at 1840 hours.
M. Site 32b. Same site and method as 32a. Date: 11 March 2003; electro fishing machine, hand
net and pole seine net used from 0945 to 1015 hours, during rising tide from 0.70 m at 0545 hours
to 1.40 m at 1215 hours.
43
M. Site 33a. Tavoro Creek. Waterfall pool (Appendix 10, Plate 10) (at 160 49’.59”S, 1790
52’.72”W), 21 October 2002, 11 m above sea level. Substrate mainly sand and small gravel in
centre and large boulders on sides. Vegetation of grasses and ferns on both sides. Electro fishing
machine, hand net and pole seine net used for 20 minutes for five sweeps along both sides of edge
of pool outlet to creek. Visual observation also used at this site using a transect line along length
of pool. Ten minutes spent on visual observation. Sampling time from 1455 to 1525 hours, during
falling tide from 0.40 m at 1230 hours to 1.60 m at 1840 hours.
M. Site 33b. Same site and method as 33a. Date: 4 March 2003; electro fishing machine, hand
net and pole seine net used from 1415 pm to 1445 pm, during rising tide 0.50 m at 1336 hours to
1.60 m at 1932.
M. Site 34a. Tavoro Creek. Above Tavoro Falls, 400m from edge (at 160 49’.63”S, 1790 52’.90”
W), 22 October 2002, 91 m above sea level. Substrate mainly sand, fused rock and boulders.
Vegetation of mosses and vines on sides, few creepers on one side of creek. Electro fishing
machine, hand net and pole seine net used for 30 minutes for five sweeps along both sides and
into centre of creek. Sampling time from 1300 to 1330 hours.
M. Site 34b. Same site and method as 34a. Date: 4 March 2003; electro fishing machine, hand
net and pole seine net used from 0825 to 0855 hours.
2.4.11 (N) NAVAKA CREEK (SITES 35 and 36)
The Navaka Creek is the neighbouring creek to Tavoro Creek. It is a disturbed lowland coastal
creek, and it was sampled to provide a comparison with the undisturbed Tavoro Creek. This is a
disturbed area due to dalo and yaqona farming on both side of the creek.
2.4.11.1 General description The general description is similar to that of Tavoro. Therefore, refer to section 2.4.10.1
2.4.11.2 Description and sampling techniques used in Sites 35 and 36 N. Site 35. Navaka Creek. Lower Navaka Creek (at 160 49’.46”S, 1790 52’.81”W), 5 March 2003,
3 m above sea level. Substrate mainly sand, rock and boulders. Vegetation of mosses and vines
on sides of creek, moss and grasses on creek edges. Electro fishing machine, hand net and pole
44
seine net used for 30 minutes for five sweeps along both sides and into centre of creek. Sampling
time from 1400 to 1430 hours.
N. Site 36. Navaka Creek. Upper Navaka Creek, (at 160 49’.43”S, 1790 53’.06”W), 5 March
2003, 6 m above sea level. Substrate mainly sand, rock and boulders. Vegetation of mosses on
creek edges and creepers and grasses along sides. Electro fishing machine, hand net and pole
seine net used for 30 minutes for five sweeps along both sides and into centre of creek. Sampling
time from 1445 to 1515 hours.
2.4.12 (O) WAILEVU CREEK (SITES 37 – 40)
Paddy Ryan in 1979 collected at Wainibau Creek near Lavena village. Therefore, I decided to
survey Wailevu Creek, Lavena (which is adjacent to Wainibau Creek) and then compare the fish
species collected from the two creeks. Wailevu Creek also represents a disturbed lowland forest.
2.4.12.1 General descriptionThe general description is similar to that of Tavoro. Therefore, refer to section 2.4.10.1
2.4.12.2 Description and survey techniques used in Sites 37 – 40O. Site 37. Mouth of Wailevu Creek (at 160 51’.25”S, 1790 53’.06”W), 6 March 2003, at sea
level. Substrate mainly sand and rubble, mud near edges. Vegetation of mangrove forest of
Rhizophora stylosa on one side of creek, creepers and grasses on other side under coconut trees.
Visual observation with face mask on and sitting submerged at one point, making record of all
fish passing reference point. Pole seine net also used to survey creek. Sampling time from 0835
to 0905 hours, during high tide at 1.60 m at 0840 hours.
O. Site 38. Mid Wailevu Creek (Appendix 10, Plate 11) (at 160 51’.09”S, 179 0 53’.08”W), 6
March 2003, 2 m above sea level. Substrate mainly rubble and boulders. Vegetation of big forest
trees, mosses and few creepers under forest on sides of creek. Electro fishing machine, hand net
and pole seine net used for 30 minutes for five sweeps along both sides of and into centre of
creek. Sampling time from 0920 to 0950 hours.
O. Site 39. Small pool tributary to Wailevu Creek (at 160 50’.97”S, 1790 53’.39”W), 6 March
2003, 50 m above sea level. Substrate of pool dam-like: mainly rock wall at one end and
boulders at other end, creating pool. Vegetation of big forest trees and shrubs around pool,
45
mosses and creepers on edges. Electro fishing machine, hand net and pole seine net used for 30
minutes for five sweeps along both sides and into centre of creek. Sampling time from 1120 to
1150 hours.
O. Site 40. Upper Wailevu Creek (at 160 50’.96”S, 1790 53’.38”W), 6 March 2003, 42 m above
sea level. Substrate along creek mainly rubble and boulders. Vegetation of forest trees and
understorey shrubs along some parts of creek, mosses and creepers on sides of creek. Electro
fishing machine, hand net and pole seine net used for 30 minutes for five sweeps along both sides
and into centre of creek. Sampling time from 1255 to 1325 hours.
2.4.13 (P) WAITAVALA CREEK (SITES 41 and 42)
Waitavala Creek is on the north-west coast of Taveuni Island, opposite Bouma Creek. It was
selected due to its unique fused volcanic rock substrate, which the creek flows over and into a big
pool. Waitavala Creek is also a well-known site in Taveuni, with a lot of tourists utilising the
creek in various ways. This creek also represents a disturbed coastal creek.
2.4.13.1 General descriptionThe general description is similar to that of Tavoro. Therefore, refer to section 2.4.10.1
2.4.13.2 Description and survey techniques used in Sites 41 and 42P. Site 41. Waitavala Creek. Lower Waitavala Creek (at 160 47’.73”S, 1790 59’.46”W), 7 March
2003, 21 m above sea level. Substrate mostly boulders in centre, rubble on one side, huge fused
rock wall on other side. Dead tree in small pool. Vegetation of mosses and ferns, some tree roots
also in creek. Electro fishing machine, hand net and pole seine net used for 30 minutes for five
sweeps along both sides and into centre of creek. Sampling time from 0900 to 0930 hours.
P. Site 42. Waitavala Creek. Pool at base of water slide (Appendix 10, Plate 12) (at 160 47’.78”S,
1790 59’.43”W), 7 March 2003, 58 m above sea level. Substrate of fused volcanic rock.
Vegetation type mainly big forest trees, few mosses on rocks beside pool. Visual observation
used at this site using a transect line along length of pool. Sampling time from 1045 to 1115
hours.
46
2.4. 14 (Q) WAISALI SYSTEMS (SITES 55-59)
Waisali Creek was chosen as it represents an interior disturbed lowland tropical rainforest. This
river flows beside a forest reserve; therefore, it was thought it would provide a good
comparison of the fish fauna in adjacent disturbed and undisturbed areas. Savuqoro Creek
is within the Waisali Forest Reserve in North-west of Vanua Levu. It is a tributary of the
Waisali Creek. This creek flows through embedded basaltic rock before a great slope
forms a waterfall. Below the fall is a wide range of pools.
2.4.14.1 General description (a) Vegetation
The forest system within the area is typical of a lowland to mid-elevation tropical forest. The
common riparian vegetation found on banks of the Savuqoro Creek and Waisali Creek include the
three endemic riverine species of Acalypha rivularis, Syzygium seemannianum and Ficus
bambusifolia.
(b) Climate
The meteorology station closest to the Waisali System is from the Savusavu Airport The mean
annual rainfall is 3000 - 5000 mm and the mean temperature is 22.1 0C (Fiji Meteorology Service,
2004).
(c) Geology The geology and soils of the Waisali Forest Reserve is mainly highly weathered rocks and clays
of moderate to low fertility.
2.4.14.2 Description and survey techniques used in Sites 55 – 59 Q. Site 55. Upper Waisali. Upper section of Waisali Creek (at 160 33’.24”S, 1790 14’.13”E), 3
March 2004, 49 m above sea level. Substrate dominated by boulders, rubble and sand.
Vegetation of tropical rainforest forming understorey shrubs with fern, Merremia sp., covering
river edges; mosses on boulders in river. Electro fishing machine, hand net and pole seine net
used for 30 minutes for five sweeps along both sides and into centre of creek. Sampling time from
1230 to 1300 hours.
47
Q. Site 56. Confluence of Waisali and Savuqoro Creeks (160 33’.33”S, 1790 14’.11”E), 3 March
2004, 36 m above sea level. Substrate dominated by large boulders, sand and rubble. Lower
section of site exposed to sunlight, upper section under tropical rainforest. Electro fishing
machine, hand net and pole seine net used for 30 minutes for five sweeps along both sides and
into centre of creek. Sampling time from 1355 to 1425 hours.
Q. Site 57. Lower Savuqoro Creek (160 33’.30”S, 1790 14’.06”E to 160 33’.33”S, 1790 14’.06”E),
3 March 2004, 50 m above sea level. Substrate of sand, rubble and fused rock in pools along
creek. Creek flows through thick, tropical rainforest and understorey shrubs; ferns and mosses on
edges of creek. Visual observation and hand gleaning for prawns carried out in four small pools
along creek. Visual observations made by using facemask and sitting submerged in each pool for
an average of seven minutes per pool. Sampling carried out from 1445 to 1515 hours.
Q. Site 58. Savuqoro Creek below waterfall (Appendix 10, Plate 13) (160 33’.24”S, 1790 13’.27”E
to 160 33’.24”S, 1790 13’.27”E), 4 March 2004, 190 m above sea level. Substrate mainly of large
rocks, gravel and sand. Below waterfall a huge rock wall surrounded by ferns and creepers. Forest
forms understorey shrubs, ferns and mosses on edges of creek. Visual observation, hand net and
hand gleaning for prawns carried out in one big pool and two small pools below Savuqoro Creek.
Visual observations made by using facemask and sitting submerged in each pool for an average
of ten minutes each. Sampling carried out from 1115 to 1145 hours.
Q. Site 59. Savuqoro Creek, above waterfall (160 33’.19”S, 1790 13’.20” E to 160 33’.19”S, 1790
13’.20”E), 4 March 2004, 364 m above sea level. Substrate mainly of large rocks, rubble and
sand. Ferns, Merremia sp. (creeper) and mosses on sides of creek. Visual observation, hand net
and hand gleaning for prawns carried out in six pools surveyed along creek above Savuqoro
Waterfall. Visual observations made by using facemask and sitting submerged in each pool for an
average of five minutes each. Sampling carried out from 1210 to 1240 hours.
The best photography of habitats and fish species are illustrated in Appendix 10 and Appendix
11.
48
Figure 2.3 Tamavua River, Savura and Vago Creeks sampling sites 1- 21.
Source: Baravi Thaman, (Unpublished).
49
Figu
re 2
.4 T
avor
o C
reek
sam
plin
g si
tes 2
2 –
34.
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arav
i Tha
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50
CHAPTER 3 FIJI FRESHWATER FISH CHECKLIST AND
BIOGEOGRAPHY
3.1 Introduction Springer and Williams (1990) found that fish richness decreased eastward due to loss of habitats
and cooler sea temperatures causing the extinction of Indonesian-Malayan population but giving
rise to endemic fish on the Pacific Plate. Furthermore, the island nature of river systems limits
the possibility of dispersal in the freshwater fish (McGlashan and Hughes, 2002). See also section
1.3.2.
In insular Pacific islands, freshwater streams and rivers are dominated by seven families of
freshwater fishes (Andrews, 1985; Lewis and Pring, 1986; Ryan, 1980; 1991; Watson, 1991;
McRae, 2001; Jenkins, 1999; Fitzsimons et al., 2002; Allen 2003). These families are: Gobiidae,
Eleotridae, Kuhliidae, Syngnathidae, Mugilidae, Anguillidae and Poeciliidae. A number of
marine fish families are usually found in estuarine areas including the Carangidae, Chanidae,
Muraenidae, Carcharhinidae and Toxotidae (Fitzsimons et al., 2002).
Unfortunately most of the earlier collecting expeditions (see 1.6.2) barely ventured inland and
freshwater systems remained almost unknown until recently. One exception was MacDonald
(1869, in Fowler 1959), he described Gonostomyxus loaloa, a synonym of Cestraeus plicatilis,
based on material he collected from the Wai Manu (=Waimanu) River, a tributary of the Rewa
River. MacDonald (1869 in Fowler 1959), also reported Eulamia gangetica, a synonym of
Carcharhinus leucas, 40 miles into Raiva (= Rewa) River. The works of Ryan (1980 and 1981),
Andrews (1985) and Lewis and Pring (1986) have partly addressed that problem. But it was
believed that the freshwater fishes of Fiji had been underreported, and the true status of this fauna
remained undetermined.
Freshwater fish collections by the author and Aaron Jenkins from 2001 to 2004, the freshwater
fauna research group from the Fiji Institute of Technology in 2002, Waqairatu in 2003, and the
Wildlife Conservation Society in 2003 provided new information. The FIT and the WCS have
given permission for information on their collections to be used in this study; in addition, some of
their information was reported by Jenkins (2003).
51
The aims of this chapter are:
1. To produce an updated freshwater fish species list for Fiji
2. To compare this update list with what is known from other Pacific Countries and
3. To analyse occurrence of fish due to overall commonness, geographical zone, and salinity
zone.
3.2 Methods
Information on the sites surveyed (1-66) and collecting methods used at each site are presented in
Chapter 2 (Figure 2.1 and 2.2).
To measure how common the fish species were one could analyse the total number of each
species obtained and/or the number of sites at which a given species was found. Given the
different intensity of effort at different water systems and different methods/technologies used it
was determined more reliable to use the latter method.
The “Inter Quartile Range” analysis was used to describe how common were the fish species
caught from the different sites collected during this survey, other collections and the combined
collections. The Inter Quartile Range used in this analysis was sourced from the Department of
Statistics, Yale University (http://www.stat.yale.edu/Courses/199798/101/numsum.htm).
Common fish species that are presented in this report were based on those found in the top
quartile in order of number of sites where they were observed. Least common fish species are
those which found in the lower quartile. There are other fish species that are between the lower
and top quartile which are known as the “inter quartile range (IQR).” The fish species that are
within the IQR can be termed as ocassionally to moderately common because they are not most
common or least common in their occurrence from the different water systems of collection.
Collections from this study and the other collections from Fiji sourced from literature, books,
museums and student reports were used to determine most common and least common fish
species. The analysis was done for this thesis collection, other collections and then the combined
collection.
The calculation of the quartiles is presented on the next page.
52
First multiply the percentage of interest p by the total number of observations plus one (n + 1).
In this case p = 25 % or 0.25 for the first quartile and 75 % or 0.75 for the third quartile
Therefore 0.25*(n+1) = y
The y value is the observation value used to calculate the first quartile.
Therefore the first quartile is calculated by;
1st quartile = 0.25*y1 + 0.75*y2, where y1 + y2, are the whole number above and below y if it is a
fraction.
The third quartile may be calculated similarly: 0.75*(n+1) = Z
The Z value is the observation value used to calculate the third quartile.
3rd quartile = 0.75*z1 + 0.25*z2, where z1 + z2, are the whole number above and below z if it is a
fraction.
The first quartile is a group of values that falls at or below the 25 % and the third quartile of a
group of values that falls at or below the 75 %. The observation values are placed in ascending
order. The distance between the first and the third quartile is referred to as “Inter quartile range”
(IQR).
For example;
From this thesis’ collections there were 21 water systems, so n = 21
(n + 1) = (21 + 1) = 22
0.25*22 = 5.5, it falls between 5 and 6.
Therefore, 1st quartile = 0.25*5 + 0.75*6 = 1.25 + 4.5 = 5.75 (rounded off to the nearest whole
number equals to 6).
0.75*22 = 16.5, it falls between 16 and 17
Therefore, 3rd quartile = 0.75*16 + 0.25*17 = 12 + 4.25 = 16.25 (rounded off to the nearest whole
number equals to 16).
The Inter quartile range is 16.25 – 5.75 = 10.5 (rounded off to the nearest whole number equals to
11).
So if a fish species occurred in at least 17 water systems it is classed as common whereas
occurrence at 5 or less systems makes it less common. Between 6 and 16 systems makes it
occasionally to moderately common. A similar analysis was performed for all other collections
and then a total combination including collections from this thesis. Note there was overlap in
53
some of the other water systems. The summary of the fish calculated are presented in Table 3.1
below and the fish species lists are in Appendix 6.
The outcome of this analysis shows that there is a greater widespread of the freshwater fih in Fiji
despite most of the past collections and the collections from this survey are biased towards the
island of Viti Levu.
Table 3.1 Summary of the quartiles calculation for the common and less common species from
the two different collections and their combination. The first quartile is = > 75%, Inter quartile =
25% to 75% and third quartile is = <25%.
Different collections
Quartiles This thesis collection
Othercollections
Combinedcollections
First quartile 6 species 5 species 11 species
Inter quartile range 11 species 10 species 18 species
Third quartile 16 species 15 species 28 species
Total water systems sampled
21 19 37
3.3 Results
3.3.1 CURRENT FIELD SURVEY COLLECTION
The list of collection sites, their description and the fish collected are listed in Appendix 1. A total
of 76 freshwater and estuarine species from 31 families were found during field surveys
(Appendix 2).
Seven species and one genus believed new to science were found during this survey. These new
taxa are from two subfamilies within the family Gobiidae. Glossogobius sp. 1, Schismatogobius
vitiensis and Stenogobius sp. 1 are in the subfamily Gobionellinae and Sicyopus (c.f.
Juxtastiphodon) sp., Stiphodon sp.1, Stiphodon sp. 2 and a believed new species (new genus) are
in subfamily Sicydiinae.
Glossogobius sp.1 (Appendix 11, Plate 25) was collected from Tavoro Creek was confirmed by
Dr Douglass Hoese (AMS) as a new species. Dr Hoese reports that this species was previously
identified as Glossogobius celebius, which has been reported as widely distributed from Australia
54
to Japan and east to Fiji and New Caledonia. However, the real Glossogobius celebius
(Valenciennes, 1837) is confined to the Indian Ocean (Hoese and Allen, in press). The Pacific
Glossogobius is a new species. It differs from G. celebius in position of head pores and has one
more dorsal ray. In Fiji, this species was found only in clear, slow flowing rivers with a sand to
gravel substrate type.
Schismatogobius vitiensis Jenkins and Boseto, 2005 (Appendix 11, Plate 28) was collected from
Viti Levu, Vanua Levu and Taveuni. It can be distinguished by the following combination of
features: 8 or 9 anal rays, dorsal fins with seven dorsal fin spines and 9 – 10 dorsal fin rays with
diagonal black band. Females have a thin dark band crossing the chin, and a triangular dark patch
in the region of isthmus in juveniles. See Jenkins and Boseto (2005) for a full description.
Stenogobius sp.1 (Appendix 11, Plate 29) was called S. genivittatus by earlier authors (e.g.
Fowler, 1959; Ryan, 1980; Lewis and Pring, 1986) but S. genivittatus (Valenciennes, 1837) is a
species endemic to the Society Islands (Watson, 1991). Stenogobius genivittatus is different by
having fewer rows of teeth and more trunk bars in males. Stenogobius sp.1 has seven to ten trunk
bars on its body and a naked predorsal area. Usually it inhabits clear water with sandy substrate in
a slow flowing part of the stream.
Sicyopus (c.f. Juxtastiphodon) sp. (Appendix 11, Plate 33) appears similar to S.(J.) nigripinnis
(Parenti and Maciolek, 1993) from Pohnpei and Kosrae (Federated States of Micronesia) but
differs in having some teeth recurved and lateral teeth more widely spaced (Dr. R. Watson, pers.
comm., 2004). In addition, there is considerable difference in colouration. This species inhabits a
unique substrate composed of a fused rock wall. More specimens are needed before it can be fully
ascertained that it is a new species.
Stiphodon sp. 1 (Appendix 11, Plate 35) is very similar to S. elegans (Steindachner, 1879) from
the Central Pacific (French Polynesia to Samoa) but is not conspecific with it (Dr. R.Watson,
pers. comm., 2004). The characteristics distinguishing the new species from other species of
Stiphodon include: nine second dorsal fins, 32 – 38 total lateral scales that extend close to the
pectoral fin base except in small specimens. Additional specimens of males and females are
needed to validate the status of this species (Dr. R. Watson, pers. comm., 2004). In Fiji, this
species was usually found in a clear pool where large boulders and rocks were surrounded with
gravel.
55
Stiphodon sp. 2 (Appendix 11, Plate 36) is another probable new species of miniature goby that
differs from the other Stiphodon species (Dr. R. Watson, pers. comm., 2004). Females have the
following characteristics: nine second dorsal fins, 19 – 30 total lateral scales that do not extend
close to the pectoral fin base; predorsal midline without scales; belly naked; scales below first
dorsal fin cycloid; widely separated upper jaw teeth 34 – 42; tricispid teeth present on each side
of symphysis; and females have no conical or canine like teeth in the lower jaw. This species was
collected from a clear pool where large boulders and rocks occur with gravel in the bottom.
The new genus, new species (Front cover, Plate 1) differs from Stiphodon species by lacking head
pores K and L and by the associated length of the oculoscapular canal (Dr. R. Watson, pers.
comm., 2004). The species has a tongue that is broadly free. It closely resembles a new genus and
new species from Vanuatu in which the females have upper jaw teeth that are always tricuspid,
but in males the posterior tricuspid teeth in the upper jaw are replaced with conical teeth. The
species from Vanuatu has ctenoid scales laterally while specimens from Fiji have cycloid scales.
The new genus, new species in Fiji is immediately separated from Lentipes in having a broadly
free tongue. Specimens of this species were collected from sites above the Tavoro Falls and from
Waitavala Creek (both places in Taveuni). This fish lives in the rapid zone where large boulders
and rocks occur or where rocks are fused (e.g. Site 41).
Four new records for Fiji were collected from this survey. These were Yirrkala gjellerupi, Gerres
longirostris, Lentipes kaaea and Belobranchus belobranchus. However, Yirrkala gjellerupi and
Belobranchus belobranchus collected during this survey were reported in Jenkins and Boseto
(2003).
3.3.2 PREVIOUS COLLECTIONS
A total of 151 species from 41 families had been recorded from Fiji’s fresh and estuarine waters,
or are held in collections (Appendix 3).
Redigobius specimens collected from a single site in the Lekutu River in Vanua Levu by John
Pogonowski in 2003 have been confirmed as representing a new species (Dr. H. Larson, pers.
comm., 2004). Some specimens held in overseas collections are incompletely identified
(Appendix 4). Some of these specimens may also represent new species, or new records for Fiji.
56
3.3.3 COMBINED COLLECTIONS
There are 161 species from 45 families of freshwater and estuarine fish in Fiji known to date.
There are still many more species to be found. See Appendix 5 for complete fish list.
3.3.4. ANALYSES
3.3.4 a. Commoness
The summary of fish commonness is presented in Table 3.2 and Table 3.3. The detail results of
the moderate and less common species are presented in the Appendix 6.
Table 3.2 Number of species found in each category.
Collections
Category This collection Other collections Combined collections
Most common 1 4 2
Moderate 6 26 17
Less Common 69 121 142
Table 3.3 More common species in each collection.
This collections Other collections Combined collections
Anguilla marmorata Hypseleotris guentheri Eleotris fusca Kuhlia rupestris Anguilla marmorata
Anguilla marmorata Kuhlia rupestris
3.3.4 b. Geographical distribution
Fijian estuarine and freshwater fish distributions were also sub divided into the government zones
of Fiji. This was done as they have characteristics that might influence what fish occur there and
to look at the fish distribution in relation to the different habitats that are within the different
zones. The Western and Central zones are both of the main island of Viti Levu, the former being
the dry side and latter the wet side of the island. These have marked rainfall, river flow and
vegetation differences. The Northern zone contains Vanua Levu, which has similar
characteristics overall to Viti Levu and Taveuni, the third largest island but much younger
volcanically. The Eastern zone is mainly the smaller outer islands, some low-lying but also some
small volcanic ones. The fish distribution and composition of each of the four zones are presented
in Figure 3.1.
57
0
50
100
150
Zones
Tota
l num
ber
Families 10 37 20 18
Species 22 137 57 53
Western Zone Central Zone Eastern Zone Northern Zone
Figure 3.1. Zonal distribution of the total number of fish in four zones from past and current
records.
There were some fish that occurred in all four divisions. These are listed in Table 3.4 below.
Table 3.4 List of species and families that are present in the four zones within Fiji.
ANGUILLIDAE Anguilla marmorata Quoy & Gaimard, 1824 Anguilla obscura Günther, 1872
ELEOTRIDAEEleotris fusca (Forster, in Bloch & Schneider, 1801) Eleotris melanosoma Bleeker, 1852 Giurus hoedti (Bleeker, 1854)Hypseleotris guentheri (Bleeker, 1875)
GOBIIDAE GOBIONELLINAE
Awaous guamensis (Valenciennes, in Cuvier & Valenciennes, 1837),Awaous ocellaris (Broussonet, 1782) Stenogobius sp.1
SICYDIINAE Sicyopterus lagocephalus (Commerson, in Lacepède, 1800)
HEMIRAMPHIDAE Zenarchopterus dispar (Valenciennes, in Cuvier and Valenciennes, 1847)
KUHLIIDAE Kuhlia marginata (Cuvier, in Cuvier and Valenciennes, 1829)Kuhlia rupestris (Lacepède, 1802)
SYNGNATHIDAEMicrophis brachyurus brachyurus (Bleeker, 1853)
TERAPONIDAE Terapon jarbua (Forsskål, 1775)
58
3.3.4 c. Salinity
The fish collected from this survey and the other collections were also categorised based on water
salinity. There are fish that are found in the freshwater and species that are present in both the
freshwater and estuarine zone. There are species that are found in the freshwater, estuarine and
marine water. Finally there are species that are present in only estuarine and marine that are found
in the estuarine collection areas. The summary of the total number of fish collected from the
different water salinity are in Table 3.5 below.
Examples of fish that present in different water salinity are as follows: freshwater (Hypseleotris
guentheri), freshwater/brackish (Apogon amboinensis), freshwater/brackish/marine (Ambassis
miops) and brackish/freshwater (Sardinella fijiense). The fish species collected from the different
water salinity are presented in Appendix 7.
Table 3.5 Fish collected from different water salinity.
Salinity Total fish collected from preferred salinity
Freshwater 14
Freshwater/Brackish 20
Freshwater/Brackish/Marine 55
Brackish/Marine 72
3.3.5 FRESHWATER FISH OF FIJI COMPARED TO OTHER PACIFIC COUNTRIES
The ten endemic freshwater species of Fiji are Glossogobius sp.1, Redigogius leveri, Redigobius
sp.1, Schismatogobius vitiensis, Stenogobius sp.1, Sicyopus (c.f. Juxtastiphodon) sp., Stiphodon
sp.1, Stiphodon sp. 2, the Sicydiinae: new species (new genus) and Mesopristes kneri (but this
number may increase). A summary of the total number of endemic and total number of freshwater
and estuarine fish fauna in some Pacific countries are presented in Table 3.6.
59
Table 3.6 Total number of endemics and total freshwater fish fauna of Pacific Countries.
Country Endemics Total Fauna % Total Sources Australia 65 209 31.1 Allen et al. 2002;
Fishbase 2004 Palau Island 2 40 5 Bright and June, 1981;
Fishbase 2004 Guam 0 17 0 Fishbase 2004 PNG 60 329 18.2 Allen 1991; Allen
2003; Fishbase 2004 Solomon Islands 3 84 3.6 Gray 1974; Allen and
Boseto (unpublished report);
Fishbase 2004 New Caledonia 10 64 15.6 Marquet et al. 2003;
Fishbase 2004 Vanuatu 5 60 8.3 Ryan 1986; Nimoho
2000; Fishbase, 2004 Fiji 10 89 11.2 This study Samoa 3 31 9.7 Ryan 1991; Fishbase
2004; Dr. R. Watson, pers. comm., 2004
Cook Islands 0 7 0 Ryan 1991; Fishbase 2004
Hawaii 3 59 5.1 Fitzsimons et al. 2002; Fishbase 2004
French Polynesia 12 46 26.1 Marquet and Mary 1999; Fishbase 2004
Low numbers of endemics and freshwater fish fauna in some of the insular Pacific countries can
be attributed to lack of freshwater fish research being carried out there and therefore, may not
reflect true numbers.
3.4 Discussion3.4.1 TOTAL FISH CHECKLIST
By carrying out surveys in 66 sites, analyzing published and unpublished reports, and accessing
collection data from several large international institutions, the number of freshwater and
estuarine fish species known from Fiji has been raised from 80 species (in 28 families) in Ryan
(1991), the most recent checklist, to 161 species (in 45 families) in this study. Even so, it is
unlikely that this will be the final number.
60
Why were new taxa found?
The new taxa reported in this thesis were made possible through:
i. the use of a mixture of fishing gears (including electrofisher);
ii. collecting at different places; and
iii. accessing a wide range of information.
The development of the Fiji National Biodiversity Strategy and Action Plan (1999) has raised
new interest in biodiversity assessments. In addition several international biodiversity
conservation organizations have set up offices in Fiji in the last ten years.
Why were some old records not repeated?
There are three possible reasons:
i. most previous studies covered different zones and habitats that were not covered in
this survey;
ii. different fishing methods may have been used; and
iii. some species may have been incorrectly identified earlier.
There are very few common species and the majorities are less common species observed from
this collection, other collections and combined collections. In general freshwater fish have fairly
specific habitat requirements (Gehrke and Harris, 2000; Keith, 2003). This was the case in Fiji
where only a few fish were found everywhere whereas the majority of the fish are found in only a
few places. The lack of study and comparability of methods (for example electrofisher) has not
been used for scientific collections are other possible reasons.
Earlier expeditions by Wilkes in 1842, Challengers in 1874 and collections from this studies
shows that most of the freshwater fish sampling in the central zones of Fiji where 85 % of fish
species have been found. The fewer numbers of species from the western and northern zones may
reflect reduced habitat diversity, or insufficient collecting.
The exotic species of the family Cichlidae are present in three zones of the Fiji group except for
the eastern zone. The central zone recorded the highest number of exotic species (11 species from
four families) (refer Appendix 3).
61
In general, there are only a few species that spend their entire life cycle in fresh water. However,
there are certain species that are equally at home either in fresh water or marine water and most of
the species have entered fresh water at a certain stage of their life cycle. For example, in this case
there are 72 species that are not of fresh water but enter the lower reaches of streams. A similar
trend was also reported from Australia and PNG by Allen (1991 and Allen et al., 2002).
The species richness in the estuarine water is probably due to the seagrass beds and mangrove
habitats of that zone (Mumby et al., 2004). In addition, the proximity of coral reefs to the
sampling areas (Quinn and Kojis, 1985; Mumby et al., 2004) also increases fish species richness
in the estuarine zone.
3.4.2 BIOGEOGRAPHY PATTERN
The number of freshwater fish species reported from different Pacific Island countries is likely
under reported because of the lack of freshwater fish surveys. For example, the freshwater fish
reported from Solomon Islands is a result of three collections made by Gray (1974) on the island
of Guadalcanal and a preliminary survey by G. R. Allen in 2004 and G. R. Allen and David
Boseto in 2005 (Unpublished report). Once collections are conducted throughout all Pacific
Islands countries the true number of the freshwater fish of the region will be better known.
From Table 3.6 it is seem that the highest numbers of fish species are reported from Australia and
PNG, the western most Pacific countries. However, Fiji, which is east of New Caledonia,
Vanuatu and Solomon Islands, has more than double the reported species of these countries. This
is likely due to the greater effort that has taken place in Fiji. Another factor may be the bigger
islands, longer rivers and more varied habitats of Fiji compared to these other three island groups.
The regional trend in fish diversity generally declines from the west to the east (Randall, 1998).
Biogeographical studies of freshwater fish show historical links between the geological and biotic
evolution of the region (Sivasundar et al., 2001) and there is a positive relationship between
geographical range size that is associated with body size, local abundance and habitat breadth
(Randall, 1998 and Pyron, 1999).
In the last 100 million years tectonic development of the Southwest Pacific Plate has occurred.
Plate motions shift from the hotspot frame, which involves rifted continental margins and oceanic
62
plateaus, to move towards the subduction zones with associated island arcs and marginal basins
(Springer, 1982; Nunn, 1994; Kroenke, 1996; Polhemus, 1996). Hotspots and volcanic activity
are more common in the Western Pacific which leads to more habitat types and larger islands.
Springer (1982) emphasizes the andesite line because it is an important faunaistic boundary that
describes the easternmost limits of the distribution of Indo-Pacific species. The andesite line
around the Pacific and its continuation around the Indonesian Arc is one of the fundalmental
geological boundaries of the earth (Springer, 1982). It was through the different geological
boundaries and plates that perform an integral part on the distribution of the fish species from the
western to the eastern Pacific.
In general, endemism increases with isolation. Species differeniation depends on the ability of the
taxon to be isolated (Paulay, 1994). Although this seems to be true of French Polynesia, there is
no general pattern moving across the Pacific. There must be many factors involved, including the
degree of study that has been done.
3.4.3 DISTRIBUTION OF FRESHWATER FAMILIES WITHIN FIJI
The information given here is based on Fowler, 1959; Gray, 1974; INR Report, 1979; Ryan,
1980; Beumer, 1985; Allen, 1991; Watson, 1991; Allen and Burgess, 1990; Allen and Coates,
1990; Allen and Leggeh, 1990; Nimoho, 2000; Allen et al., 2000; Berra, 2001; Allen et al., 2002;
Allen, 2003; Marquet et al., 2003; Jenkins 2004; Randall, 2005; Hoese and Allen (in press) and
Fishbase, 2004, unless otherwise stated. See Appendix 5 for a complete list of Fiji freshwater and
estuarine fishes so far recorded.The fish distribution in countries was sourced from the Fishbase,
2004 and other sources stated beside the fish species.
ALBULIDAE (Bonefishes)
A single specimen of Albula glossodonta (Forsskål, 1775) was collected in the Rewa River
reported by Fowler (1959). This species inhabits estuarine water but also travels upstream.
Widely distributed in the Indo-Pacific from the Red Sea to Hawaii, Japan, Lord Howe Island and
throughout Micronesia (Fowler, 1959 and Fishbase, 2004).
63
AMBASSIDAE (Glassfishes)
Three species of Ambassis have been recorded from freshwater systems in Fiji: A. miops Günther,
1872, A. urotaenia Bleeker, 1852 and A. vaivasensis Jordan & Seale, 1906. The only species
collected during this study was A. miops (Appendix 11, Plate 14) from the Tamavua River system
(including Savura Creek). Ambassis urotaenia was collected from an unspecified site in Fiji by
Kendall and Goldsborough 1911 reported in (Fowler 1959) and in Suva by Fowler 1928. A.
vaivasensis was reported by Fowler (1959) and Ryan (1980) from rivers and creeks near the
Tamavua River system. However, these two species were not collected in this survey.
Ambassis urotaenia is distributed from East Africa to the Papua New Guinea and as far as Japan,
so it is likely that Fiji specimens were wrongly identified. However, there are no specimens of A.
urotaenia in the USP collection to verify their identification. Ambassis vaivasensis has been
reported from five different sites within Fiji. These are a river flowing into Suva, Naikorokoro
Creek, lower Nasavu River and Bureta River (Ryan, 1980; Andrew, 1985; Jenkins and Boseto,
2003; and CAS material). The type locality of Ambassis vaivasensis is reported from Upolu
Island in Samoa; and that may be why Fiji specimens have been identified as that species. There
are no materials at the USP collections except for the A. vaivasensis specimen collected from
lower Nasavu River and reported by Jenkins and Boseto (2003). This specimen was wrongly
identified and was re–identified by myself and Patricia Kailola as A. miops. It is probable that all
A. vaivasensis records in Fiji are misidentified specimens of A. miops.
Ambassis miops inhabits freshwater systems. It is widely distributed in the Indo-west Pacific from
India to New Guinea, New Caledonia and north to Ryukyu Island (Allen, 1991). It is also
reported from New Caledonia, Samoa and now in Fiji (Fishbase, 2004).
ANGUILLIDAE (Freshwater Eels)
Six species of Anguilla have been recorded from Fiji. These are Anguilla australis Richardson,
1841, A. bicolor bicolor McClelland, 1844, A. marmorata Quoy & Gaimard, 1824, A. megastoma
Kaup, 1856, A. obscura Günther, 1872 and Anguilla sp. In this study, only A. bicolor bicolor, A.
marmorata (Appendix 11, Plate 15) and A. megastoma (Appendix 11, Plate 16) were collected. A.
bicolor bicolor is collected in Fiji by (Ege 1939 in Beumer, 1985), Jenkins and Boseto (2003). It
was widespread in the tropical Indian Ocean and western Pacific.
64
Anguilla marmorata is widespread through the Fiji Islands. Anguilla marmorata is distributed in
the Indo-Pacific from East Africa to French Polynesia and north to southern Japan (Gray, 1974;
Ryan, 1980; Nimoho, 2000; Marquet et al., 2003 and Fishbase, 2004). Anguilla megastoma is
distributed in the western and central Pacific Ocean from Sulawesi in Indonesia to the Society
Islands, and Pitcairn Island (Beumer, 1985 and Fishbase, 2004). Anguilla megastoma (Appendix
11, Plate 20) was collected from Tamavua River system during this study. It was also reported
from Viti Levu by (Ege, 1939 in Beumer, 1985) and Kanathea (=Kanacea) by Fowler (1959).
Some of Anguilla obscura specimens reported (Appendix 3) were collected from creeks near the
Tamavua River system; however it was not encountered during this survey. Anguilla obscura is
reported from the Society Islands and is also present as far west as New Guinea and Queensland
(Allen et al., 2002). It should also be present in Fiji, but since it was not caught in this survey, it
is believed that has to do with the limited sampling. It can be clearly be differentiated from A.
marmorata and A. megastoma.
Anguilla australis was recorded from Samoa by Wass (1984). Ege (1939, in Beumer, 1985)
reported it from Viti Levu. However, its presence in Fiji needs to be verified.
Anguilla sp. was recorded from Nadi River on the island of Viti Levu by Anon (1983 in Beumer,
1985).
APOGONIDAE (Cardinalfishes)
There are two species of Apogon in Fiji freshwaters: These are A. amboinensis Bleeker, 1853 and
A. lateralis Valenciennes, 1832. Sphaeramia orbicularis Cuvier, 1828 has also been recorded
from creeks and rivers near the Tamavua River system (Appendix 3). This family was only
recorded from Viti Levu where most of the survey was carried out. These fish are usually found
in estuarine waters, and enter fresh water at times for feeding.
Apogon amboinensis (Appendix 11, Plate 17) was collected from the Tamavua River system in
this survey. This species is widely distributed from Africa to Oceania, including Palau,
Philippines, New Guinea, Solomon Islands, New Caledonia, and now Fiji (Gray, 1974; Allen and
Burgess, 1990; Marquet et al., 2003 and Fishbase, 2004).
65
Apogon lateralis was collected from the Tamavua River system during this survey and has been
collected from Naqara, Kubuna and Suva reported from the USNM collection. It is widely
distributed in the Indo-west Pacific from East Africa to Samoa, north to Taiwan, Marianas,
Micronesia, and Lord Howe Island (Fishbase, 2004).
Sphaeramia orbicularis has been collected in the Wainadoi River (USNM specimens). It is
widely distributed in the Indo-Pacific from East Africa to Kiribati, and the Ryukyu Islands, the
Caroline and Mariana Islands, and New Caledonia (Fiahbase, 2004).
BALISTIDAE (Triggerfishes)
A single specimen of Rhinecanthus aculeatus (Linnaeus, 1758) from the Rewa River mouth is in
the USNM collection. This marine species must have wandered into fresh water at the time it was
collected. It is distributed in the Indo-west Pacific and Atlantic oceans (Fishbase, 2004).
CARANGIDAE (Jacks)
Four species of Caranx, C. ignobilis (Forsskål 1775), C. papuensis Alleyne & Macleay, 1877, C.
sexfasciatus Quoy & Gaimard, 1825 and C. tille Cuvier 1833, and a specimen of Scomberoides
tol (Cuvier, 1832) were recorded from Fijian fresh and brackish waters. Only C. sexfasciatus was
collected during this study. Most of these species are marine and brackish water inhabitats and
only occasionally enter fresh water. In this survey, only three estuaries were surveyed and less
time was spent in this habitat, hence the opportunity of catching Carangidae species was low.
Caranx ignobilis was reported by Lewis and Pring (1986) from an unspecified location from
within Fiji Islands. This species is distributed in the Indo-Pacific from Red Sea and the east coast
of Africa to the Hawaiian and Marquesas Islands, north to southern Japan and south to northern
Australia (Fishbase, 2004).
Caranx papuensis (CAS material) was collected from Kubuna Creek. This species is distributed
in the Indo-Pacific from Africa to the Caroline Islands, the Ryukyu Islands and Australia
(Fishbase, 2004).
Caranx sexfasciatus was collected from the Tamavua River system and Wailotua and Tavoro
Creeks. The CAS has a specimen from Kubuna Creek, the USNM has material from Suva; Lewis
66
and Pring (1986) reported it from Viti Levu, Waqairatu (2003) collected it from the Tamavua
River system, Herre (1936) recorded it from the mid Rewa River and the FIT research group
collected it from the Waimanu River. This species is distributed from the Red Sea and East Africa
to Hawaii, southern Japan, Australia and New Caledonia. It also occurs in the Eastern Pacific
(Ryan, 1980; Allen, 1991 and Fishbase, 2004).
There is a specimen of Caranx tille from Suva in the USNM collection. This species is distributed
in the Indo-West Pacific from Africa to Okinawa, Australia and Fiji (Fishbase, 2004).
Scomberoides tol was reported from an unidentified location in Fiji by Lewis and Pring (1986). It
is a marine and estuarine species that is distributed in the Indo-west Pacific (Fishbase, 2004).
CARCHARHINIDAE (Requiem Sharks)
Carcharhinus leucas (Müller & Henle, 1839) has been collected from three of Fiji’s river
systems. These are the Sigatoka, Rewa and Nasavu rivers Ryan (1980) and Lewis and Pring
(1986). Carcharhinus leucas is usually present in major river systems and lakes. It is also
globally distributed from Western Atlantic, Indo-West Pacific and Eastern Pacific (Berra, 2001).
In Fiji it was reported by MacDonald (1869 in Fowler 1959), as Eulamia gangetica 40 miles into
Raiva (= Rewa) River. It was reported in Viti Levu by Günther (1870 in Fowler, 1959) as
Carcharias gangeticus. It was reported in Fiji by (Fowler, 1928) as Eulamia gangeticus and
Whitley (1927) as Carcharinus gangeticus.
CENTRARCHIDAE (Sunfishes)
Micropterus salmoides (Lacepède, 1802) was reported from the Vaturu dam by Andrews (1985)
and collected in the upper Nadi River by Mr. J. Pogonowski in 2003. No specimens were
collected during this survey. This species is known from North America (Fishbase, 2004). It has
been widely introduced to cosmopolitan countries as a game fish.
CENTROPOMIDAE (Giant Perches)
Lates calcarifer (Bloch, 1790) was reported to be in Fiji by Sukhavisidh, P. and D. Eggleston,
1974. However, the distribution of L. calcarifer is in the Indo-West Pacific: from the eastern edge
Arabian Gulf to Taiwan and southern Japan, southward to southern Papua New Guinea and
northern Australia (Fishbase, 2004). Therefore, the status of this species in Fiji is incorrect.
67
CHANIDAE (Milkfishes)
Chanos chanos (Forsskål, 1775) has been collected in Fiji from Viti Levu by the FIT researchers
and records from CAS and USNM. The USNM material from Lau Island (Appendix 3). It is an
inshore species in Fiji. It was not collected during this study. Chanos chanos is widely distributed
in the Indo-Pacific from the Red Sea and South Africa, to South-east Asia and east to Hawaii and
the Marquesas Islands (Allen and Coates, 1990 and Fishbase, 2004). It also occurs in the eastern
Pacific (Randall, 2005).
CHIROCENTRIDAE (Wolf Herrings)
Chirocentrus dorab (Forsskål, 1775) was collected from an unspecified site in Fiji by Lewis and
Pring (1986) and there is material from the Rewa River in the USNM collection. Herre (1936)
recorded it from Ovalau Island. It is an estuarine species that usually penetrates the lower reaches
of rivers. Distributed in the Indo-Pacific from the Red Sea and East Africa to Solomon Islands,
and north to Japan (Fishbase, 2004).
CICHLIDAE (Cichlids)
There are three species of Oreochromis and a species of Tilapia were introduced in Fiji. These are
O. aureus (Steindachner, 1864), O. mossambicus (Peters, 1852), O. niloticus (Linnaeus, 1758)
and Tiliapia zilli (Gervais, 1848). In this study O. mossambicus (Appendix 11, Plate 57) was
collected from the upper Navua River, Upper Ba River, Nukunuku Creek, Nadala Creek and
Qaliwana Creek. It was collected from upper and mid Ba River, Nadi River and lower Sigatoka in
Viti Levu and from mid–upper Nakawakawa River in Vanua Levu by Pogonowski in 2003. It is
also recorded from the interior of Viti Levu at 705 m (BMNH specimen) and from Waimanu
River by the FIT research group and from the confluence of Wainivodi and Wainasavulevu River
by an INR report (1977). Oreochromis mossambicus is widely favoured by locals as a source of
protein, making it common in aquaculture ponds near villages and in big river systems in the
islands of Viti Levu and Vanua Levu (Andrews, 1985). Oreochromis mossambicus is an east
African species that has been widely introduced in the world for aquaculture, but it has escaped
and established itself in the wild in many countries and out-competes native species, thus having
an ecological impact (Eldredge, 2000).
68
Oreochromis niloticus was reported from Waimanu River by the FIT research group, Monasavu
Reservoir by Lewis and Pring (1986), Waisai Creek by Jenkins (2004), in Vanua Levu and in
lower Wainikoro, upper Dreketi and Mid-Upper Navonu rivers by John Pogonowski (Appendix
3). It was not collected in this study, although it occurs in several tributaries of the Rewa River
(Ms. S. Waqairatu, pers. comm., 2005). It so far does not occur in Taveuni. This Nile River
(Africa) species has been widely introduced into Fiji from Malaysia for aquaculture (Uwate et al.,
1984). Several countries have reported adverse ecological effects after introduction (Eldredge,
2000).
Oreochromis aureus was introduced for aquaculture at Raviravi in 1975 and 1976 and Tilapia
zilli have also been introduced to an unknown location for unknown purpose however, both
species were unestablished in Fiji (Andrew, 1985 and Eldredge, 2000).
CLUPEIDAE (Herrings and Sardines)
Sardinella fijiense (Fowler & Bean, 1923) was collected from the Tamavua River system in this
study. Also collected by Waqairatu (2003) from the Tamuvua River, from an unspecified location
in Fiji by Lewis and Pring (1986), and Naikorokoro Creek (USNM collection). A species that is
usually found in the estuarine ecosystem and the mangroves. Sardinella fijiense (Appendix 11,
Plate 18) is generally found in the Western Pacific, from New Guinea to New Caledonia and Fiji
(Fishbase, 2004). It has also been reported from Vietnam (Fishbase, 2004).
CYPRINIDAE (Carps)
There are six species of this exotic family in Fiji. These are Aristichthys nobilis (Richardson,
1845), Barbonymus gonionotus (Bleeker, 1850), Ctenophyaryngon idella (Valenciennes, in
Cuvier and Valenciennes, 1844), Cyprinus carpio carpio Linnaeus, 1758, Hypophthalmichthys
molitrix (Valenciennes, 1844) and Rhodeus ocellatus (Kner 1866).
Yet, in this study Barbonymus gonionotus (Appendix 11, Plate 58) was the only species collected
despite the other species having been recorded from the same catchments. These are introduced
species that compete with native species for habitat. Whenever Barbonymus gonionotus and
Oreochromis mossambicus were collected, no other exotic species were collected; therefore they
might out compete the other introduced species. Most of these species were introduced to Fiji for
various reasons such as food, aquaculture, pituitary donor for grass carp, ornamental and
69
biological control with little thought of their possible effects on native aquatic biota and on
freshwater ecosystems (Uwate et al., 1984; Andrews, 1985; Lewis and Pring, 1986; Eldredge,
2000).
Aristichthys nobilis and Hypophthalmichthys molitrix were introduced into Fiji for pond culture
and control of vegetation. Aristichthys nobilis was imported from Malaysia and China.
Hypophthalmichthys molitrix was imported from Malaysia and New Zealand. These species were
placed at the fisheries station in Lami for further studies into their feeding abilities to control the
weeds. They were later transfer into the Rewa River in wired netting to assess their ability to
control the weeds. This was very success however, it was destroyed by flooding and the fish
escped into the Rewa River.
Barbonymus gonionotus is an Asian species and was collected from Wailotua River during this
survey and from Rewa River and tributaries of the Rewa River by Lewis and Pring (1986).
Ctenophyaryngodon idella is reported from an unidentified site by Andrews (1985) and collected
from the Waimanu River by the FIT research group. It is native to China and eastern Siberia, but
is widely transported around the world. Several countries have reported adverse ecological impact
(Allen, 1991; Eldredge, 2000).
Cyprinus carpio carpio was introduced into Fiji for pond culture and as a source of pituitary. It
was first introduced from New Zealand and later from Malaysia. This was later abandoned after
Americans have imposed import restrictions on this species therefore, initial stock was destroyed.
Rhodeus ocellatus was reported from Naduruloulou Research Station ponds by Lewis and Pring
(1986). It has been introduced to several countries from its native China, Korea and Japan
(Fishbase, 2004).
DIODONTIDAE (Porcupinefishes)
A single specimen of Diodon liturosus Shaw, 1804 was collected during this study from Tavoro
Creek. It is a marine species which occasionally enters the lower reaches of freshwater systems.
This species is widely distributed throughout the Indo-Pacific from East Africa to Society Islands
(French Polynesia) (Allen and Leggeh, 1990 and Fishbase, 2004).
70
ELEOTRIDAE (Sleepers)
Sixteen species from 11 genera are reported from Fiji. Amblyeleotris guttata (Fowler, 1938)
(CAS collection) is known from a single site on the island of Kadavu. It is a marine species which
usually enters the lower reaches of creeks. Distributed in the Western Pacific from Philippines to
Samoa, including Ryukyu Islands, the Great Barrier Reef and Micronesia (Fishbase, 2004).
Belobranchus belobranchus (Valenciennces, in Cuvier & Valenciennes, 1837) (Appendix 11,
Plate 19) was collected during this study from the Sovi Basin (in the interior of Viti Levu) using
spear gun, and the Tavoro, Navaka and Wailevu creeks in Taveuni using a portable electro fisher.
A speciemen was collected during this study and Jenkins (2003) reported it as a new record for
Fiji. This species was previously reported from Indonesia, Philippines, and New Guinea (Allen,
1991).
Bostrychus sinensis Lacepède, 1801 was collected from three different sites in Fiji. During this
study it was collected from the Tamavua River system and records from Bureta River on Ovalau
Island and Kanacea Island in the Lau Islands come from Fowler (1959). Bostrychus sinensis
inhabits fresh waters and is distributed in the Indo-Pacific from India to Indonesia, Australia,
Vanuatu, Bougainville (PNG) and Samoa (Ryan, 1980 and Fishbase, 2004).
Bunaka gyrinoides (Bleeker, 1853) was collected from the Tamavua River system and Wailotua
River during this study and in Waimanu River by the FIT research group and the Naduruloulou
Research Station ponds by (Wetlands International training group). Then BMNH has material
from the interior of Viti Levu and Boren collected a specimen from Nayarabale River in 1986. In
Fiji these fish usually inhabit freshwaters from the coastal zone to inland. Widely distributed in
Oceania and Asia from Sri Lanka to Philippines, PNG, Micronesia, Australia, New Caledonia and
Fiji (Allen et al., 2000).
There are two species of Butis in Fiji. These are Butis amboinensis (Bleeker, 1853) and B. butis
(Hamilton, 1822). Butis amboinensis was collected from Kubuna Creek (USNM collection) and
Butis butis was reported from Naikorokoro Creek by Ryan (1980) and Nalase Creek by
Waqairatu (2003). Although the sites are close to the Tamavua River system neither of these
species was collected during this survey. Butis amboinensis has been recorded from Palau Island
and New Caledonia, while B. butis has been recorded from Palau Island and Fiji. It is distributed
in the Indo-West Pacific from India to Solomon Islands (Gray, 1974 and Ryan, 1980).
71
There are two species of Eleotris in Fiji. These are Eleotris fusca (Forster, in Bloch & Schneider,
1801) (Appendix 11, Plate 20) and E. melanosoma Bleeker, 1852. Both species are widely
distributed in Fiji and inhabit an ecosystem where there is overhanging riparian plants near
streams that have soft muddy edges. The fish live in mud substrates. E. fusca ranges from East
Africa to French Polynesia, and E. melanosoma is distributed from East Africa to the Society
Islands and north to Japan (Ryan, 1980; Allen, 1991 and Fishbase 2004)
There is a two species of Giurus in Fiji. These are G. hoedti (Bleeker, 1854) (Appendix 11, Plate
21) and G. margaritacea (Valenciennces, in Cuvier & Valencienne, 1837) (Appendix 11, Plate
22). Giurus hoedti is widely distributed in Fiji and is present in Viti Levu, Vanua Levu and
Taveuni (Appendix 3). Giurus hoedti inhabit an ecosystem where there are overhanging riparian
plants, dead trees and tree roots in the river or streams, that have soft muddy edges. Giurus hoedti
is distributed from Molucca Islands to New Guinea and Fiji (Allen et al., 2000).
The Giurus margaritacea (Valenciennces, in Cuvier & Valencienne, 1837). Previous collections
in Fiji called it as Ophieleotris aporos has been reported from the Sovi River by Lewis and Pring
(1986), Waimanu River (FIT research group), Naikorokoro Creek by Ryan (1980), and Suva and
Kanacea by Fowler (1959, as Ophiocara aporos). In this survey, it was collected in Viti Levu,
Vanua Levu and Taveuni (Appendix 2). Giurus margaritacea is distributed from Madagascar to
northern Australia, Palau, Solomon Islands, New Caledonia, Vanuatu and Fiji (Fishbase, 2004).
Lairdina hopletupus was recorded by Fowler (1955) as a Fijian endemic freshwater species.
However, (Dr. D. Hoese, pers. comm., 2003) identifies that this species is a synonym of Giurus
margaritacea. Therefore, this species is no longer an endemic species to Fiji but a widely
distributed species.
Hence, the Emperor of Japan is reviewing this group (Dr D. Hoese, pers. comm., 2004). It is
anticipated that the differentiation of Giurus margaritacea will be resolved at the end of his
review.
Hypseleotris guentheri (Bleeker, 1875) (Appendix 11, Plate 23) is widely distributed in Fiji. It is
usually common in fresh waters with overhanging vegetated habitats. Distributed from Indonesia
to New Guinea, New Ireland, Caroline Islands, New Caledonia, Fiji and Samoa (Ryan, 1980 and
Allen and Coastes, 1990).
72
Two species of Ophiocara have been recorded from Fiji. These are Ophiocara macrolepidotus
(Bloch, 1792) and O. porocephala (Valenciennces, in Cuvier & Valencienne, 1837). Ophiocara
macrolepidotus was reported by Whitley (1927) and Fowler (1927, 1931 and 1934) from Fiji,
Günther (1880, as Eleotris macrolepidota) from Ovalau Island, and Herre (1936, as Ophiocara
porocephala) reported it from Suva. Other earlier records that reported in Fowler (1959) are Kner
(1868), Schmeltz (1869), Pöhl (1884) as Eleotris cantoris then later called it as Eleotris
ophiopcephalus by Schmeltz (1879) from (Kanathia = Kanacea) and Viti Levu.. However,
Fishbase (2004) reports that O. macrolepidotus is an endemic species on the east coast of
Madagascar. Therefore, this species is likely to be wrongly identified; Perhaps O. porocephala
was intended.
Ophiocara porocephala was found in the lower reaches of the Tamavua River system during this
survey. Waqairatu (2003) also collected it from the Tamavua River system, it was reported from
Suva by Herre (1936), Kanacea by Fowler (1959) and from the Wainadoi River (USNM
collection). This species usually lives in fresh and estuarine (mangrove) ecosystems. Distributed
in the Indo-West Pacific from East Africa to high volcanic islands of Oceania (Fishbase, 2004).
Oxyeleotris marmorata (Bleeker, 1852) has been reported by Whitley (1927) and Fowler (1928
and 1931) in Fiji. Other earlier records in Fowler (1959) by Schmeltz (1865, as Eleotris
marmorata) from (Neva River = Rewa River), Pöhl (1884, as Eleotris marmorata) from Viti.
Ryan (1980) reported it from Rewa River, Waqairatu (2003) reported it from the Tamavua River
system and the FIT research group recorded it from the Waimanu River. However, no specimens
were collected during this study. According to Fishbase (2004), Oxyeleotris marmorata occurs
only in Asia (Vietnam to Indonesia). The records for Fiji need to be verified therefore.
ENGRAULIDAE (Anchovies)
Two species in two genera were collected from the mouth of the Tamavua River in Fiji during
this survey; however, other species of this family which are found in the marine habitat were
reported by Baldwin (1984). The two species collected during this survey are Stolephorus indicus
(van Hasselt, 1823) and Thryssa baelama (Forsskål, 1775). Both species usually penetrate the
lower reaches of freshwater systems. Stolephorus indicus was collected from the mouth of the
Tamavua River system during this study, and there is a record of Thryssa baelama from Kubuna
Creek (USNM collection). It is also reported from an unspecified location by Lewis and Pring
(1986). Stolephorus indicus occurs through the Indo-West Pacific and Thryssa baelama is
73
distributed from the Rea Sea and Madagascar, east to Samoa and north to Philippines and
Marianas Islands (Fishbase, 2004).
EPHIPPIDAE (Spadefishes)
Platax orbicularis (Forsskål, 1775) was collected from Toberua Island (USNM collection). No
specimens were collected during this study although it is a species which usually penetrates the
lower reaches of freshwater creeks. Distributed in the Indo-Pacific from the Red Sea and East
Africa to the Tuamotu Islands, including southern Japan, Australia and New Caledonia (Fishbase,
2004).
GERREIDAE (Silver Biddies)
Gerres longirostris (Lacepède, 1801) (Appendix 11, Plate 24) was collected from the mouth of
the Tamavua River system during this survey. A brackishwater species which usually penetrates
lower reaches of the rivers. This species is distributed in the Indo-Pacific (Fishbase, 2004).
GOBIIDAE (Gobies)
There are four subfamilies of Gobiidae (Nelson, 1994). These are Gobiinae, Gobionellinae,
Oxudercinae and Sicydiinae. All subfamilies are represented in Fiji.
Species of the family Gobiidae are common throughout the Indo-Pacific, Africa, Asia and
America (Berra 2001) and they are among the most structurally diverse and numerically speciose
fish (Miller, 1986). Twelve species belonging to the family Gobiidae are common between Africa
and Fiji (Daget et al., 1986 and Fishbase, 2004). There are twenty three species that are found in
Fiji and also in Asia (Fishbase, 2004) and twenty two species that are common between Fiji and
the other Pacific countries (Table 3.7).
74
Table 3.7 Goby species that are common between Fiji, Africa and Asia. “X” denotes their
presence in the locality.
Countries
Gobiidae Fiji Africa Asia Other Pacific Islands Acentrogobius caninus x x x x Acentrogobius suluensis x x x Bathygobius fuscus x x x x Bathygobius hongkongensis x x Bathygobius padangensis x x Caragobius urolepis x x x Ctenogobiops aurocingulus x x x Glossogobius bicirrhosus x x x Glossogobius sp.1 x Oplopomus oplopomus x x x x Palutrus scapulopunctatus x x Psammogobius biocellatus x x x x Yongeichthys nebulosus x x x x Awaous guamensis x x x Awaous melanocephalus x x x Awaous ocellaris x x x Mugilogobius notospilus x Oxyurichthys ophthalmonema x x x x Oxyurichthys tentacularis x x x x Redigobius bikolanus x x x x Redigobius leveri x Redigobius roemeri x x x Redigobius sp.1 x Schismatogobius vitiensis x Stenogobius sp.1 x Stigmatogobius sadanundio x x Periophthalmus argentilineatus x x x x Periophthalmus kalolo x x x x Lentipes kaaea x x Sicyopterus lagocephalus x x x x Sicyopterus hicklingi x Sicyopus zosterophorum x x x Sicyopus (c.f. Juxtastiphodon) sp. x Stiphodon rutilaureus x x Stiphodon sp. 1 x Stiphodon sp. 2 x New genus, new species x
75
Gobiidae are the most abundant fish in freshwater on insular Pacific islands (Nelson, 1994; Ryan,
1991). They are present in a wide range of aquatic habitats from the ocean into the head waters of
rivers (Nelson et al., 1997; Marquet and Mary, 1999). This study is only on the estuary and the
freshwater systems of Fiji and will compare goby distribution with other Pacific Islands.
There are 37 species of gobies known to inhabit freshwater and estuarine zone in Fiji known to
date, 10 species in Vanuatu, 18 species in Samoa, five species in Cook Islands, 23 species in
Palau, five species in Cape York in Australia, 61 species in Papua New Guinea (Ryan 1991;
Fishbase 2004), 23 species in the Solomon Islands (Allen and Boseto, unpublished), 18 species in
New Caledonian fresh waters (Marquet and Mary, 1999) and four species in Hawaiian
freshwaters (Fitzsimons et al., 2002). Singleton (1997) also recorded Gobiidae species present in
estuaries of tropical Pacific countries.
Nevertheless, recent discoveries of additional Goby species in the countries mentioned above
should increase the number of the gobies present in each country. This survey produced seven
new Gobiidae species to Fiji and there is another new species from John Pogonowski’s
collections reported in Jenkins (2003) that gives a total of 37 species of Gobiidae recorded for Fiji
to date. This does not limit the number of gobies that are still waiting for discovery in the
waterways of Fiji and the other Pacific Island countries.
GOBIINAE
Fourteen species from nine genera in this subfamily have been recorded from Fiji. Most of these
species are estuarine species. However, no specimens were collected during this study because of
the limited number of estuaries surveyed.
There are two species of the genus Acentrogobius in Fiji. These are A. caninus (Valenciennes in
Cuvier & Valenciennes, 1837) and A. suluensis (Herre, 1927). Acentrogobius caninus was
reported from Namusi (=Namosi) by Fowler (1959, as Gobius caninus) and Naqara (USNM
collections). The species is distributed through the Indo-West Pacific as far west as Madagascar
(Fishbase, 2004).
Acentrogobius suluensis is recorded from South Draunibota Island and Nadroga (USNM
collection). The species is distributed throughout the western Pacific from the Ryukyu Islands,
Philippines, Indonesia to Papua New Guinea and Fiji (Fishbase, 2004).
76
There are three species of the genus Bathygobius that were reported in the freshwater of Fiji.
These are B. fuscus (Rüppell, 1830), B. hongkongensis Lam, 1986 and B. padangensis (Bleeker,
1851). Bathygobius fuscus was reported from Suva and Ovalau Island by Fowler (1959, as
Gobius fuscus) and B. hongkongensis is collected from Naqara (USNM collection). Bathygobius
fuscus is distributed from Japan, Taiwan, Hong Kong and Thailand. It also occurs in the New
Guinea to Samoa and the Micronesia Islands (Fishbase, 2004).
Bathygobius padangensis was reported from Namusi (=Namosi) by Fowler (1959, as Gobius
petrophilus var. ocellatus). It is distributed over the Western Pacific from Japan, Taiwan,
Indonesia and New Guinea, Solomon Islands and also to Christmas Island in the eastern Indian
Ocean (Fishbase, 2004).
Caragobius urolepis (Bleeker, 1852) has been collected from Naqara (USNM collection). It is
distributed over the Western Pacific from India to the Philippines and Papua New Guinea
(Fishbase, 2004).
Ctenogobiops aurocingulus (Herre, 1936) was reported from Ovalau Island by Herre (1936 as
Apparius aurocingulus). Fowler (1959) reported it as Gobius aurocingulus. It is distributed
through the Indo-West Pacific from the Philippines and Ryukyu Islands to Fiji, Samoa, Caroline
Islands, and Marshall Islands (Fishbase, 2004).
There are two species of Glossogobius. These are G. bicirrhosus (Weber, 1894), and
Glossogobius sp.1. Glossogobius bicirrhosus has been collected from Naikorokoro Creek
(USNM collection). It is distributed from Indonesia, Philippines, and Japan to Palau. Also
reported from southern Taiwan, Australia and Papua New Guinea (Fishbase, 2004).
Glossogobius sp.1 is a new species widely distributed in Fiji collected from during this survey.
Previously reported from Fiji as G. celebius (Valenciennes, 1837) by Ryan (1980), and also
recorded from the Solomons, New Caledonia and Palau. However, a closer examination of the
species Glossogobius in the Pacific has concluded that these species from the Pacific are a new
species as it differs in the position of head pores and has one more dorsal ray than the true G.
celebius (Dr. D. Hoese, pers. comm., 2004) and Hoese and Allen (in press).
77
Oplopomus oplopomus (Valenciennes, in Cuvier & Valenciennes, 1837) was reported from South
Draunibota Island (USNM collections). This is a marine species that penetrates the lower reaches
of the freshwater streams. This species is distributed in the Indo-Pacific from East Africa to the
Society Islands and north to the Ryukyu Islands (Fishbase, 2004).
Palutrus scapulopunctatus (de Beaufort, 1912) reported from an unidentified location in Fiji by
Fowler (1959, as Gobius scapulopunctatus). A brackishwater species that penetrates the lower
reaches of the freshwater streams. This species is distributed in the Indo-Pacific from Arabia to
Indonesia and Fiji (Fishbase, 2004).
Psammogobius biocellatus (Valenciennces, in Cuvier & Valenciennes, 1837) was collected from
Tamavua River system and the Tavoro Creek during this survey, Herre (1936, as Glossogobius
biocellatus) and Fowler (1959, as Glossogobius giurus) reported it from a river flowing into the
Suva Harbour, from the Naikorokoro Creek, Naqara and Kadavu (USNM collection) and
Pogonowski collected it from lower Nala (Natewa) and upper Lekutu in Vanua Levu (Appendix
3). A brackish water species that penetrates the lower reaches of freshwater streams. This species
is distributed in the Indo-Pacific from south to East London and South Africa (Fishbase, 2004).
Yongeichthys nebulosus (Forsskål, 1775) was recorded from Namusi (=Namosi) by Fowler (1959,
as Gobius nebulosus). This species is distributed from East Africa through Indonesia east to
Micronesia, north to China and the Ryukyus and Australia (Fishbase, 2004).
GOBIONELLINAE
There are 13 species from seven genera in this subfamily in Fiji. Each genus and species will be
discussed.
Three Awaous species are recorded in Fiji; these are Awaous guamensis (Valenciennes, in Cuvier
& Valenciennes, 1837), A. melanocephalus (Bleeker, 1849) and A. ocellaris (Broussonet, 1782).
Awaous guamensis and A. ocellaris (Appendix 11, Plate 26) are widely distributed throughout
Fiji while on the other hand A. melanocephalus was collected from Viti Levu by Lewis and Pring
(1986). A. ocellaris was reported by Herre (1936) from Rewa River and Fowler (1959) reported it
from Fiji.
78
Awaous guamensis was reported from Neva (= Rewa River) as Gobius ocellaris by Godeffroy
(1865 in Fowler 1959), in Fiji as Chonophorus ocellaris by Whitley 1927, in Namusi (= Namosi),
Kanathia (= Kanacea) and Ovalau as Gobius crassilabris by Godeffroy (1869 and 1877 in Fowler
1959). Pöhl (1884 in Fowler 1959) reported it from Kanathia (=Kanacea) and in Narokorokoyawa
Creek by Fowler (1959, as Chonophorus guamensis). It is distributed in Oceania from Hawaiian
and Mariana Islands, south to Vanuatu, New Caledonia and Fiji and A. ocellaris is distributed
from India to the Philippines and north to Japan, Fiji and French Polynesia: Awaous
melanocephalus is distributed from Asia to Solomon Islands and Fiji (Lewis and Pring, 1986 and
Watson, 1991).
Mugilogobius notospilus (Günther, 1877) was reported from Viti Levu by Koumans (1953 in
Fowler 1959, as Stigmatogobius hoevenii) however, reported from Namusi (=Namosi) in Fowler
(1959, as Gobius notospilus). The type locality of this specimen is in Fiji.
There are two species of the genus Oxyurichthys in Fiji. These are Oxyurichthys ophthalmonema
(Bleeker, 1856-57) and O. tentacularis (Valenciennes, in Cuvier & Valenciennes, 1837).
Oxyurichthys ophthalmonema was reported from Kubuna Creek (USNM collections). Fowler
(1959 as O. ophthalmonemus) reported it from Fiji and Oxyurichthys tentacularis was reported
from Naqara (USNM collections). These are brackish water species which only penetrate the
lower reaches of the creeks.
Oxyurichthys ophthalmonema is distributed in the Indo-West Pacific and Oxyurichthys
tentacularis is distributed in the Indo-West Pacific from Transkei northwards, Zanzibar,
Madagascar to the tropical West Pacific (Fishbase, 2004).
There are four species of Redigobius in Fiji. These are R. bikolanus (Herre, 1927), R. leveri
(Fowler, 1943), R. roemeri (Weber, 1911) and Redigobius sp. 1 in Jenkins (2003).
Redigobius bikolanus was collected during this survey and reported from a river flowing into
Suva harbour (CAS collection). Redigobius bikolanus extend to the east as far as Fiji from Asia
and Oceania; Japan southward to the Philippines, Indonesia, New Guinea, Australia and Samoa.
Reported from South Africa and Seychelles (Fishbase, 2004).
79
Redigobius leveri (as Vaimosa leveri in Fowler, 1943 and Gobius leveri in Fowler, 1959)
(Appendix 11, Plate 27) is an endemic species of Fiji. It is widespread in Fiji on the island of Viti
Levu, Vanua Levu and Taveuni. R. roemeri was reported from a river near Suva by Fowler (1959,
as Gobius roemeri) but no specimen of R. roemeri was collected from this survey even though
survey was carried out in Tamavua River. The species R. roemeri is distributed from Philippines,
Indonesia, New Guinea, Fiji, Australia and New Caledonia. John Pogonowski collected a
Redigobius species from a single site in the Lekutu River in Vanua Levu which represents a new
species (Dr. H. Larson, pers. comm., 2003).
Schismatogobius vitiensis Jenkins and Boseto, 2005 was collected from the upper Navua River,
Sovi River and Tavoro Creek during this survey, and John Pogonowski collected it from lower
Nala, mid Buca and upper Lekutu River in Vanua Levu (Appendix 3). This species is endemic to
Fiji and is widely distributed from the coast to lowland forest.
Another new species is Stenogobius sp.1 Previously Fowler (1959) called it Stenogobius
genivittatus. However, it was wrongly identified. Refer to section 3.3.1 on page 54 for more
description of this species. This species is widely distributed in the three main islands of the Fiji
group as far as the Lau Island group (Appendix 3).
Stigmatogobius sadanundio (Hamilton, 1822) was collected from Viti Levu and Kanathia (=
Kanacea Island) reported by Fowler (1959 as Gobius sadanundio). This species is distributed in
South-east Asia (Fishbase, 2004). The status of this species in Fiji is uncertain.
OXUDERCINAE
There are three species from three genera in this subfamily in Fiji. These are all estuarine species
which are widespread over Fiji’s four main islands. These are Viti Levu, Taveuni, Kadavu and
Ovalau Island. Most of these species are also very difficult to catch.
Periophthalmus barbarus (Linnaeus, 1766) was reported by Fowler (1959, as Periophthalmodon
barbarus) based on Whitley (1927), Fowler (1928), Fowler (1934) and Herre (1936). This species
is an African species. The status of Fowler’s species is uncertain.
Periophthalmus argentilineatus Valenciennces, in Cuvier & Valenciennes, 1837 was reported
from Ellington Penang, Naikorokoro Creek and Kadavu (USNM collection). No specimens were
80
collected during this survey. This species is distributed along continental margins and high
islands of the tropical Indo-West Pacific Ocean from East Africa to Samoa (Fishbase, 2004).
Periophthalmus kalolo Lesson, 1831 was collected during this survey from Tavoro Creek by
using the cast net. Specimens from Naqara and Kadavu, Naikorokoro creeks were collected by
Ryan (1980) and from Rewa River by Fowler (1959, as Periophthalmus koelreuteri). This
species is distributed in the Indo-Pacific from East Africa to Samoa (Fishbase, 2004).
SICYDIINAE
My study revealed 15 species from five genera from this subfamily in Fiji. By collaborating with
international goby experts (Dr. D. Hoese, Dr. H. Larson, Dr. R. Watson and Mr. A. Jenkins pers
comm., 2004), we have determined eight proposed new species and a new genus. This includes
Glossogobius sp. Redigobius sp., Sicyopus (c.f. Juxtastiphodon) sp., Stenogobius sp., Stiphodon
sp. 1, Stiphodon sp. 2 and Sicydiinae: new genus and new species. One of the new species was
already described by Jenkins and Boseto (2005) as Schismatogobius vitiensis.
Lentipes kaaea Watson, Keith and Marquet, 2002 (Appendix 11, Plate 30) was collected from
Waitavala Creek in Taveuni during this survey and collected from Nakoronawa Creek in Kadavu
by the WCS (Appendix 3). It was initially, reported from Vanuatu and New Caledonia and now in
Fiji. Lentipes kaaea has broken the trend of a remarkably high degree of endemism even to the
point that they restricted to a single pool to widely distributed (Dr. R. Watson, pers. comm.,
2004).
There are two species from Sicyopterus reported from Fiji. These are S. lagocephalus (Pallas,
1770) (Appendix 11, Plate 31) and S. hicklingi (Whitley, 1950). Sicyopterus lagocephalus is
widely distributed throughout the Islands of Viti Levu, Vanua Levu and Kadavu (Appendix 3).
Sicyopterus lagocephalus is common and widespread through Fiji ranging from the coast to the
montane forest from this survey. Fowler (1959) reported it from Fiji as Sicydium laticeps as a
junior synonym of S. lagocephalus. This species is distributed from East Africa; Reunion and
Mauritis with few records from Comores and Madagascar (Fishbase, 2004).
Sicyopterus hicklingi is known from a single specimen collected from Rewa River by Dr.
Hickling in 1947 (Whitley, 1950). However, this species is now known as a junior synonym of
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Sciyopterus lagocephalus. Therefore, there is only a single species of the genus Sicyopterus that
is known in Fiji to date.
There are two species of Sicyopus reported from Fiji. These are S. zosterophorum (Bleeker, 1857)
and Sicyopus (c.f. Juxtastiphodon) sp. S. zosterophorum (Appendix 11, Plate 32) was first
recorded by Ryan (1991) from Wainibau Creek on Taveuni and later collected from Vago,
Wailevu, Waitavala and Waisali creeks during this survey, on Vanua Levu by Pogonowski
(Appendix 3) and on Kadavu by Kini Koto of Wildlife Conservation Society (Appendix 3).
Therefore, it is found on all four larger island of the Fiji group. It is also reported in the Western
Pacific including Indonesia, Philippines, New Guinea and New Caledonia, and Japan (Allen,
2003 and Fishbase, 2004).
For Sicyopus (c.f. Juxtastiphodon) sp. refer to section 3.3.1 on page 54.
There are three species from the genera Stiphodon reported from Fiji. These are S. rutilaureus
Watson, 1996, Stiphodon sp. 1 and Stiphodon sp. 2. Stiphodon rutilaureus (Appendix 11, Plate
34) was widely distributed on the four main islands of the Fiji groups. It was collected from 21
sites from the island of Viti Levu and Taveuni while John Pogonowski and Kini Koto collected
them from Vanua Levu and Kadavu (Appendix 3). Stiphodon rutilaureus is distributed through
out the Indo-Australia Archipelago from Waigeo and Batanta to Vanuatu and Fiji. Herre (1936)
and Fowler (1959) reported Sicydium elegans as a junior synonym of Stiphodon elegans in Fiji.
However, collaborating with goby expert it was said that Stiphodon elegans does not distributed
as far as Fiji (Dr. R. Watson, pers. comm., 2004).
For Stiphodon sp. 1, Stiphodon sp. 2 and Sicydiinae: new genus and new species refer to section
3.3.1 on page 54 and 55 for more descriptions.
HAEMULIDAE (Grunts)
Plectorhinchus gibbosus (Hombron & Jacquinot, 1853) was collected in Tavoro Creek during this
survey and reported from Kubuna Creek from the USNM collection. This is a marine species but
juveniles inhabit the lower reaches of the fresh water in the mangrove. This species is distributed
from Red Sea to South Africa, Persian Gulf eastward to Samoa, north to the Ryukyu Islands,
Australia, Caroline and the Mariana Island (Fishbase, 2004).
82
HEMIRAMPHIDAE (Garfishes)
There are three species from this family in Fiji. These are Hyporhamphus dussumieri
(Valenciennes, in Cuvier and Valenciennes, 1847), Zenarchopterus buffonis (Valenciennes, in
Cuvier and Valenciennes, 1847) and Zenarchopterus dispar (Valenciennes, in Cuvier and
Valenciennes, 1847) (Appendix 11, Plate 37). Hyporhamphus dussumieri was reported from
Bureta River (CAS collection) and Fowler (1959, as Hemirhamphus erythrorichus). It is a
marine species that enters the lower reaches of the freshwater streams therefore, must be caught at
that time it is moving upstream. On the other hand the equipment used may not be suitable for
collecting Hyporhamphus dussumieri. This species is distributed in the Indo-Pacific from
Seychelles through the eastern Indies, Borneo, Philippines, and New Guinea to Hong Kong and
Okinawa, and as far as the Tuamotu Islands (Fishbase, 2004).
Zenarchopterus buffonis was reported from Suva by Fowler (1959) cited from his old records
from Fowler (1928, as Zenarchopterus maculosus) and Garman (1903 in Fowler 1959, as
Zenarchopterus maculosus). It was also reported from Fiji as Zenarchopterus maculosus by
Whitley 1927. It is a marine species that enters the lower reaches of the freshwater streams. This
species distributed in the Indo-West Pacific from India, to East Indies, Philippines, Taiwan, New
Guinea and northern Australia (Ryan, 1980 and Fishbase, 2004).
Zenarchopterus dispar is a common species in Fiji as it is widespread in Viti Levu, Vanua Levu,
Taveuni, Kadavu and Ovalau Island (Appendix 3). Fowler (1959) reported it from Suva and
Nggawa in Vanau Levu. A marine to freshwater species that is common in brackish water and
lower reaches of the freshwater streams. It is distributed in the Indo-Pacific from Kenya,
Seychelles, New Guinea, Solomon Islands, Australia, New Caledonia, Vanuatu, Fiji and Samoa
(Fishbase, 2004).
KUHLIIDAE (Flagtails)
There are three species from the genera Kuhlia that were collected during this survey that enter
freshwater in Fiji. These are Kuhlia marginata (Cuvier, in Cuvier & Valenciennes, 1829)
(Appendix 11, Plate 38), K. munda (De Vis, 1884) (Appendix 11, Plate 39) and K. rupestris
(Lacepède, 1802) (Appendix 11, Plate 40). However, Fowler (1959) reported five species of this
genus in Fiji. The other two species reported are Dules sandvicensis (Steindachner, 1876) now
known as Kuhlia sandvicensis and Dules taeniurus (Cuvier, 1829) now known as Kuhlia petiti
83
Schultz, 1943 (Randall and Randall, 2001). However, they are marine species and therefore will
not be discussed here.
Kuhlia marginata was widely distributed in the four main islands of the Fiji group. Günther
(1859, in Fowler 1959) and Fowler (1931, 1934 and 1959) reported it as Dules marginatus from
Fiji. Boulenger (1895, in Fowler 1959), Whitley (1927) and Fowler (1928) reported it as Kuhlia
marginata in Fiji. Schmeltz (1865, in Fowler 1959) reported it from Rewa River and Pöhl (1884,
in Fowler 1959) reported it from Viti as Dules malo. Boulenger (1895, in Fowler 1959) and
Whitley (1927) reported it from Viti Levu as Kuhlia malo. They are freshwater species found
interior of Viti Levu at 705 m. This species is distributed from Taiwan, Philippines and Indonesia
to Japan, to Rapa, Palau, Marshall and Mariana Islands (Allen, 1991; Nimoho, 2000; Marquet et
al., 2003 and Fishbase, 2004).
Kuhlia munda is an estuarine species which is usually found in the lower reach of freshwater
streams. Ryan (1980 and 2000) also reported it from Fiji as Kuhlia bilunulata. Herre (1936, as
Kuhlia bilunulata) reported it from small rivers flowing into Suva Harbour. Whitley (1927) and
Fowler (1928) reported it as Kuhlia munda in Fiji. Fowler (1931, 1934 and 1959) reported it as
Dules munda from Fiji. Regan (1913, in Fowler 1959) reported it as Kuhlia humilis in Fiji.
Boulenger (1859, in Fowler 1959) reported it as Kuhlia malo in Fiji. Kendall and Goldsborough
(1911, in Fowler 1959) reported a type locality in Fiji as Kuhlia proxima. They are widely spread
throughout the lower reaches of the main islands and are collected from as far as the Lau Islands
by Kini Koto of WCS. This species is distributed in the Western Pacific, in tropical estuarine
waters and in fresh waters in New Caledonia (Fishbase, 2004).
Kuhlia rupestris is a common jungle perch species widely distributed throughout the Fiji Islands
from the coast to the montane forest. Günther (1880 and 1859, in Fowler 1959) reported it from
Fiji and Ovalau, Schmeltz (1874, in Fowler 1959) reported it from Viti Levu and Fowler (1931,
1934 and 1959) reported it as Dules rupestris from Fiji. Boulenger (1895, in Fowler 1959),
Whitley (1927) and Fowler (1928) report it from Fiji and Herre (1936) reported it from Rewa
River as Kuhlia rupestris. Kner (1868, in Fowler 1959) reported in from Kandavu (=Kadavu) and
Whitley (1928, in Fowler 1959) reported it from Fiji as Therapon unicolor. This species is
distributed in the Indo-West Pacific from East Africa to Melanesia (Allen, 1991; Nimoho, 2000;
Marquet et al., 2003 and Fishbase, 2004).
84
LACTARIIDAE (False trevallies)
Lactarius lactarius (Bloch & Schneider, 1801) was collected from the mouth of the Rewa River
(USNM collection). This is a marine species which migrates to the lower reaches of the
freshwater streams. This species is distributed from Indo-West Pacific from East Africa and
eastern Indian Ocean extending eastward to Southeast Asia, north to Japan, south to Queensland,
Australia and Fiji (Fishbase, 2004).
LEIOGNATHIDAE (Ponyfishes)
There are four species collected from this family in Fiji during this survey. These are Gazza
minuta (Bloch, 1795), Leiognathus equulus (Forsskål, 1775) (Appendix 11, Plate 41), L. fasciatus
(Lacepède, 1803) (Appendix 11, Plate 42) and L. splendens (Cuvier, 1829).
Gazza minuta is a marine and estuarine species which usually enters the mouth of the river. One
was caught at the mouth of the Tamavua River system during this survey and the other specimen
was reported by Lewis and Pring (1986) from an unknown site in Fiji. Fowler (1959) reported it
also from Fiji. This species is distributed from Red Sea and the east Africa Coast to Australia and
Tahiti (Fishbase, 2004).
Leiognathus equulus is a marine and estuarine species. It was collected from the Tamavua River
system during this survey and collected from Nalase near Rewa River by Waqairatu (2003) and in
Suva by Fowler (1959, as Leiognathus equula). This species is distributed from Red Sea, Persian
Gulf, and East Africa to Fiji, to the Ryukyus Islands and Australia (Fishbase, 2004).
Leiognathus fasciatus was collected from Tavoro Creek during this survey. Fowler (1959)
reported it from Suva. Leiognathus fasciatus is a marine species which usually enters the
freshwater system. This species is distributed from Seychelles, Mauritius, Red Sea, Gulf of Aden,
Indian and Sri Lanka to Japan, China, north eastern Australia, Samoa and Fiji (Fishbase, 2004).
Leiognathus splendens is a marine and brackish species which also penetrates the lower reaches
of fresh water. This species was caught at the mouth of Tamavua River system during this survey.
Fowler (1959) reported it from Fiji. It was first caught in Fiji during a deep sea trawling at
Laucala Bay (Mr. J. Seeto, pers. comm., 2005). This species is distributed from the Red Sea,
Madagascar and Mauritius to India and Sri Lanka, Australia and Fiji (Fishbase, 2004).
85
LETHRINIDAE (Emperors)
There are two species from this family that enters fresh water in Fiji. These are Lethrinus harak
(Forsskål, 1775) and L. reticulatus (Valenciennes, in Cuvier & Valenciennes, 1830). Both species
came from Kubuna Creek (USNM collection).
Lethrinus harak is an estuarine and marine species. Fowler (1959) reported this species from Fiji
citing it from his previous records of Fowler 1928, 1931, 1933 and other earlier collectors. It was
reported from Suva by Jordan and Dickerson (1908) and in Fiji also by Whitley 1927. This
species is distributed from the Red Sea, East Africa, Maldives, Indonesia, Philippines, Japan,
Australia, Papua New Guinea, Caroline Islands, Solomon Islands, Vanuatu, New Caledonia, Fiji
and Samoa (Fishbase, 2004).
Lethrinus reticulatus is a marine species. Fowler (1959) reported this species from Fiji citing it
from his previous records Fowler 1928, 1931, 1933 and reported from Kadavu by Günther (1880
in Fowler 1959, as Lethrinus moensi). It is distributed in the Indo-West Pacific from Chagos,
Thailand, Ryukyu Island and the Philippines to Indonesia and Samoa (Fishbase, 2004).
LUTJANIDAE (Snappers)
There are eight species from the genera Lutjanus that enters fresh water in Fiji. These are
Lutjanus argentimaculatus (Forsskål, 1775) (Appendix 11, Plate 43), L. fulviflamma (Forsskål,
1775), L. fulvus (Forster, in Bloch & Schneider, 1801) (Appendix 11, Plate 44), L. gibbus
(Forsskål, 1775), L. johnii (Bloch, 1792), L. lunulatus (Park, 1797), L. rivulatus (Cuvier, in
Cuvier & Valencinnes, 1828) and L. russellii (Bleeker, 1849) (Appendix 11, Plate 45). Three
species of the eight that were collected during this study were L. argentimaculatus, L. fulvus and
L. russellii. Most of the Lutjanus species listed above are marine species that enter the estuarine
and the lower reaches of the stream in their juvenile stages for rearing ground except for Lutjanus
fuscescens which was not reported from Fiji as the true freshwater species.
Lutjanus argentimaculatus (Appendix 11, Plate 28) is a common mangrove jack and young ones
often inhabit mangroves and the lower reaches of rivers. This species was collected from
Tamavua River system and Tavoro from this collection and (USNM collection) from eastern Viti
Levu. John Pogonowski collected L. argentimaculatus from Vanua Levu. Herre (1936) reported it
from Suva and Fowler (1959) citing it from his previous records of Fowler 1928, 1931 and 1934
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reported it from Fiji.This species is distributed in the Indo-West Pacific from East Africa to
Samoa and the Line Islands, north to the Ryukyu Islands and south to Australia (Fishbase, 2004).
Lutjanus fulviflamma is known from Kubuna Creek (USNM collection). This species was
reported from Nukulau Island by Herre (1936, as Lutianus fulviflamma) and Fowler (1959)
reported it from Fiji from his previous records of Fowler 1928, 1931 and 1934. It was also
reported from Suva by Jordan and Dickerson (1879 in Fowler 1959, as Lutianus aureovittatus). It
was also reported from Fiji by Whitley (1927, as Lutianus aureovittatus). An estuarine and
marine species which usually penetrates the lower reaches of the river. It is distributed throughout
the Indo-Pacific; Red Sea, east Africa to Samoa, north to the Ryukyu Islands, south to Australia
(Fishbase, 2004).
Lutjanus fulvus was collected from the Tamavua River system, Wailevu Creek and Tavoro Creek
from this survey and from the eastern side of Viti Levu in Fiji Islands, Wainadoi and Kubuna
Creek (USNM collection). This is a marine species but juveniles are often common at the mouth
of the freshwater creeks and rivers. Distributed from East Africa to the Marquesas and Line
Islands, southern Japan and Australia (Fishbase, 2004).
Lutjanus gibbus is known from the Rewa River mouth (USNM collections). It was reported from
Fiji by Whitley (1927, as Lutianus gibbus) and from Suva by Fowler (1959) cited from his
previous records of Fowler 1928, 1931 and 1934. A marine species. This species is distributed in
the Indo-West Pacific from the Red Sea and East Africa to Society and Line Islands, north to
Japan and south to Australia (Fishbase, 2004).
Lutjanus johnii was collected by Waqairatu (2003) while carrying out her survey from the
Tamavua River system. It was reported from Fiji by Whitley (1927, as Lutianus johnii) and
Fowler (1959) cited from his previous records in Fowler 1928 and 1934. An estuarine and marine
species which usually penetrates the lower reaches of the freshwater stream. Distributed from
East Africa to the Fiji Islands, the Ryukyu Islands and Australia (Fishbase, 2004).
Lutjanus lunulatus is recorded by the USNM from Naikorokoro Creek. A marine species. This
species is distributed in the Indo-west Pacific from northeastern Arabian Sea to Philippines and
Vanuatu (Fishbase, 2004).
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Lutjanus rivulatus (USNM collection) from the Wainadoi River, just upstream. A marine species.
This species is distributed in the Indo-Pacific from East Africa to Tahiti, Japan and Australia
(Fishbase, 2004).
Lutjanus russellii was collected from Tamavua River system and Tavoro Creek during this survey
and the USNM collection from the Wainadoi River and Kubuna Creek. L. russellii is an estuarine
and marine species that enters the lower reaches of the freshwater system. This species is
distributed in the Indo-West Pacific from East Africa to the Fiji Islands, Ryukyu Islands and
Australia (Fishbase, 2004).
MEGALOPIDAE (Tarpons)
Megalops cyprinoides (Broussonet, 1782) was reported in Suva and Ovalau Island by Günther
(1880, in Fowler 1959), in Fiji by Whitley (1927) and Fowler (1959) from his previous records of
Fowler 1928 and 1931, in Suva by Herre (1936), Naduruloulou Research Station ponds and an
unidentified location in Suva by Lewis and Pring (1986). These species inhabitat estuarine areas
in the mangroves and freshwater systems. No specimens were collected from this survey. This
species is distributed in the Indo-Pacific from South Africa, east to the Society Island and
southern Korea (Fishbase, 2004).
MONODACTYLIDAE (Silver Moonfishes)
Monodactylus argenteus (Linnaeus, 1758) (Appendix 11, Plate 46)was collected from the
Tamavua River system and Tavoro Creek during this survey and from Ovalau Island (BMNH
collection) and from Wainadoi (USNM collection). It was reported from Levuka by Günther
(1880, as Psettus argenteus) and in Fiji by Whitley (1927) and Fowler (1959) from his previous
records from Fowler 1928, 1931 and 1934. Monodactylus argenteus can be found in freshwater,
estuarine and marine ecosystems. This species is distributed in the Indo-West Pacific from Red
Sea and East Africa to Samoa, New Caledonia and Australia (Fishbase, 2004).
MORINGUIDAE (Worm Eels)
Two species of Moringua have been in entering fresh waters in Fiji. These are Moringua
abbreviata (Bleeker, 1863) and M. macrocephalus (Bleeker, 1863). Moringua abbreviata was
collected from Tamavua River during this survey and reported from Namusi (=Namosi) by
Fowler (1959) cited from his previous records of Fowler (1928, as Rataboura abbreviata).
Schmeltz (1879, in Fowler 1959) reported it from Viti Levu, from Fiji by Whitley (1927) and
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from Nukulau Island by Herre (1936, as Aphthalmichthys abbreviatus). Moringua abbreviata is a
marine species that penetrates the lower reaches of freshwater streams. This species is distributed
throughout the Indo-Pacific from Laccadives, Ryukyu Islands, Philippines, Marshall Island to
Samoa (Fishbase, 2004).
The Moringua macrocephalus record is from Kanathea (=Kanacea) by Günther (1910 in Fowler
1959, as Moringua macrocephala), in Fiji by Herre (1936, as Moringua macrocephala) and
Fowler (1959, as Moringua macrocephala) citied from his previous record in Fowler (1928, as
Aphthalmichthys macrocephalus) and Fowler (1934, as Rataboura macrocephala). It is a
freshwater and estuarine species. This species is distributed from China to New Guinea, Palau,
Fiji and Cook Islands (Fishbase, 2004).
Neoconger tuberculatus (Castle, 1965) is based on Johnson Seeto’s collection from Rewa River
in 1987 and from the specimens collected from Tavoro Creek in Taveuni during this survey. It
was believed to be endemic to Australia, however, now that it has been collected in Fiji, its
distribution extends eastward as far as Fiji. This is a very rare animal (Dr. J. McCosker, pers.
comm., 2004).
MUGILIDAE (Mullets)
There are 11 species from five genera reported in the estuarine and freshwater of Fiji. These are
Cestraeus plicatilis Valenciennes in Cuvier & Valenciennes, 1836, Liza macrolepis (Smith,
1846), Crenimugil crenilabis (Forsskål, 1775), Liza melinoptera (Valenciennces, in Cuvier &
Valenciennes, 1836), L. subviridis (Valenciennces, in Cuvier & Valenciennes, 1836) (Appendix
11, Plate 47), L. vaigiensis (Quoy & Gaimard, 1825), Mugil cephalus Linnaeus, 1758, Valamugil
buchanani (Bleeker, 1853), V. cunnesius (Valenciennes in Cuvier & Valenciennes, 1836), V.
engeli (Bleeker, 1858) and V. seheli (Forsskål, 1775). Six of the species recorded from Fiji were
collected during this survey. These are Liza macrolepis, Liza subviridis, Mugil cephalus,
Valamugil buchanani, V. cunnesius and. V. engeli.
Cestraeus plicatilis was reported from Fiji by Fowler (1959) citing it from his previous records in
Fowler 1928, 1931 and 1934 and the collections from the Wai Manu (=Waimanu) River by
MacDonald (1869 in Fowler 1959, as Gonostomyxus loa-loa), in Viti by Schmeltz (1881 I Fowler
1959, as Agonostoma plicatile) and in Fiji by Whitley (1927, as Agonostomus loaloa). Lewis and
Pring (1986) and the Rewa River by Andrews (1985). No specimens were collected during this
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survey. This species usually inhabitats the freshwater and estuarine zone. Distributed in the
Western Pacific from Celebes, New Caledonia, Vanuatu and Fiji (Fishbase, 2004).
Crenimugil crenilabis is known from the USNM collection from the Lau Islands. It was reported
by Fowler (1959, as Mugil tade) from his previous in Suva Fowler (1928) and in Nukulau Island,
Fowler (1949). Schmeltz (1869, in Fowler 1959) and Pöhl (1884, in Fowler 1959) reported it
from (Kandavu = Kadavu) as Mugil decimradiatus. Whitley (1927, as Mugil kandavensis) also
reported it from Fiji and Herre (1936, as Mugil kandavensis) reported it from Kandavu = Kadavu
Island). It usually lives in the estuarine and marine water. No specimens were collected from this
survey. This species is distributed from Red Sea and East Africa, South Africa, southern Japan,
south to Lord Howe Island and Micronesia (Fishbase, 2004).
Liza macrolepis was collected during this survey at Tamavua River system and Vakano Creek in
Lakeba by Kini Koto (Appendix 3). It was reported from Suva by Fowler (1928, 1931, 1934 and
1949, as Mugil macrolepis). It was also reported from Fiji by Whitley (1927, as Liza troscheli), in
Suva by Seale (1935, as Liza troscheli) and in Suva harbour by Herre (1936, as Liza troscheli).
This is a marine and estuarine species that is also present in fresh water. This species is
distributed from east coast of Africa, to Indonesia, China, Philippines, Japan, Marshall Islands,
New Guinea, Vanuatu and Samoa (Fishbase, 2004).
Liza melinoptera is reported by the FIT research group from Waimanu River and from Kadavu
(BMNH collection). It was reported from Suva by Jordan and Dickerson (1908) and Herre
(1936). Lewis and Pring (1986) reported the species from the Rewa delta. It was reported from
Fiji by Whitley (1927, as Liza melinopterus). Fowler (1928, 1931, and 1934) reported it as Mugil
vaigiensis and later in Fowler (1949 and 1959) reported it as Mugil melinopterus from Suva. This
is a marine and estuarine species that enters freshwater. This species is distributed from East
Africa to Samoa, Philippines, Tonga, Australia, Palau Island and Marquesa Islands (Fishbase,
2004).
Liza subviridis was collected from the Tamavua River system and the Tavoro Creek during this
survey and reported from Nalase Creek by Waqairatu (2003). Fowler (1928, 1931 and 1959)
reported it as Mugil dussumieri in Fiji and reported from Suva Harbour by Herre (1936, as Mugil
dussumieri). This is an estuarine and marine species that enters the lower reaches of fresh water.
Distributed from South Africa to Samoa, and north to Japan (Fishbase, 2004).
90
Liza vaigiensis was collected from the Rewa River mouth and the Lau Islands from the USNM
collection. It was reported from Fiji by Whitley (1927) and a reef between Suva and Nukulau
Island by Herre (1936). Fowler (1928, 1931, 1934 and 1959) reported it from Suva as Mugil
vaigiensis. Fowler (1949, as Ellochelon vaigiensis) reported it from Suva. This is an estuarine and
marine species that enters the lower reaches of fresh water. No specimens were collected during
this survey. This species is distributed from South Africa to the Tuamotu Islands, southern Japan,
and Samoa (Fishbase, 2004).
Mugil cephalus is reported from a river flowing into the Suva Harbour (CAS collection) and
collected from Vakano, Tobou and Nukunuku creeks from the Lakeba Island by Kini Koto of
WCS (Appendix 3). No specimens were collected during this survey. This is a marine, estuarine
and freshwater species. It is distributed between 42°N and 42°S, in coastal waters; a cosmopolitan
species (Fishbase, 2004).
Valamugil buchanani was collected from the Tamavua River during this survey and from
Waimanu River by the FIT research group. A marine and estuarine species. This species is
distributed throughout Indo-West Pacific from South Africa through Philippines, parts of
Indonesia, Micronesia and Melanesia; north to Mariana Islands and southern Japan (Fishbase,
2004).
Valamugil cunnesius was collected from Tamavua River system during this survey. This is a
marine and estuarine species. This species is distributed from South Africa to the Western Pacific
(Fishbase, 2004).
Valamugil engeli was collected from Tamavua River during this survey. It is a marine and
estuarine species. This species is distributed throughout Indo-West Pacific from East Africa to
Madagascar and Tuamotu Island, Marshall and Mariana Islands in Micronesia.
Valamugil seheli was collected from a river flowing into Suva harbour reported by Ryan (1980).
It was reported from Suva as Liza caeruleamaculata by Jordan and Dickerson (1908) and Whitley
(1927). Fowler (1928, 1931, 1934, 1949 and 1959) reported it from Suva as Mugil seheli. It was
reported from Suva Harbour by Herre (1936, as Liza seheli). No specimens were collected during
this survey. This species is distributed from the Red Sea, South Africa and east to Samoa;
southern Japan, New Caledonia and Norfolk Island, Madagascar and Hawaii (Fishbase, 2004).
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MULLIDAE (Goatfishes)
There are three species from two genera collected in the freshwaters of Fiji during this survey.
These are Parupeneus indicus (Shaw, 1803), Upeneus sulphureus (Cuvier, in Cuvier &
Valenciennes, 1829) (Appendix 11, Plate 48) and U. vittatus (Forsskål, 17750 (Appendix 11,
Plate 49).
Parupeneus indicus (USNM collection) was collected from the mouth of the Rewa River. It was
also reported from Fiji by Whitley (1927) and Fowler (1959) as Pseudupeneus indicus. It is a
marine species that penetrates into the estuaries. No specimens were collected during this survey.
This species is distributed in the Indo-Pacific region from East Africa to Samoa and Tonga,
Philippines, Ogasawara Island, New Caledonia, Palau Island and Micronesia (Fishbase, 2004).
Upeneus sulphureus was collected from Tamavua River system during this survey and
Waqairatu’s 2003 survey and in Kubuna Creek (USNM collection). It was reported in Suva by
Kendall and Goldsborough (1911 in Fowler 1959, as Upeneoides sulphureus). Whitley (1927)
reported it from Fiji and Fowler (1932, 1934 and 1959) reported it from Suva. It is an estuarine
and marine species that penetrates estuaries. This species is distributed from Africa to south-east
Asia, northward to China and southward New Caledonia and Fiji (Fishbase, 2004).
Upeneus vittatus was collected from the Tamavua River system during this survey and reported
from Naikorokoro Creek, Wainadoi River and Kubuna Creek (USNM collection) and from
Ovalau Island (BMNH collection). Whitley (1927) reported it from Fiji and Fowler (1932, 1933,
1934 and 1959) reported it from Suva. Initially Fowler (1928 and 1931) reported it as Upeneoides
vittatus from Suva. It is an estuarine and marine species that penetrates estuaries. This species is
distributed from the Red Sea and South Africa and to Micronesia, Hawaii, Society Islands, north
to Japan and New Caledonia (Fishbase, 2004).
MURAENESOCIDAE (Pike congers)
Muraenesox cinereus (Forsskål, 1775) was collected from an unknown location near Suva
reported by Jordan and Dickerson (1908) and reported in Fiji by Whitley (1927). Fowler (1934
and 1959) reported it as Muraenesox arabicus in Fiji. It is a marine, estuarine, and freshwater
species. No specimens were collected during this survey. This species is distributed from Red
92
Sea, Sri Lanka, Indonesia, Japan and Korea, northern Australia (Fishbase, 2004). It is also
reported from Fiji and Tuvalu (Fishbase, 2004).
MURAENIDAE (Moray Eels)
There are five species from two genera reported from the estuarine and freshwater systems in Fiji.
These are Gymnothorax favagineus Bloch and Schneider, 1801), G. pictus (Ahl, 1789), G.
polyuranodon (Bleeker, 1853), G. undulata (Lacepède, 1803) and Uropterygius concolor
Rüppell, 1838. All these eels are marine species except for G. polyuranodon that lives in fresh
water.
Gymnothorax favagineus was collected by Herre (1936) from Suva Harbour. Fowler (1959, as
Lycodontis favaginea) from his 1931 and 1934 report collected from Narokorokoyawa Creek.
This species is distributed in the Indo-Pacific from Red Sea and East Africa to Papua New
Guinea, southern Japan and Australia; also Fiji (Fishbase, 2004).
Gymnothorax pictus was reported from the Rewa River mouth (USNM collection). Jordan and
Dickerson (1908) collected it from Suva and Herre (1936) collected it from Nukulau Island. It
was also reported from Fiji by Whitley (1927, as Gymnothorax (Siderea) pictus). Fowler (1959,
as Lycodontis picta) from his 1928 report collected from Suva Point. Distributed in the Indo-
Pacific from East Africa to the Cocos, and Clipperton Islands; north to the Hawaiian and Ryukyu
Islands, Australia and throughout Micronesia (Fishbase, 2004).
The only freshwater species of this genus is Gymnothorax polyuranodon collected from the
Tamavua River system, upper Navua River, Wainivobo River, Wainasa Creek, mid Wailotua
River and Tavoro Creek during this survey. It is also collected from the Waimanu River by the
FIT research group, from Ovalau Island (BMNH collection), from an unspecified site in the Fiji
Islands by Fowler (1959, as Lycodontis polyuranodon) from his 1928 and 1931 reports and from
the mid-upper Nakawakawa River by Pogonowski. Whitley (1927) also reported it from Fiji. This
species is distributed from Sri Lanka, Indonesia, New Guinea, Philippines and Fiji (Allen, 1991
and Fishbase, 2004) It is also reported from Palau, Australia and New Caledonia (Fishbase,
2004).
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Gymnothorax undulata was reported by Fowler (1959, as Lycodontis undulata) from his 1928,
1931 and 1934 report collected from Suva. Whitley (1927, as Gymnothorax undulates and G.
stellatus) reported it from Fiji. Herre (1936, as Gymnothorax undulates) reported it from Suva
and Nukulau Island. This species is distributed from Red Sea and East Africa to French
Polynesia, north to Japan, and the Hawaiian Islands and throughout the whole of Micronesia
(Fishbase, 2004).
The other species of this family is Uropterygius concolor, collected at the Tamavua River system
by Waqairatu (2003). This is a marine and estuarine species that usually penetrates the lower
reaches of the freshwater stream. No specimens were collected during this survey. This species is
distributed from Rea Sea and East Africa to the Marquesan and Society Islands, Japan, south to
New Caledonia and the Caroline Islands in Micronesia. Fowler (1959) recorded Uropterygius
marmoratus and U. fijiensis from Fiji. However, they were collected during this survey as they
are marine species.
OPHICHTHIDAE (Snake Eels)
There are five species from three genera in this family that are reported from estuarine and
freshwater systems in Fiji. These are Lamnostoma bicolor (Kaup, 1856), Lamnostoma kampeni
(Weber & de Beaufort, 1916) (Appendix 11, Plate 50), Pisodonophis cancrivorus (Richardson,
1848), Yirrkala gjellerupi (Weber & de Beaufort, 1916) (Appendix 11, Plate 51) and Yirrkala
lumbricoides (Bleeker, 1853).
Lamnostoma bicolor was reported in Namusi (=Namosi) by Fowler (1959, as Caecula bicolor)
from his 1928 and 1931 reports that he based it from Schmeltz (1869 in Fowler 1959, as
Sphagebranchus bicolor). It was also reported in Fiji by Whitley (1927, as Ophichthys bicolor).
The status of this species in Fiji is uncertain
Lamnostoma kampeni (Appendix 11, Plate 29) was collected from the Tamavua River system and
the upper Navua River during this survey and also collected by Lewis and Pring (1986, as
Achirophichthys kampeni) from Dobuilevu River near the research station and Sovi River, and the
FIT research group reported it from Waimanu River. This is a freshwater species that is
distributed from Philippines, northern New Guinea and New Caledonia (Fishbase, 2004).
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Pisodonophis cancrivorus was reported by Fowler (1928, 1931, 1934 and 1959) based from
Schmeltz (1869, as Pisodonophis schapii) in Namusi (=Namosi). Whitley (1927) also reported it
from Fiji. This is a marine, estuarine and freshwater species. No specimens were collected during
this survey. This species is distributed from Rea Sea and East Africa to French Polynesia, north to
the Ogasawara Islands and south to Australia (Fishbase, 2004).
Yirrkala gjellerupi (Appendix 11, Plate 30) is an extremely poorly known animal, previously
known from a single specimen collected in the early 1800’s in Dutch Northern New Guinea,
presently west Papua. This eel was collected from sites 13 and 14 in the middle of Savura Creek
in Viti Levu. While it is probably more widespread than collections suggest it is nonetheless a
very rarely encountered animal (Dr. J. McCosker, pers. comm., 2003).
Yirrkala lumbricoides is a marine species. The type locality is from Indonesia. However, it was
reported in Fiji by Fowler (1928 and 1959, as Caecula lumbricoides) based on Schmeltz (1869 in
Fowler 1959, as Sphagebranchus lumbricoides) in Namusi (=Namosi). It was also reported from
Suva by Seale (1935). This species is reported from Indonesia and is distributed into the Indo-
Pacific therefore is likely to be in Fiji also (Fishbase, 2004).
POECILIIDAE (Livebearers)
There are four species from three genera that have established in the wild in this family in Fiji.
These are Gambusia affinis (Baird & Girard, 1853), Poecilia mexicana Steindachner, 1863, P.
reticulata Peters, 1859 (Appendix 11, Plate 59) and Xiphophorus hellerii Heckel, 1848.
Gambusia affinis is common in streams on the island of Viti Levu. This species was introduced as
a biological control agent to eliminate mosquitoes, however, it became a pest in the waterways. It
was introduced to Fiji and the Pacific Island countries from the USA and Mexico (Andrews,
1985).
Poecilia mexicana was reported from the confluence of the Wainivodi and Wainsavulevu rivers
from an INR (1977) and reported from Suva by Ryan (1980), Andrews (1985) and Lewis and
Pring (1986). No specimens were collected during this survey despite the facts that the sites
where P. mexicana was collected by the others was close to the sites of this survey. This species
was introduced as an ornamental species and is becoming established in a few waterways in Fiji.
It is known from the Atlantic coast of Central America, from Texas border, through Yucután into
Guatemala and Costa Rica and introduced to the Pacific Island countries (Fishbase, 2004).
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Poecilia reticulata was collected from the Tamavua River system and the Wailotua River during
this survey. It was also collected from Suva by Ryan (1980), Andrews (1985) and Lewis and
Pring (1986). This species was introduced as an ornamental species which became established in
the freshwater system. It was introduced from Western Atlantic and South America, now
widespread in Pacific Island countries (Fishbase, 2004).
Xiphophorus hellerii is known as the American sword tail fish and was reported in Suva by Lewis
and Pring (1986) and reported from a pond at Tamavua by Ryan (1980). No specimens were
collected during this survey. It is also an ornamental species which was introduced to Fiji and
became established in the waterways. It is known from Central America: Belize, Guatemala,
Honduras, Mexico and introduced widely to the Pacific (Fishbase, 2004).
POLYNEMIDAE (Threadfins)
There are two species in the genera Polydactylus in Fiji. These are Polydactylus microstoma
(Bleeker, 1851) and P. plebeius (Broussonet, 1782). Polydactylus microstoma is reported from an
unspecified location in Fiji by Lewis and Pring (1986) and P. plebeius was reported from the
mouth of the Rewa River from the USNM collection. It was also reported from Suva by Jordan
and Dickerson (1908) and in Fiji by Fowler (1928, 1931, 1934 and 1959). It was also reported
from Fiji by Whitley (1927, as Polynemus plebeius). Both are marine and estuarine species. No
specimens were collected during this survey. Polydactylus microstoma is distributed in the Indo-
West Pacific from India to New Caledonia and Polydactylus plebeius is distributed in the Indo-
Pacific from East Africa including Madagascar and Mauritius and the northern Indian Ocean,
Indonesia, to Korea and Japan, New South Wales and New Guinea east to Polynesia (Fishbase,
2004).
SCATOPHAGIDAE (Scats)
Scatophagus argus (Linnaeus, 1766) collected from the Tamavua River system during this survey
and from Naikorokoro Creek by Ryan (1980) and the USNM collection and from Dravo Village
(CAS collection). This species usually lives in the marine and estuarine mangroves habitat and
the young ones inhabitats the lower reaches of the freshwater system. This species is distributed
from Arabia to the Society Islands (Fishbase, 2004).
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SCORPAENIDAE (Scorpionfishes)
In the family Scorpaenidae there are four species in three genera known from estuarine zone and
freshwater in Fiji. These are Dendrochirus brachypterus (Cuvier, in Cuvier & Valenciennes,
1829), D. zebra (Cuvier, in Cuvier & Valenciennes, 1829), Scorpaenopsis macrochir Ogilby,
1910 and Tetraroge niger (Cuvier, in Cuvier and Valenciennes, 1829) (Appendix 11, Plate 52).
Dendrochirus brachypterus was reported from the mouth of the Rewa River (CAS collection). It
was reported from Fiji by Fowler (1928, 1931 and 1934) and later Fowler (1959, as Brachyrus
brachypterus) based on Schmeltz (1879 in Fowler 1959) from Kandavu (=Kadavu). It was
reported from Suva by Jordan and Dickerson (1908, as Pterois sausualele) and in Fiji by Whitley
(1927, as Pterois (Brachirus) sausualele). This is a marine species. No specimens were collected
during this survey. This species is distributed in Indo-West Pacific from Red Sea and East Africa
to Samoa and Tonga to Micronesia and Australia (Fishbase, 2004).
Dendrochirus zebra was collected from the mouth of the Rewa River (CAS collection) and
reported from Kadavu (USNM collection). It was also reported from Fiji by Fowler (1928 and
1931) and later Fowler (1959, as Brachyrus zebra) based on Schmeltz (1879 in Fowler 1959)
from Viti Levu. It was also reported in Fiji by Whitley (1927, as Pterois (Brachirus) zebra). This
is a marine species. No specimens were collected during this survey. This species is distributed in
the Indo-West Pacific from Red Sea and East Africa to Samoa north to southern Japan and south
to Australia and Lord Howe Island (Fishbase, 2004).
Scorpaenopsis macrochir was collected from the mouth of the Rewa River (USNM collection). A
marine and estuarine species. No specimens were collected during this survey. This species is
distributed in the West-Central Pacific from northwest Australia, Philippines to Marquesas and
Society Islands, north to Ryukyu Islands, western Australia, and Tonga and Mariana Islands in
Micronesia (Fishbase, 2004).
Tetraroge niger was collected from the Tamavua River system during this survey and from
Kubuna Creek (CAS collection). This is a marine and brackish water species but also enters the
lower reaches of freshwater systems. This species is distributed in the Indo-West Pacific from
India to Philippines, Indonesia, New Guinea and Japan; also Fiji (Fishbase, 2004).
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SERRANIDAE (Groupers)
There are two species from this family enters the lower reaches of the freshwater system in Fiji.
These are Epinephelus lanceolatus (Bloch, 1790) and Epinephelus malabaricus (Bloch &
Schneider, 1801).
Epinephelus lanceolatus was reported from an unidentified location in the Fiji Island by Lewis
and Pring (1986). It was also reported in Fiji by Whitley (1921 in Fowler 1959) and Fowler
(1959) as Promicrops lanceolatus. Fowler (1928 and 1931) reported it from Fiji as Serranus
lanceolatus. This is a marine and estuarine species. No specimens were collected during this
survey. This species is distributed in the Indo-Pacific from the Rea Sea and South Africa,
eastward to the Hawaiian to Pitcairn Islands, southern Japan and Australia (Fishbase, 2004).
Epinephelus malabaricus is a brackish and marine species which was reported from the Wainadoi
Creek (USNM collection). Whitley (1927) also reported it from Fiji as Ephinephelus pantherinus
and Fowler (1931 and 1934, as Serranus malabaricus). No specimens were collected during this
survey. This species is distributed in the Indo-Pacific from the Red Sea and East Africa to Tonga,
north to Japan and Micronesia (Fishbase, 2004).
SIGANIDAE (Rabbitfishes)
Siganus vermiculatus (Valenciennces, in Cuvier & Valenciennes, 1835) (Appendix 11, Plate 53)
was collected from the Tamavua River system and the Tavoro Creek during this Survey, reported
from the Tamavua River system by Waqairatu (2003) and from the Wainadoi River, Kubuna
Creek and the mouth of the Rewa River (USNM). It was reported from Fiji by Whitley (1927)
and by Fowler (1928 and 1931). Fowler (1932, 1934 and 1959) reported it from Suva. It was also
reported from Kandavu (=Kadavu) by Schmeltz (1869 in Fowler 1959, as Tenthis vermiculata)
and Schmeltz (1879 in Fowler 1959, as Tenthis vermiculatus). This is an estuarine and marine
species. This species is distributed in the Indo-West Pacific from India and Sri Lanka, to
Indonesia, Philippines, New Guinea, Solomon Islands, Vanuatu, Fiji and Marshall Islands
(Fishbase, 2004).
SPHYRAENIDAE (Barracudas)
Sphyraena obtusata (Cuvier, in Cuvier & Valenciennes, 1829) (Appendix 11, Plate 54) was
collected from the mouth of the Tamavua River system during this survey. It was reported in Fiji
98
by Günther (1877 in Fowler 1959) and Whitley (1927). Fowler (1928 and 1959) reported it from
Suva. This is a marine and estuarine species. This species is distributed in the Indo-Pacific from
the Red Sea and East Africa to the Philippines; from Samoa north to Ryukyus, south to Lord
Howe Island; Kapingamarangi and Marianas in Micronesia (Fishbase, 2004).
SYNGNATHIDAE (Pipefishes)
There are seven species from two genera in Fiji. There are two species in the genus Hippichthys
reported from Fiji. These are Hippichthys cyanospilus (Bleeker, 1854) and H. spicifer (Rüppell,
1838). In this survey no Hippichthys were collected.
Hippichthys cyanospilus was collected from South Draunibota Island (USNM collection) and in
Fiji by Dawson (1985) and Kuiter (2000). This is a marine, estuarine and freshwater species. This
species is distributed in the Indo-Pacific from the northern Rea Sea and East Africa to Fiji
(Fishbase, 2004).
Hippichthys spicifer was collected from Naikorokoro Creek, Kubuna Creek, Kadavu and Lau
Island (USNM collection) and in Suva by Herre (1953, as Micrognathus suvensis in Kuiter,
2000). It was also reported from Suva by Fowler (1959, as Syngnathus spicifer) cited from earlier
records including Fowler 1928, 1932, 1934 and Seale 1935.This is a marine and estuarine species.
This species is distributed from Indo-Pacific from Rea Sea and East Africa to Sri Lanka and
Samoa (Fishbase, 2004).
There are five species collected in the genus Microphis in Fiji. These are Microphis argulus
(Peters, 1855), M. brachyurus brachyurus (Bleeker, 1853), M. brevidorsalis (de Beaufort, 1913),
M. leiaspis (Beeker, 1853) and M. retzii (Bleeker, 1856).
Microphis argulus was collected from Wailevu Creek, in Taveuni from this survey and also from
Wainibau Creek, in Taveuni by Ryan (1980 and 1981) and in Fiji by Kuiter (2000). This is a
freshwater fish species and is distributed from Mauritius and the Comoros to Indonesia, the
Marquesan Islands, north to New Guinea, and south to the Society Islands (Fishbase, 2004).
Microphis brachyurus brachyurus (Appendix 11, Plate 55) was collected from the Tamavua
River system, Tavoro Creek and Wailevu Creek during this Survey and was collected from the
lower Sigatoka River by Pogonowski, Naikorokoro Creek by Ryan (1980) and from Ovalau
99
Island by Fowler (1959, as Microphis brachyurus). This is a fresh and estuarine water fish species
and is distributed from Sri Lanka and southern India, to Japan and the Society Islands (Fishbase,
2004).
Microphis brevidorsalis was collected from Tavoro Creek during this survey and from the middle
of the Rewa River and Naikorokoro Creek (USNM collection). It was also reported from Suva by
Herre (1936, as Micrognathus brevidorsalis) and in Fiji by Fowler (1959, as Micrognathus
brevidorsalis). Kuiter (2000) also reported this species from Fiji. This is a freshwater species and
is distributed from Indonesia, western Caroline Islands and southeast ward to Fiji (Fishbase,
2004).
Microphis leiaspis was collected from the Tamavua River system and Tavoro Creek during this
survey, from lower Wainikoro Creek, lower Nasavu, lower Nala, and mid-upper Nakawakawa
River by Pogonowski, from Suva by Fowler (1959, as Coelonotus leiaspis) cited from his earlier
records of Fowler 1928, 1931 and Seale 1935 and from Waimanu River at Sawani by Ryan
(1980) and Lewis and Pring (1986). It was also reported from Fiji by Dawson (1985) and Kuiter
(2000).This is a freshwater and estuarine water species distributed from eastern Africa to
Madagascar, Southeast Asia and from Japan to Indonesia, New Caledonia and Fiji (Fishbase,
2004).
Microphis retzii was collected from the Tamavua River system and Tavoro Creek during this
survey, from Tavuki Creek from Kadavu (WCS collection), from lower Wainikoro, lower Nala
(Natewa) and mid upper Nakawakawa Creek by Pogonowski, from Wainibau Creek in Taveuni
by Ryan (1980) and Waisere Creek in Tailevu from a WI training collection (Appendix 3). This is
a freshwater species that is distributed from Indonesia and the Philippines to Pohnpei and Samoa
(Fishbase, 2004).
Patricia Kailola has identified another species of Microphis in collections held at the USP. The
specimens are from Savura Creek, Ba River and Waidina River.
TERAPONIDAE (Grunters)
There are two species in this family in Fiji. These are Mesopristes kneri (Bleeker, 1876)
(Appendix 11, Plate 56) and Terapon jarbua (Forsskål, 1775).
100
Mesopristes kneri is an endemic species to Fiji which was collected from the Tamavua River
system and the Tavoro Creek during this survey. It was also collected from Naikorokoro Creek,
Naqara Creek, Suva, Kadavu and Lau Island from the USNM collection and from Suva by Ryan
(1980), reported from a river flowing into Suva (CAS collection), from Tamavua River and
Nalase Creek by Waqairatu (2003) and from the mouth of the Rewa River (AMS collection). It
was also reported as Therapon argenteus from Fiji by Whitley (1927) and Fowler (1931) and in
Suva Harbour by Herre (1936). Fowler (1928, as Therapon kneri) reported it from Suva based
from Kendall and Goldsborough (1911 in Fowler 1959, as Therapon maculates). Later Fowler
(1931 and 1959) reported it as Terapon Kneri based on his previous reports from Suva.
Mesopristes kneri is usually found in estuarine mangroves habitats.
Terapon jarbua was sighted in Tavoro and Wailevu Creek in Taveuni during this survey. They
are very difficult to catch as they can avoid the nets that are set up to catch them. J. Pogonowski
collected a specimen from the lower Sigatoka River (Appendix 3), and other collections are from
Lau, South Draunibota Island and Kubuna Creek (USNM collection). Fowler (1931, 1932, 1934
and 1959) reported it from Suva. It was also reported as Therapon jarbua from Suva by Jordan
and Dickerson (1908) and in Fiji by Whitley (1927) and Fowler (1928). It was reported from
Suva Harbour by Herre (1936, as Therapon jarbua). This is a marine and estuarine species which
can also utilize the freshwater habitat. This species is distributed in the Indo-Pacific from the Rea
Sea and East Africa to Samoa, north to southern Japan, Australia and Lord Howe Island
(Fishbase, 2004).
TETRAODONTIDAE (Puffers)
There are two species of Arothron and a species of Lagocephalus in freshwater in Fiji. These are
Arothron immaculatus (Bloch & Schneider, 1801), A. reticularis (Bloch & Schneider, 1801) and
Lagocephalus lunaris (Bloch & Schneider, 1801).
Arothron immaculatus was collected from three different localities that are close to the sampling
sites at the Tamavua River system. They were not collected during this survey. This species was
reported from Wainadoi River (USNM collection), from a small creek at Laucala Bay by Ryan
(1980). It was reported from Fiji as Tetraodon immaculatus by Whitley (1927) and in Suva by
Herre (1936). Fowler (1928, 1931, 1934 and 1959) reported it from Suva as Tetrodon
immaculatus. This is a marine and estuarine species. This species is distributed in the Indo-West
101
Pacific from the Rea Sea and East Africa to Indonesia, north to southern Japan, and east to Samoa
(Fishbase, 2004).
Arothron reticularis was collected from the Tamavua River system during this survey and
Waqairatu (2003). It was also reported from Suva as Tetrodon reticularis by Fowler (1928, 1934
and 1959) and from creeks behind Orchid Island, Pacific Harbour by Ryan (1980). Herre (1936)
reported it from Suva as Tetraodon reticularis. This is a marine and estuarine fish species. This
species is distributed in the Indo-West Pacific and north to Ryukyu Islands (Fishbase, 2004).
Lagocephalus lunaris was reported in Suva by Seale 1935 and Fowler (1928 and 1959) as
Sphoeroides lunaris. This is a marine and estuarine species (Fishbase 2004). No specimens were
collected during this survey. This species is distributed in the Indo-West Pacific from the south
coast of South Africa to Japan, PNG and Fiji (Fishbase, 2004).
TRICHIURIDAE (Cutlassfishes)
Trichiurus lepturus Linnaeus, 1758 was collected from an unspecified location within the Fiji
Islands by Lewis and Pring (1986). No specimens were collected during this survey. This is a
marine and estuarine species. This species is distributed globally in tropical and temperate waters
(Fishbase, 2004).
102
3.5 Chapter Summary
A total of 76 freshwater and estuarine species from 31 families were found during this survey in
Fiji. A total of 151 species from 41 families had been previously recorded and held in museum
collections. The total of known freshwater/estuarine fishes in Fiji is now 161 species from 45
families. This report should give an updated list of freshwater and estuarine species in Fiji
(Appendix 5).
There are 15 species from seven families that are present in all four geographical zones. More
species were found in the central zone while the western zone has the least number of species.
This is due to fewer collections that have been carried out in the western zone during the past and
current surveys and also perhaps less diverse habitats.
There are a total of 14 species that live in fresh water, 20 species that moved between freshwater
and estuarine zones and 55 species that general moved between freshwater, estuarine and marine
water (Appendix 7). This gives a total of 89 freshwater and estuarine fish species that are known
to this date from Fiji.
Fiji has the second highest known freshwater fish diversity in the Pacific after Papua New Guinea
and the third highest level of endemism behind Australia and PNG in the Pacific (Table 3.6).
However, if more intense surveys carried out in the Solomon Islands and Vanuatu should record
higher estuarine and freshwater fish species than that of Fiji, this would confirm the regional
trend of fish diversity which is generally declines from the west to the east Pacific
The common species after combining all the collections are Anguilla marmorata (Anguillidae),
and Kuhlia rupestris (Kuhliidae). And the moderate to occasionally common species of the
combined collections are Sicyopterus lagocephalus, Kuhlia marginata, Eleotris fusca,
Hypseleotris guentheri, Awaous ocellaris, Glossogobius sp.1, Stiphodon rutilaureus, Eleotris
melanosoma, Stiphodon sp. 1, Stiphodon sp. 2, Kuhlia munda, Stenogobius sp.1, Oreochromis
mossambicus, Awaous guamensis, Ambassis miops, Redigobius leveri and Zenarchopterus dispar.
The least common fish species of the combined collections are in Appendix 6.
103
CHAPTER 4 PHYSICAL HABITAT FACTORS INFLUENCING
FIJI FRESHWATER FISH DISTRIBUTION
4.1 Introduction
Physical water parameters and habitat types are important factors influencing freshwater species
richness and abundance (Reash and Pigg, 1990; Jenkins, 1997). Local factors such as water
quality and stream morphology directly influence the distribution of different fish size classes
within a stream (Holmguen and Appeberg, 2000). Most species that are common in large rivers
are more abundant in shallow, slow to moderate velocity areas such as river margins (Jowett and
Richardson, 1994). The abundance of a few species like Anguilla marmorata, Kuhlia marginata,
K. rupestris and species of the family Gobiidae is higher in riffles than in runs, probably because
of the spaces in the substrate rather than because of any velocity preference (Jowett and Richard,
1994). The substrate and water parameters will also help to determine the type of fish present at
different sites (Pusey et al., 1993). Therefore, healthy water bodies with high habitat diversity
will support a more diverse freshwater fauna (Pusey and Kennard, 1996).
The riparian plants on stream edges play an important role in the trapping of terrestrial sediments
and nutrients along the riparian zone and can therefore influence the aquatic fauna by maintaining
habitat structure, water clarity and food web structure (Pusey and Arthington, 2003). A study
carried out in Australia by Pusey and Arthington (2003) found that freshwater fish consume
terrestrial plant matter directly, this plant matter providing a very important source of energy
under certain circumstances.
Previous studies by Haynes (1994) reported that the run-off soil that covers stream bottoms
during forest logging, road making and dam building affects all freshwater invertebrates. Major
environmental changes are caused by dam building which alters and blocks the natural flow of
the river, and subsequently interferes with fish migration and destroys native fish populations
(Grossman, 1997). Changes to water temperature, damage to riparian plants, poor water
chemistry and water quality will also have serious impacts on freshwater invertebrates (Reash and
Pigg, 1990).
104
In the Sepik River in New Guinea, Allen and Coates (1990) did not catch any fish when sampling
900 km upstream. However, studies on the Ramu River in New Guinea show that river distance
from the coast does not affect fish distribution (Allen et al., 1992). There have been reports of
altitudinal variation in fish abundance within different reaches of rivers (Jowett et al., 1996).
Furthermore, Haynes et al. (1989) and McDowall (1991) found that elevation and distance from
the sea were closely related to fish distribution.
Despite many previous studies, there is still considerable debate in recent literature as to the
relative importance of physical and biological factors in structuring fish assemblages in streams
and rivers. Habitat complexity, physiochemical characteristics, competition and predation have
been used as significant regulatory factors (Pusey et al., 1993).
To date there has been no study which documents the relationship between physical parameters
and freshwater fish in Fiji. Therefore, the specific aims of this chapter were:
1. To determine physical habitat characteristics that affect freshwater fish species richness
in Fiji; and
2. To determine physical habitat characteristics that affect freshwater fish species
abundance in Fiji.
4.2 Methods
4.2.1 FIELD METHODS
The study sites and field methods used are described in Chapter 2.
The freshwater fish collections in the Tamavua Water System and the Tavoro fall were carried
out in different seasons. This is the wet and dry season. However, fish collections from the other
sites were carried out only once and the physical parameters were measured at the time of survey
and not monitored over a period of time.
This is due to the poor experimental design that was originally planned for this survey. However,
from the data that were collected during this survey, multiple regression analysis was used to
determine the relationship between the freshwater fish richness and abundance and the physical
habitat characteristic.
105
4.2.2 STATISTICAL METHODS
SPSS Version 11.5 for Windows was used for all analyses and was set at 0.05 for all analyses.
Multiple regression analyses were used to examine the relationships between physical habitat
characteristics and freshwater fish species richness and abundance. Definitions of the terms used
are presented below:
Richness – refers to the total number of fish species.
Abundance – refers to the total number of fish
Native – these are local fish that have established without deliberate/accidental introductions by
humans.
Endemic – these are local species that are only found in one country
Introduced – these are fish that are brought in from different countries and now are established in
the watershed.
A total of eight multiple regression models (dependent variables: total species richness, native
species richness, endemic species richness, introduced species richness, total species abundance,
native species abundance, endemic species abundance and introduced species abundance) were
tested against six physical parameters: water temperature, pH, river width, river depth, velocity of
water and distance from the coast.
Model 1 – Total species richness:
Total number of species = temperature + pH + river width + river depth + velocity of water +
distance from the coast.
Model 2 – Native species richness:
Total number of native species = temperature + pH + river width + river depth + velocity of water
+ distance from the coast.
Model 3 – Endemic species richness:
Total number of endemic species = temperature + pH + river width + river depth + velocity of
water + distance from the coast.
Model 4 – Introduced species richness:
Total number of introduced species = temperature + pH + river width + river depth + velocity of
water + distance from the coast.
106
Model 5 – Total species abundance:
Total species abundance = temperature + pH + river width + river depth + velocity of water +
distance from the coast.
Model 6 – Native species abundance:
Abundance of native species = temperature + pH + river width + river depth + velocity of water +
distance from the coast.
Model 7 – Endemic species abundance:
Abundance of endemic species = temperature + pH + river width + river depth + velocity of
water + distance from the coast.
Model 8 – Introduced species abundance:
Abundance of introduced species = temperature + pH + river width + river depth + velocity of
water + distance from the coast.
4.3 Results 4.3.1 RELATIONSHIP BETWEEN PHYSICAL HABITAT FACTORS AND FISH
SPECIES RICHNESS.
The total number of species was significantly related to physical habitat characteristics (p =
0.033, r2 = 0.136, Figure 4.1). However, of the physical habitat characteristics, water temperature
was the only significant factor (p = 0.001, Figure 4.1A) with total species richness increasing
with water temperature. Note: Figures 4.1 to 4.8 are all partial plots and therefore values are not
real. Partial plots display the relationship between the dependent variable and one independent
variable after removing the confounding influence of the other independent variables.
107
Temperature (partial)
6420-2-4-6-8
Tota
l num
ber o
f fis
h sp
ecie
s (p
artia
l)
20
10
0
-10
pH (partial)
1.51.0.50.0-.5-1.0
Tota
l num
ber o
f fis
h s
peci
es (p
artia
l)
20
10
0
-10
River width (partial)
20100-10
Tota
l num
ber o
f fis
h sp
ecie
s (p
artia
l)
20
10
0
-10
River depth (partial)
2.52.01.51.0.50.0-.5-1.0
Tota
l num
ber o
f fis
h sp
ecie
s (p
artia
l)
20
10
0
-10
Velocity of water (partial)
2.52.01.51.0.50.0-.5-1.0
Tota
l num
ber o
f fis
h sp
ecie
s (p
artia
l)
20
10
0
-10
Distance from the coast (partial)
3020100-10
Tota
l num
ber o
f fis
h sp
ecie
s (p
artia
l)
20
10
0
-10
Figure 4.1. Relationship between total number of fish species and physical habitat characteristics.
E F
C D
AB
108
Native species richness was significantly related to physical habitat characteristics
(p = 0. 011, r2 = 0.161, Figure 4.2). Native fish species richness increased with temperature
(p < 0.001, Figure 4.2A) and decreased with river depth (p = 0.049, Figure 4.2 D).
Temperature (partial)
6420-2-4-6-8
Num
ber o
f nat
ive
fish
spec
ies
(par
tial)
12
10
8
6
4
2
0
-2
-4
-6
pH (partial)
1.51.0.50.0-.5-1.0
Num
ber o
f nat
ive
fish
spec
ies
(par
tial)
10
8
6
4
2
0
-2
-4
-6
River width (partial)
20100-10
Num
ber o
f nat
ive
fish
spec
ies
(par
tial)
10
8
6
4
2
0
-2
-4
-6
River depth (partial)
2.52.01.51.0.50.0-.5-1.0
Num
ber o
f nat
ive
fish
spec
ies
(par
tial)
12
10
8
6
4
2
0
-2
-4
-6
Velocity of water (partial)
2.52.01.51.0.50.0-.5-1.0
Num
ber o
f nat
ive
fish
spec
ies
(par
tial)
10
8
6
4
2
0
-2
-4
-6
Distance from the coast (partial)
3020100-10
Num
ber o
f nat
ive
fish
spec
ies
(par
tial)
10
8
6
4
2
0
-2
-4
-6
Figure 4.2. Relationship between number of native fish species and physical habitat
characteristics.
FE
DC
A B
109
The endemic species richness was not significantly related to overall physical habitat
characteristics (p = 0. 335, r2 = 0.700, Figure 4.3). However, it did increase with distance from the
coast (p = 0.040, Figure 4.3F).
Temperature (partial)
6420-2-4-6-8
Num
ber o
f end
emic
fish
spe
cies
(par
tial)
3
2
1
0
-1
-2
pH (partial)
1.51.0.50.0-.5-1.0
Num
ber o
f end
emic
fish
spe
cies
(par
tial)
3
2
1
0
-1
-2
River width (partial)
20100-10
Num
ber o
f end
emic
fish
spe
cies
(par
tial)
3.0
2.5
2.0
1.5
1.0
.5
0.0
-.5
-1.0
River depth (partial)
2.52.01.51.0.50.0-.5-1.0
Num
ber o
f end
emic
fish
spe
cies
(par
tial)
3
2
1
0
-1
-2
Velocity of water (partial)
2.52.01.51.0.50.0-.5-1.0
Num
ber o
f end
emic
fish
spe
cies
(par
tial)
3
2
1
0
-1
-2
Distance from the coast (partial)
3020100-10
Num
ber o
f end
emic
fish
spe
cies
(par
tial)
2.5
2.0
1.5
1.0
.5
0.0
-.5
-1.0
-1.5
Figure 4.3. Relationship between number of endemic fish species and physical habitat
characteristics.
A B
C D
E F
110
The introduced species richness was significantly related to physical habitat characteristics (p <
0.001, r2 = 0.310, Figure 4.4). The number of introduced fish species decreased with distance
from the coast (p = 0.001, Figure 4.4F).
Temperature (partial)
6420-2-4-6-8
Num
ber o
f Int
rodu
ced
fish
spec
ies
(par
tial)
2.0
1.5
1.0
.5
0.0
-.5
-1.0
pH (partial)
1.51.0.50.0-.5-1.0
Num
ber o
f int
rodu
ced
fish
spec
ies
(par
tial)
2.0
1.5
1.0
.5
0.0
-.5
-1.0
River width (partial)
20100-10
Num
ber o
f int
rodu
ced
fish
spec
ies
(par
tial)
2.0
1.5
1.0
.5
0.0
-.5
River depth (partial)
2.52.01.51.0.50.0-.5-1.0
Num
ber o
f int
rodu
ced
fish
spec
ies
(par
tial)
2.0
1.5
1.0
.5
0.0
-.5
-1.0
Velocity of water (partial)
2.52.01.51.0.50.0-.5-1.0
Num
ber o
f int
rodu
ced
fish
spec
ies
(par
tial)
2.0
1.5
1.0
.5
0.0
-.5
-1.0
Distance from the coast (partial)
3020100-10
Num
ber o
f int
rodu
ced
fish
spec
ies
(par
tial)
2.0
1.5
1.0
.5
0.0
-.5
Figure 4.4. Relationship between number of introduced fish species and physical habitat
characteristics.
A B
C D
E F
111
4.3.2 RELATIONSHIP BETWEEN PHYSICAL HABITAT FACTORS AND FISH
SPECIES ABUNDANCE.
Total freshwater fish abundance was not significantly related to overall physical habitat
characteristics (p = 0.143, r2 = 0.097, Figure 4.5). However, total abundance did increase with
water temperature (p = 0.007, Figure. 4.5A).
Temperature (partial)
6420-2-4-6-8
Tota
l num
ber o
f fis
h (p
artia
l)
200
100
0
-100
pH (partial)
1.51.0.50.0-.5-1.0
Tota
l num
ber o
f fis
h (p
artia
l)
200
100
0
-100
River Width (partial)
20100-10
Tota
l num
ber o
f fis
h (p
artia
l)
200
100
0
-100
River depth (partial)
2.52.01.51.0.50.0-.5-1.0
Tota
l num
ber o
f fis
h (p
artia
l)
200
100
0
-100
Velocity of water (partial)
2.52.01.51.0.50.0-.5-1.0
Tota
l num
ber o
f fis
h (p
artia
l)
200
100
0
-100
Distance from the Coast (partial)
3020100-10
Tota
l num
ber o
f fis
h (p
artia
l)
200
100
0
-100
Figure 4.5. Relationship between total abundance of fish and physical habitat characteristics.
E F
C D
BA
112
The abundance of native fish was not significantly related to overall physical habitat
characteristics (p = 0.105, r2 = 0.106, Figure 4.6). It did however, increase with water temperature
(p = 0.005, Figure. 4.6A).
Temperature (partial)
6420-2-4-6-8
Num
ber o
f nat
ive
fish
(par
tial)
200
100
0
-100
pH (partial)
1.51.0.50.0-.5-1.0
Num
ber o
f nat
ive
fish
(par
tial)
200
100
0
-100
River width (partial)
20100-10
Num
ber o
f nat
ive
fish
(par
tial)
200
100
0
-100
River depth (partial)
2.52.01.51.0.50.0-.5-1.0
Num
ber o
f nat
ive
fish
(par
tial)
200
100
0
-100
Velocity of water (partial)
2.52.01.51.0.50.0-.5-1.0
Num
ber o
f nat
ive
fish
(par
tial)
200
100
0
-100
Distance from the coast (partial)
3020100-10
Num
ber o
f nat
ive
fish
(par
tial)
200
100
0
-100
Figure 4.6. Relationship between abundance of native fish and physical habitat characteristics.
E F
C D
A B
113
Endemic species abundance was not significantly related to overall physical habitat
characteristics (p = 0.340, r2 = 0.70, Figure 4.7), nor to any of the specific habitat characteristics.
Temperature (partial)
6420-2-4-6-8
Num
ber o
f end
emic
fish
(pa
rtial
)
40
30
20
10
0
-10
pH (partial)
1.51.0.50.0-.5-1.0
Num
ber o
f end
emic
fish
(pa
rtial
)
40
30
20
10
0
-10
River width (partial)
20100-10
Num
ber o
f end
emic
fish
(pa
rtial
)
40
30
20
10
0
-10
River depth (partial)
2.52.01.51.0.50.0-.5-1.0
Num
ber o
f end
emic
fish
(pa
rtial
)
40
30
20
10
0
-10
Velocity of water (partial)
2.52.01.51.0.50.0-.5-1.0
Num
ber o
f end
emic
fish
(par
tial)
40
30
20
10
0
-10
Distance from the coast (partial)
3020100-10
Num
ber o
f end
emic
fish
(pa
rtial
)
40
30
20
10
0
-10
Figure 4.7. Relationship between abundance of endemic fish and physical habitat characteristics.
BA
CD
E F
114
Introduced species abundance was not significantly related to overall physical habitat
characteristics (p = 0. 503, r2 = 0.055, Figure 4.8), nor to any of the specific habitat
characteristics.
Temperature (partial)
6420-2-4-6-8
Num
ber o
f int
rodu
ced
fish
(par
tial)
200
100
0
-100
pH (partial)
1.51.0.50.0-.5-1.0
Num
ber o
f int
rodu
ced
fish
spec
ies
(par
tial)
200
100
0
-100
River width (partial)
20100-10
Num
ber o
f int
rodu
ced
fish
(par
tial)
200
100
0
-100
River depth (partial)
2.52.01.51.0.50.0-.5-1.0
Num
ber o
f int
rodu
ced
fish
(par
tial)
200
100
0
-100
Velocity of water (partial)
2.52.01.51.0.50.0-.5-1.0
Num
ber o
f int
rodu
ced
fish
(par
tial)
200
100
0
-100
Distance from the coast (partial)
3020100-10
Num
ber o
f int
rodu
ced
fish
(par
tial)
200
100
0
-100
Figure 4.8. Relationship between abundance of introduced fish and physical habitat types.
A B
C D
E F
115
4.4 Discussion4.4.1 RELATIONSHIP BETWEEN PHYSICAL HABITAT FACTORS AND SPECIES
RICHNESS
4.4.1.1 Total species richness Total species richness was affected by physical water characteristics, in particular water
temperature. Total species richness in this study increased with water temperature. A study by
Pusey et al., (1993), in Mary River in south-eastern Queensland, Australia shows canopy cover
helps to keep the water temperature cool, therefore, give rise to the total species richness. The
higher species richness of total species in warm waters in Fiji may be due to the large number of
lowland waterways surveyed during this study. (majority of sites were lowland, warmer water
sites).
4.4.1.2 Native species richnessNative species richness was affected by physical water characteristics, in particular water
temperature and stream depth. Native species in this study increased with water temperature and
decreased with stream depth.
Bhat (2004) reported that in the central Ghats of India stream depth and altitude are the important
parameters determining fish richness. This may be due to the likelihood that streams are more
polluted and disturbed in lower reaches in India. The higher species richness of native fish in
shallow warmer waters in Fiji may be due to the less polluted and disturbed lowland water
systems surveyed during this study.
4.4.1.3 Endemic species richness Endemic species richness was not affected by overall physical water characteristics. However,
this study found that there are more endemic fish species when moving inland away from the
coast. Likewise, Keith (2003) reported that there are more endemic fish living in the headwaters
of streams. However, Jowett et al., (1996) suggested that elevation, rather than distance from the
sea or average gradient between the site and sea appeared to limit the distribution of diadromous
species. In Fiji it appears that the high number of endemic species is inland headwater sites are
due to combination of both distance to the ocean and altitude.
116
4.4.1.4 Introduced species richness Introduced species richness was not affected by physical water characteristics. However, during
this study it was found that there are more introduced species found near the coast than in the
headwaters of the streams. This is because more people are living on coast therefore, more likely
to introduce alien species. Furthermore, introduced species can tolerate a wide range of water pH
and salinity (Howe et al., 1997). Therefore the high richness of the introduced species near the
coast was due to their ability to survive in high salinity and disturbed habitat.
4.4.2 RELATIONSHIP BETWEEN PHYSICAL HABITAT FACTORS AND SPECIES
ABUNDANCE
4.4.2.1 Total and native fish abundance Total fish and native fish abundance increased with water temperature. However, other studies for
example, Rowe et al., (1999) found that fish were more abundant in sites associated with forest
canopy that formed the understorey that kept the stream cooler. The high abundance of fish in
warmer water in this study may be due to the fact that most of the sites were coastal therefore,
had a high abundance of estuarine species.
4.4.2.2 Endemic and Introduced fish abundance In this study the abundance of endemic and introduced fish was not influenced by physical site
and water characteristics. This could be due to very low variation in the number of endemic and
introduced fish caught in each site except for site 41 and site 61 respectively.
Endemic fish species are associated with different substrate composition characteristics (Pusey et
al., 1993) furthermore, their abundance can occur in areas with greater habitat type (Gehrke and
Harris, 2000). Generally in Fiji, there was less variety of substrate composition and habitat types
in the watersystems surveyed during this study.
In this survey, most of the introduced species are abundant in disturbed areas. This result is not
surprising given that introduced species often thrive in disturbed areas (Rosecchi et al., 2001).
117
4.5 Chapter Summary
Despite the poor experimental design the following conclusions were reached. Species richness
depends on physical habitat factors, mainly water temperature and river depth for total number of
fish species and number of native species and distance from the coast for endemic species. The
number of introduced fish species decreased with distance from the coast (p = 0.001).
Species abundance depends on physical habitat factors such as water temperature for the total
number of fish species and number of native species. However, long-term monitoring of a single
stream in Fiji should clearly show how useful physical parameters and habitat variables will
determine which factors are affecting the fish community.
An additional observation made during this survey is that the endemic fish were more common in
undisturbed habitats while introduced fish were more common in disturbed areas.
118
CHAPTER 5 FISH COMMUNITIES AND ASSEMBLAGES
5.1 Introduction
Fish communities are adapted to different zones and habitat types in freshwater systems (Almiron
et al., 2000). Pusey and Arthington (2003) stated that riparian zones in a freshwater system
promote a diversity of fish.
Berra et al. (1975), from a study carried out in the Laloki River in New Guinea, showed that the
lower reaches of the main channels contained more species.
The type of coarse organic matter drained into streams from the riparian zone can greatly
influence the stream habitat which can also affect the aquatic biodiversity and a range of
processes such as fish reproduction and predation (Pusey and Arthington, 2003). The lower
elevation systems are often inhabited by more fish species which are adapted to warmer, more
turbid, fine-sediment-rich and nutrient-rich conditions (Scott and Helfman, 2001).
Biological monitoring of fishes in the Fly River system in New Guinea showed that the overall
decline in fish catches was due to both mine-related and non-mine related factors. The mine-
related factors caused the loss of fish habitat through increased riverbed aggradation (from mine
waste rocks). Non-mine factors may include natural climatic phenomena, such as El Nino
droughts, introduced species and increased commercial and artisanal fishing; these also
contributed to the declining fish catches (Swales et al., 1998; Swales et al., 2000).
Common land use practices, such as deforestation, degrade stream habitats and reduce habitat
diversity, and are often negatively correlated with taxonomic and ecological diversity (Hicks and
Barrier, 1996 and Scott and Helfman, 2001). Such activities lead to shifts in the structure of
stream fish assemblages as they disturb fish breeding and feeding areas (Jones et al., 1999).
Canopy cover, substrate types and changes with stream elevations are the main determinant
factors of the distributions and densities of tropical stream gobies (Nelson et al., 1997; Keith,
2003). A study of Eleotris sandwicensis in Hawaii showed that it was associated with coarse
substrate (Corkum, 2002). The other factors to take into account are behaviour of recruiting
119
juveniles, the natural ebb and flow of streams in response to rainfall, stream locations in entering
the ocean and, in one species, the timing of the spawning migration (Nishimoto and Fitzsimons,
1999).
Marquet and Mary (1999) carried out a study in New Caledonia in order to better understand the
ecology of some freshwater fish in the families Anguillidae, Kuhliidae and Mugilidae. However,
there has been no research on the fish communities and assemblages of freshwater fish in Fiji.
Therefore, the specific aim of this chapter is to: determine whether the freshwater fishes of Fiji
form distinct fish communities based on habitat.
5.2 Methods The study sites and field methods used are described in Chapter 2.
The fish caught in this survey were divided into six main combinations of river location and bank
vegetation stream where fish were collected: These are:
a. mouth of creeks with sand substrates with coastal plants on the bank,
b. mouth of creeks with silt in substrate mangrove forest
c. midreach of river with muddy substrate and riparian plants overhanging on the stream
edge usually slow flowing and often dead logs and tree roots in the creek
d. midreach of river with sand, gravel and boulders substrate with riparian plants on banks
usually fast flow and riffle
e. riffles, fast flowing water with fused rocks substrate and rock wall sides and
f. deep pools with sand and gravel substrate and riparian plants on side.
Note that in all the different habitats there are certain sites that are exposed to the sunlight without
any forest cover and there are sites that are under the forest cover without being exposed to the
sunlight. For more description of each site see Appendix 1.
120
5.3 Results The 76 fish species recorded during this survey can be grouped into 6 distinct
groups/communities based on habitat (see Appendix 9 and Tables 5.1) for the summary of the
fish species collected from the different habitat types.
Table 5.1 Summary of the fish species collected from the different habitat types. Whereby a -
mouth of creeks with sand substrates with coastal plants on the bank, b - mouth of creeks with silt
in substrate mangrove forest, c - midreach of river with muddy substrate and riparian plants
overhanging on the stream edge usually slow flowing and often dead logs and tree roots in the
creek, d - midreach of river with sand, gravel and boulders substrate with riparian plants on banks
usually fast flow and riffle, e - riffles, fast flowing water with fused rocks substrate and rock wall
sides and f - deep pools with sand and gravel substrate and riparian plants on side. Note there are
some species that overlapped into more than two different habitat types.
Habitattypes
Total number of families Total number of fish species
a 10 12 b 10 15 c 7 9 d 1 5 e 1 2 ab 3 4 ac 1 1 af 1 1 bc 2 2 cd 7 9 cf 4 8 de 1 1 df 1 3 abc 2 2 bdef 1 1 cdef 1 1
Some fish species can be found in more than one habitat type whereas there are species that were
only collected from a single habitat and are known to be restricted to a certain habitat.
121
5.3.1 ESTUARINE ZONE
In the estuarine zone there are two distinctive habitat types that are denoted as a and b. There are
a total of 12 species from 10 families that are restricted to the habitat a and there are 15 species
from 10 families restricted to habitat b. There are four species from three families that were found
in both the habitats a and b. Therefore, there are a total of 31 species from 20 families that are
restricted to the estuarine zone. There are seven species from six families that were collected from
the estuarine zone and at the same time were collected from non-estuarine area and 37 species
from 14 families are non-estuarine species (Table 5.1 and Appendix 9).
5.3.2 RATE OF WATER FLOW (SLOW WATER/FAST WATER/POOLS)
In a habitat which is characteristised by rate of waterflow, there are 54 species from 30 families
that are restricted to the slow water, there are eight species from a single family, mainly gobies,
that are found in the fast waters and there are 14 species from eight families that moved between
the slow water, fast water and pools. There are no fish species that are restricted to pools (Table
5.1 and Appendix 9). The riffles, runs and pool habitats used in this survey closely follow the
description of Jowett (1993).
5.3.3 SUBSTRATE TYPES (SAND, SILT, MUDDY, GRAVEL, BOULDERS,
FUSED ROCKS AND ROCK WALL SIDES)
There were eight species from seven families that were found in sand substrate (Table 5.2).
Table 5.2 Fish species found in sand substrate habitat.
Family Species Family Species
Engraulidae Stolephorus indicus Haemulidae Plectorhinchusgibbosus
Gerreidae Gerres longirostris Sphyraenidae Sphyraena obtusataLeiognathidae Gazza minuta Teraponidae Terapon jarbuaLeiognathidae Leiognathus
splendensTetraodontidae Arothron reticularis
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There are 16 species from 11 families that were found in silt habitat (Table 5.3).
Table 5.3 Fish species found in silt habitat.
Family Species Family Species
Apogonidae Apogon amboinensis Mugilidae Liza macrolepis
Apogonidae Apogon lateralis Mugilidae Valamugil buchanani
Clupeidae Sardinella fijiense Mugilidae Valamugil cunnesius
Eleotridae Bostrychus sinensis Mullidae Upeneus vittatus
Eleotridae Ophiocaraporocephala
Scorpaenidae Tetraroge niger
Gobiidae;Oxudercinae
Periophthalmus kalolo
Siganidae Siganus vermiculatus
Lutjanidae Lutjanus fulvus Syngnathidae Microphis
brevidorsalis
Lutjanidae Lutjanus russellii Teraponidae Mesopristes kneri
There were 11 species from seven families found in the muddy habitat (Table 5.4).
Table 5.4 Fish species found in muddy habitat.
Family Species Family Species Anguillidae Anguilla megastoma Moringuidae Neoconger
tuberculatusCyprinidae Barbonymus
gonionotusScatophagidae Scatophagus argus
Eleotridae Bunaka gyrinoides Syngnathidae Microphis brachyurus brachyurus
Eleotridae Giurus margaritacea Syngnathidae Microphis brevidorsalis
Gobiidae;Gobiinae
Psammogobius biocellatus
Syngnathidae Microphis leiaspis
Moringuidae Moringua abbreviata
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There were five species from three sub-families of Gobiidae found in sand, gravel and boulders
habitat (Table 5.5).
Table 5.5 Fish species from three sub families of Gobiidae found in sand, gravel and boulders
habitat.
Family Species Family Species
Gobiidae;Gobiinae
Glossogobius sp. 1 Gobiidae;Gobionellinae
Stenogobius sp. 1
Gobiidae;Gobionellinae
Redigobius bikolanus Gobiidae;Sicydiinae
new genus, new species
Gobiidae;Gobionellinae
Schismatogobius vitiensis
There were two species from a single family found in fused rock substrate and rock wall sides
(Table 5.6).
Table 5.6 Fish species found in fused rock substrate and rock wall side.
Family Species
Gobiidae;Sicydiinae
Lentipes kaaea
Gobiidae;Sicydiinae
Sicyopus (c.f.Juxtastiphodon) sp.
5.3.4 VEGETATION TYPES (COASTAL PLANTS/ MANGROVES/ GRASSES
AND SHRUBS OVERHANGING INTO THE STREAM AND FOREST COVER). The vegetation types and forest cover were not measured as one of the variables for consideration
during this survey. Hence, it was just noted in describing the sites of collections. However, at the
end of the survey it was clear that vegetation types and forest cover also influence the fish habitat
and their distribution to some extent. This was similar to the findings in a tropical ecosystem in a
Venezuelan piedmont stream where streams with forest cover has a higher number of fish
richness and abundance (Wright and Flecker, 2004). The vegetation of the different sites
surveyed during this study was described in Appendix 1. Therefore, the fish found in relation to
the different vegetation types will be presented in the discussion on section 5.4.1 and 5.4.2.
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5.4 Discussion
5.4.1 INDICATORS OF FISH DISTRIBUTION AND ABUNDANCE
5.4.1.1 Estuarine zone There are 31 species from 20 families recorded from this habitat. This is a higher diversity in
terms of the fish families present compared to the other zones. Salinity, temperature, and current
speed are the factors that influence fish distribution in estuaries (Segar, 1998). Most species in the
estuarine zone have marine ancestors and have developed an ability to tolerate a wide range of
salinities (Castro and Huber, 1997). Estuaries are incredibly productive and are the residence of a
large numbers of organisms, some of which are very marketable (Jellyman et al., 1997). The
estuarine zone provides an avenue for breeding and feeding for many birds, fishes and other
animals (Kathiresan and Bingham, 2001).
Estuarine fish species are usually associated with the mangrove ecosystem for breeding and
feeding (Ro¨nnba¨ck, 1999). Mangrove habitats rate among one of the most productive
ecosystems on earth (Singleton, 1997). They are considered important feeding sites for juvenile
fish because of increased productivity of detritivorous benthic and plantonic prey organisms,
providing an important food source (Grenouillet et al., 2002). Studies by March et al. (2002) have
shown that juvenile prawns are more abundant in mangroves than adjacent habitats. Prawns
provide an important food source for a number of juvenile fish species such as Caranx
sexfasciatus and Gerres sp. (Storey et al., 2000).
The mangrove ecosystem is referred to as the nursery spot for the marine and freshwater species
(Vidy, 2000). Therefore, the mangrove forest has a great influence in the fish community
structure (Mumby et al., 2004). The flushing of ocean water and the river discharge have
contributed to the biodiversity of the fish community of any lower reach of any water system
because it is usually dominated by estuarine, marine and coral reef fish species (Loneragan, 1999;
Dankwa and Gordon, 2002).
In this study eight species from seven families were collected at the mouth of the streams. These
have marine ancestors and are now colonizing the mouth of the streams and so are called
estuarine fishes. They are established along the shoreline for feeding and refuge from larger
predators (Ro¨nnba¨ck, 1999; Allen et al., 2002).
125
There are eight species from seven families that are found between the estuarine and freshwater
water system. These species’ movements are governed by the current fluctuations. They move up
and down the streams following the tidal movement that flushes food inland therefore fish species
are swimming upstream for feeding. Most of these species that overlap are estuarine species,
therefore, they are moving following the tide. The movement between the sea and fresh water is
an important factor for the life cycle of these fish that also determines their distribution within a
stream (Jowett et al., 1996).
5.4.1.2 Water Rate (Slowwater/fastwater/pools) Combining all the sites with slow water rates during this survey gives a higher diversity. The
higher diversity in terms of species in the slow water can be attributed to the availability of food
and habitats (Grenouillet et al., 2002).
Site 8 in Savura Creek is a riffle with sand, gravel and boulders substrate. A total of 18 fish
species and 72 individual fishes were found there. This site is also exposed to the sunlight,
therefore, algae growth is evident on the substrate, attracting the Gobiidae and the herbivores
species for feeding (Keith, 2003). It is evident from this study that the abundance of species like
A. marmorata, Kuhlia marginata and K. rupestris are higher in riffles due to preference for higher
water velocity. This is similar to what Jenkins (1997) found in Upper Yuat River, in Madang,
Papua New Guinea where only few species are found in high current speed of larger water
bodies.
Site 33b, a pool below the Tavoro falls of Tavoro Creek, recorded a total of ten species and 23
individual fishes. The pool in Tavoro Creek recorded the highest number of species since it was
the largest pool that was surveyed in this study. This probably shows that the larger pools
provided a wide range of habitat types where fish species can partition themselves within the pool
(Jowett, 1993).
5.4.1.3 Substrate types (Sand, silt, muddy, gravel, boulders, fused rocks and rock wall
sides)
There are Gobiidae species such as the Awaous guamensis, A. ocellaris, Schismatogobius
vitiensis, Stenogobius sp. 1 and Sicyopus zosterophorum that are restricted to sand, gravel and
boulders substrate habitat type because of the coarseness in substrate type, food availability and
refuge from their predators (Haynes et al., 1989).
126
The Waitavala Creek is a unique habitat type with fused rock and rock wall side, which yielded a
new record, and a new species for Fiji. These were Lentipes kaaea and Sicyopus (c.f.
Juxtastiphodon) sp. from the sub family Sicydiinae that are more speciose throughout the insular
tropical Pacific (Marquet and Mary, 1999).
5.4.1.4 Vegetation types (coastal plants/mangroves/grasses and shrubs overhanging into the
stream and forest cover).
There are 16 species from 11 families that were collected from the areas near the coastal plant
area and mangrove habitat in this survey which are similar to families and species reported by
Allen (1991) and Allen et al. (2002) from New Guinea and Australia. There are more fish
families reported in the mangrove habitat compared to the lowland and montane forest zones
despite the limited number of mangrove habitats that were surveyed.
The mangrove forest provides shelter for the fish. This is evident with the mangrove habitats in
the lower reach of the Savura Creek, which provide increased protection from piscivores by
providing habitat complexity.
In this study, native fish abundance was highest for the Sicydiine gobies in catchments with the
least forest cover where streams were exposed to sunlight which enhanced the growth of algae for
food and breeding (Keith, 2003). The Eleotridae, Syngnathidae and Poeciliidae were most
abundant in streams with shrubs and overhanging riparian vegetation on the edge of the lower
reaches which provided cover for spawning and feeding (Welcomme, 2002).
It was observed during this study that the forest reserve areas and the disturbed areas also
influence the fish distribution and abundance. The forest canopy is to provides the conditions that
allow the under stories to develop and these then affect the stream habitat for fish (Rowe et al.,
1999).
Sampling intensity was high in Savura and Tavoro creeks, however field observation of the under
developed grassland was an important discriminator of the fish distribution. The sites 7 to 11 of
the Savura Creek were meadow grassland and from sites, 12 to 21 were in the Savura Forest
Reserve. The other sites with understorey of grass into the creeks, understorey shrubs, ferns and
riparian vegetation from this survey are sites 8 to 14 and sites 25 to 33. These sites recorded an
abundance of fish species.
127
5.4.2 FISH CHARACTERISTICS
The fish size, shape and colour are components of the fish themselves that also determine what
types of habitat they lived in. Freshwater streams provide a wide range of habitats for fishes.
Body size and morphology contribute to the selection of habitats and also seasonal variation in
habitats will determine the community structure.
Several species spend most of their time on the river edge under the overhanging plants and
grasses, for example Eleotridae, Kuhliidae, Syngnathidae and Poeciliidae. This is an ideal habitat
for shelter from predators and a generally safer zone for egg deposition (Welcomme, 2002).
Eleotris fusca, E. melanosoma, Giurus hoedti, Hypseleotris guentheri and Giurus margaritacea
of the family Eleotridae and Poecilia reticulata (Poeciliidae) were the species that were
commonly more abundant in the creek edges with overhanging vegetations. These species are
carnivores with big eyes and mouth which hide in their habitat and wait for their prey to come
near or pass by and they attack to feed. At times Kuhlia marginata and K. rupestris were
associated with dead logs and tree roots in the streams and species from the family Syngnathidae
were also collected under the over hanging riparian plants besides the streams.
There are six species from six families that were caught in the upper reaches during this survey.
They are the eel Anguilla marmorata which usually extends as far as the headwaters from the
lower reaches. The introduced Oreochromis mossambicus are stocked into some major freshwater
system of Fiji as an alternative protein food source (Andrews, 1985) and are widely distributed in
the lower and montane zones of a few streams. The sicydiine gobies such as Sicyopterus
lagocephalus move upstream to complete their life cycles (Keith, 2003). The jungle perch Kuhlia
rupestris can swim upstream in rivers and creeks without barriers such as the waterfalls and are
found at above 600 m asl in the upper Ba River. Awaous guamensis in Fiji was similar to what
was observed in New Caledonia: it was common along the entire length of the rivers because it
preys on insects (Marquet and Mary, 1999). Poecilia reticulata was introduced as an agent for
biological control of mosquitoes (Eldredge, 2000) and is becoming very extensive in the Fijian
streams and is distributed in the lower and montane zones.
The sicydiine gobies were found in a single creek where they stuck into the crevices of the fused
rock to hide from their prey and feed from the algae that are growing on the substrate. Moreover,
they are amphidromous species that spawn in the freshwater and their eggs are washed down
128
stream for development before returning to the freshwater system to complete their life cycle
(McDowall, 1997; McDowall, 2004).
Fish that overlapped into other habitat types and distribution trend. There were 29 species fron 15 families that were found in more than one habitat (Table 5.1 and
Appendix 9). Sicyopterus lagocephalus and Anguilla marmorata were the most widespread
species. The above species are widespread and use a variety of habitat. This can be attributed to their
ability to adapt to different habitats or habitat preferences that are influenced by factors like
undisturbed catchment vegetation or pristine streams (Chadderton and Allibone, 2000).
Furthermore, fish distribution in this study compares well with fish distribution in the Indo–
Pacific, where the number of fish species declines in an upstream direction (McDowall and
Taylor, 2000; Joy and Death, 2001).
5.5 Chapter summary In summary, it was found out during this survey that the freshwater fishes in Fiji form distinct
fish communities based on the habitat. The fish distribution and diversity were determined by
accessing the different indicators that will help to determine the fish species that are likely to be
found in the different habitat types.
Therefore, in this survey it was found that there is a family diversity of fish species at the
estuarine zone, there is species diversity at the lower and mid reaches of the river and a lower
diversity at the upper reaches of the river. The fish species are grouped into these habitats in
declining trends of diversity and distribution from the mouth to the headwaters of the streams that
were surveyed. Furthermore, there are 29 species from 15 families that can be found in more then
one habitat types.
Most of all, it is evident from this study that habitat preference is an indicator of biodiversity and
abundance of Fijian fresh water fish. Furthermore, fish species live together in a preferred habitat
for feeding, breeding and refuge from their predators.
129
CHAPTER 6 CONCLUSIONS AND RECOMMENDATIONS
6.1 Conclusions Seventy six species were collected during this survey. An additional 151 species are recorded in
literature, recent unpublished reports and are listed in museum collection records. This total
includes seven undescribed fish species (one from John Pogonowski’s collection) and four fish
species that were not previously recorded from the estuaries and fresh waters of Fiji. Therefore,
this work has contributed 11 new records and a new genus to the total number of brackish and
freshwater fishes of Fiji. The new species are Glossogobius sp. Redigobius sp., Sicyopus (c.f.
Juxtastiphodon) sp., Stenogobius sp., Stiphodon sp. 1, Stiphodon sp. 2 and Sicydiinae: new genus
and new species. One of the new species was already described by Jenkins and Boseto (2005) as
Schismatogobius vitiensis. The new records are Yirrkala gjellerupi, Gerres longirostris, Lentipes
kaaea and Belobranchus belobranchus. The combined record produced a total of 161 species
from 45 families of Fijian freshwater fishes.
The common species after combining all the collections are Anguilla marmorata (Anguillidae),
and Kuhlia rupestris (Kuhliidae). The moderate to occasionally common species of the combined
collections are Sicyopterus lagocephalus, Kuhlia marginata, Eleotris fusca, Hypseleotris
guentheri, Awaous ocellaris, Glossogobius sp.1, Stiphodon rutilaureus, Eleotris melanosoma,
Stiphodon sp. 1, Stiphodon sp. 2, Kuhlia munda, Stenogobius sp.1, Oreochromis mossambicus,
Awaous guamensis, Ambassis miops, Redigobius leveri and Zenarchopterus dispar. The least
common fish species of the combined collections are in Appendix 6.
Some of the least common species are Lentipes kaaea, Sicyopus (c.f. Juxtastiphodon) sp.,
Neoconger tuberculatus and Yirrkala gjellerupi which were collected during this survey from a
single site or creek.
More species were found in the central zone of Fiji while the western zone was least diverse. Fiji
has the second highest known freshwater fish diversity in the tropical Pacific after Papua New
Guinea and the third highest level of endemism behind Australia and PNG in the Pacific (Table
3.6). This is valid at the date this thesis was submitted. However, the species richness in Solomon
Islands and Vanuatu could surpass Fiji’s record if more estuarine and freshwater fish surveys
were carried out.
130
It was ascertained during this survey that the freshwater fishes in Fiji form distinct fish
communities based on the habitat. The fish distribution and diversity were determined by
accessing the different indicators that will help to determine the fish species that are likely to be
found in the different habitat types.
Most of all, it is evident from this study that habitat preference is an indicator of the biodiversity
and abundance of Fijian fresh water fish. Furthermore, fish species live together in a preferred
habitat for feeding, breeding and refuge from their predators.
The common preferred habitat types are the overhanging grasses in the creeks, understorey
shrubs, ferns and riparian vegetation and fine (muddy) to gravel substrate type. The other habitat
that is well populated with fish species is the mangrove forest at the lower reaches of the creeks
where there are mostly marine and estuarine fishes.
In addition to habitat preferences, it was noted that the conserved terrestrial and marine
ecosystems like that of the Tavoro Reserve Forest and the Waitabu Marine Park complement each
other with a high diversity of freshwater, estuarine and marine species.
The present study shows that it is possible to identify broad habitat associations of several
principal species, although the importance of cover cannot be separated from that of other
parameters such as salinity. This is evident from the preference for middle reach areas shown by
Eleotris fusca, E. melanosoma, Giurus hoedti and Giurus margaritecea. These species prefer the
greater availability of cover offered by water depth, tree roots, understorey shrubs, ferns, riparian
vegetation and associated debris.
Freshwater fish species richness patterns are important biodiversity indicators, therefore, they
should be given equal treatment to that given to terrestrial and marine ecosystems. Legislation
should be put in place to avoid freshwater biodiversity losses associated with human actions, such
as the extent of human alterations of freshwater ecosystems here in Fiji, and globally.
The present study has provided the most comprehensive and detailed description of Fijian
freshwater fishes yet made. The sampling methods used gave an adequate and detailed
description of the freshwater fish community structure and composition in systems surveyed. It is
hoped that the information gathered in this study will be used as a baseline to further enhance the
131
knowledge of the Fijian freshwater fish fauna in future studies in Fiji, and facilitate the
development of protective legislation for the fresh water systems of Fiji. However, still more
places and streams must be surveyed before we can fully understand the Fijian freshwater flora
and fauna.
The use of new technology such as the electrofisher has also assisted with new species discovery.
It is also imported to check identifications with known experts
6.2 Recommendations At the end of this study there are four main recommendations to be made:
1. Although Fiji still retains most of its original fresh water resources and lacks the economic and
industrial pressures of many Asian countries, its small size and isolation makes its freshwater
ecosystem and fauna very vulnerable to destruction and degradation. Therefore, if Fiji is to
retain its freshwater fauna, legislation and environmental laws are needed. Freshwater
ecosystems are as important as the terrestrial and the marine ecosystems because they make
the link between the land and the sea. Therefore, stakeholders from the Lands, Forestry and
Fisheries Departments should work with other stakeholders for effective management.
2. Long term monitoring of the abiotic and biotic factors that influence the fish assemblages in
Fijian streams is required for further understanding of the fish fauna.
3. Proper assessments of the freshwater systems must be carried out first before any development
should take place, to avoid destroying the endemic fish fauna that might be restricted to
particular sites.
4. Forest and freshwater parks should be established in priority forest areas where new genera and
new species have been collected. Furthermore, when setting up a marine reserve, the
freshwater system and the forest adjacent to it should also be reserved so that they can
complement each other in their species biodiversity.
132
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CHAPTER 8 APPENDICES Appendix 1. Physical parameters, river measurements, fish and invertebrates collected. Note the
sites which marked with site 1a or 1b or 1c denotes the number of sampling taking places at that
same site in different times of the year.
A. Site 1a. Mouth of Tamavua River. Physical water parameters measured: current speed
0.1 ms-1, temperature 29 0C, DO 4.3 mg/L, turbidity 60 %, conductivity 31.3 S, salinity 19.3 ppt
and pH 6.3. River measurements: maximum width 25 m, maximum depth 1.2 m, length sampled
100 m. Finfish species caught: Stolephorus indicus (1), Zenarchopterus dispar (2), Ambassis
miops (16), Caranx sexfasciatus (7), Leiognathus equulus (1), Lutjanus argentimaculatus (1),
Liza subviridis (1), Valamugil engeli (1), and Psammogobius biocellatus (1).
A. Site 1b. Mouth of Tamavua River. Physical water parameters measured: current speed
0.3 ms-1, temperature 27.7 0C, DO (No reading), turbidity 40 %, conductivity 50.7 S, salinity
29.3ppt and pH 6.2. River measurements: maximum width 25 m, maximum depth 1.2 m, length
sampled 100 m. Finfish species caught: Sardinella fijiense (2), Gazza minuta (1), Leiognathus
equulus (3), Leiognathus splendens (3), Lutjanus argentimaculatus (1), Liza macrolepis (1),
Valamugil buchanani (4), Valamugil engeli (1), Upeneus sulphureus (2), Gerres longirostris (1),
Sphyraena obtusata (2) and Siganus vermiculatus (1).
A. Site 2a. Tamavua River. Small passage opposite lower Tamavua-i-Wai village. Physical water
parameters measured: current speed 0.1 ms-1, temperature 29.1 0C, DO 3.9 mg/L, turbidity 60 %,
conductivity 44.8 S, salinity 26.3 ppt and pH 6.3. Passage measurements: maximum width 4.8
m, maximum depth 1.2 m, length sampled 20 m. Finfish species caught: Arothron reticularis (1).
A. Site 2b. Tamavua River. Small passage opposite lower Tamavua-i-Wai village. Physical water
parameters measured: current speed 0.1 ms-1, temperature 26.6 0C, DO (No reading), turbidity 40
%, conductivity 42.9 S, salinity 25.9ppt and pH 6.3. Passage measurements: maximum width
4.8 m, maximum depth 1.2 m, length sampled 20 m. Finfish species caught: Valamugil buchanani
(1).
A. Site 3a. Tamavua River. Small passage 5 m upstream from Site 2. Physical water parameters
measured: current speed 0.1 ms-1, temperature 29.1 0C, DO 3. 7 mg/L, turbidity 40 %,
conductivity 41.4 S, salinity 25.2 ppt and pH 6.3. Passage measurements: maximum width 8.2
153
m, maximum depth 1.1 m, length sampled 25 m. Finfish species caught: Valamugil cunnesius (1)
and Ophiocara porocephala (1).
A. Site 3b. Tamavua River. Small passage 5 m upstream from Site 2. Physical water parameters
measured: current speed 0.1 ms-1, temperature 25.9 0C, DO (No reading), turbidity 50 %,
conductivity 37.6 S, salinity 25.4 ppt and pH 6.5. Passage measurements: maximum width 8.2
m, maximum depth 1.1 m, length sampled 25 m. Finfish species caught: Zenarchopterus dispar
(6), Poecilia reticulata (9), Tetraroge niger (3), Mesopristes kneri (1), Ambassis miops (23),
Apogon amboinensis (7), Apogon lateralis (16), Leiognathus equulus (5), Leiognathus splendens
(4), Liza subviridis (28), Psammogobius biocellatus (4) and Siganus vermiculatus (29).
Crustaceans: Scylla serrata (1) and Macrobrachium sp 1 (11).
A. Site 4a. Tamavua River. Larger passage compared to that of Sites 2 and 3, about 80 m
upstream from Site 3. Physical water parameters measured: current speed 0.1 ms-1, temperature
29.4 0C, DO 3. 4 mg/L, turbidity 40 %, conductivity 8.2 S, salinity 4.7 ppt and pH 6.4. Passage
measurements: maximum width 9.1 m, maximum depth 0. 8 m, length sampled 30 m. Finfish
species caught: Poecilia reticulata (1), Mesopristes kneri (1), Gerres longirostris (2), Lutjanus
argentimaculatus (7), L. russellii (1), L. fulvus (2), Monodactylus argenteus (2), Valamugil
cunnesius (1), Bostrychus sinensis (2), Ophiocara porocephala (1) and Siganus vermiculatus
(10). Crustaceans: Scylla serrata (3), Uca vocans (1) and Macrobrachium sp 1 (2).
A. Site 4b. Tamavua River. Larger passage compared to that of Sites 2 and 3, about 80 m
upstream from Site 3. Physical water parameters measured: current speed 0.1 ms-1, temperature
27.1 0C, DO (No reading), turbidity 30 %, conductivity 40.5 S, salinity 26 ppt and pH 6.0.
Passage measurements: maximum width 9.1 m, maximum depth 0. 8 m, length sampled 30 m.
Finfish species caught: Sardinella fijiense (134), Leiognathus equulus (50), Upeneus sulphureus
(3), Lutjanus argentimaculatus (3), Valamugil buchanani (1) and Siganus vermiculatus (2).
A. Site 5a. Tamavua River, 200 m upstream from Site 4 and Tamavua-i-Wai village. Physical
water parameters measured: current speed 0.1 ms-1, temperature 27.2 0C, DO 5.0 mg/L, turbidity
60 %, conductivity 8.2 S, salinity 4.7 ppt and pH 6.4. Passage measurements: maximum width
9.1 m, maximum depth 1.1 m, length sampled 35 m. Finfish species caught: Ophiocara
porocephala (1).
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A. Site 5b. Tamavua River, 200 m upstream from Site 4 and Tamavua-i-Wai village. Physical
water parameters measured: current speed 0.1 ms-1, temperature 26.60C, DO (No reading),
turbidity 40 %, conductivity 37.0 S, salinity 15.4 ppt and pH 6.1. Passage measurements:
maximum width 9.1 m, maximum depth 1.1 m, length sampled 35 m. Finfish species caught:
Lutjanus fulvus (2).
A. Site 6a. Tamavua River, 600 m upstream from Site 5. Physical water parameters measured:
current speed 0.1 ms-1, temperature 25.5 0C, DO 5.2 mg/L, turbidity 50 %, conductivity 18.6 S,
salinity 11.3 ppt and pH 6.3. Passage measurements: maximum width 4.2 m, maximum depth 0.5
m, length sampled 24 m. Finfish species caught: Poecilia reticulata (1), Tetraroge niger (1),
Ambassis miops (3), Apogon amboinensis (6), A. lateralis (3), Caranx sexfasciatus (2),
Leiognathus equulus (5), Lutjanus argentimaculatus (1), Upeneus vittatus (3), Liza subviridis (1)
and Siganus vermiculatus (10).
A. Site 6b. Tamavua River, 600 m upstream from Site 5. Physical water parameters measured:
current speed 0.1 ms-1, temperature 26.6 0C, DO (No reading), turbidity 30 %, conductivity 24.9
S, salinity 15.4 ppt and pH 6.0. Passage measurements: maximum width 4.2 m, maximum depth
0.5 m, length sampled 24 m. Finfish species caught: none.
A. Site 7a. Lower Savura Creek, 50 m upstream from confluence of Savura Creek and Tamavua
River and 400 m away from Wailoku Pump Station. Physical water parameters measured: current
speed 0.1 ms-1, temperature 26.7 0C, DO 6.2 mg/L, turbidity 40 %, conductivity 93 S, salinity 0
ppt and pH 5.3. Creek measurements: maximum width 12 m, maximum depth 0.6 m, length
sampled 18 m. Finfish species caught: Anguilla marmorata (1), Lamnostoma kampeni (2),
Poecilia reticulata (1), Ambassis miops (13), Eleotris melanosoma (1), Giurus hoedti (5) and
Hypseleotris guentheri (5).
A. Site 7b. Lower Savura Creek, 50 m upstream from confluence of Savura Creek and Tamavua
River and 400 m away from Wailoku Pump Station. Physical water parameters measured: current
speed 0.2 ms-1, temperature 25.1 0C, DO (No reading), turbidity 70 %, conductivity 195.9 S,
salinity 0.1 ppt and pH 6.0. Creek measurements: maximum width 12 m, maximum depth 0.6 m,
length sampled 18 m. Finfish species caught: Ambassis miops (3) and Eleotris fusca (1).
Crustaceans: Macrobrachium sp. 1 (2)
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A. Site 8a. Savura Creek, 300 m upstream from Site 7. Physical water parameters measured:
current speed 0.11 ms-1, temperature 26.1 0C, DO 7.0 mg/L, turbidity 40 %, conductivity 82.5 S,
salinity 0 ppt and pH 6.3. Creek measurements: maximum width 14 m, maximum depth 0.6 m,
length sampled 81 m. Finfish species caught: Anguilla marmorata (2), A. megastoma (1),
Gymnothorax polyuranodon (1), Poecilia reticulata (6), Microphis brachyurus brachyurus (3),
Ambassis miops (9), Kuhlia marginata (1), K. rupestris (1), Caranx sexfasciatus (1), Scatophagus
argus (1), Awaous ocellaris (1), Glossogobius sp. 1 (1), Stenogobius sp. 1 (1), Bunaka gyrinoides
(1), Eleotris fusca (7), E. melanosoma (9), Giurus margaritacea (13) and Hypseleotris guentheri
(11).
A. Site 8b. Savura Creek, 300 m upstream from Site 7. Physical water parameters measured:
current speed 0.1 ms-1, temperature 26.3 0C, DO (No reading), turbidity 70 %, conductivity 186.8
S, salinity 0.1 ppt and pH 6.3. Creek measurements: maximum width 14 m, maximum depth 0.6
m, length sampled 81 m. Finfish species caught: Eleotris fusca (2) and Hypseleotris guentheri
(2). Crustacean: Macrobrachium sp. (3)
A. Site 9a. Savura Creek, 200 m upstream from Site 8. Physical water parameters measured:
current speed 0.25 ms-1, temperature 29.9 0C, DO 8.0 mg/L, turbidity 40 %, conductivity 74.9 S,
salinity 0 ppt and pH 6.3. Creek measurements: maximum width 10 m, maximum depth 0.5 m,
length sampled 45.4 m. Finfish species caught: Poecilia reticulata (1), Ambassis miops (4),
Awaous ocellaris (1), Stenogobius sp.1 (7), Eleotris fusca (18), E. melanosoma (15), Giurus
margaritacea (12) and Hypseleotris guentheri (5).
A. Site 9b. Savura Creek, 200 m upstream from Site 8. Physical water parameters measured:
current speed 0.2 ms-1, temperature 25.1 0C, DO (No reading), turbidity 65 %, conductivity 122.4
S, salinity 0.1 ppt and pH 6.1. Creek measurements: maximum width 10 m, maximum depth 0.5
m, length sampled 45.4 m. Finfish species caught: Zenarchopterus dispar (1), Ambassis miops
(1), Eleotris fusca (2), Hypseleotris guentheri (4) and Giurus margaritacea (1). Crustaceans:
Varuna litterata (1), Macrobrachium sp. 1 (1), Macrobrachium sp. 2 (3) and Macrobrachium sp.
3 (1)
A. Site 10a. Savura Creek, 200 m upstream from Site 9. Physical water parameters measured:
current speed 0.1 ms-1, temperature 27.4 0C, DO 7. 9 mg/L, turbidity 40 %, conductivity 77.3 S,
salinity 0 ppt and pH 6.3. Creek measurements: maximum width 6 m, maximum depth 0.2 m,
156
length sampled 102 m. Finfish species caught: Anguilla marmorata (5), Moringua abbreviata (1),
Microphis leiaspis (5), Ambassis miops (3), Kuhlia marginata (5), K. rupestris (1), Awaous
ocellaris (1), Psammogobius biocellatus (1), Stenogobius sp. 1 (1), Eleotris fusca (10), E.
melanosoma (10), Hypseleotris guentheri (3) and Giurus margaritacea (9).
A. Site 10b. Savura Creek, 200 m upstream from Site 9. Physical water parameters measured:
current speed 0.1 ms-1, temperature 25.3 0C, DO (No reading), turbidity 70 %, conductivity 106.2
S, salinity 0 ppt and pH 6.1. Creek measurements: maximum width 6 m, maximum depth 0.2 m,
length sampled 102 m. Finfish species caught: Ambassis miops (2), Eleotris fusca (2),
Hypseleotris guentheri (4) and Giurus margaritacea (1). Crustaceans: Macrobrachium sp. 1 (3).
A. Site 11a. Savura Creek, 200 m upstream from Site 10. Physical water parameters measured:
current speed 0.1 ms-1, temperature 27.5 0C, DO 8.0 mg/L, turbidity 40 %, conductivity 67.3 S,
salinity 0 ppt and pH 6.3. Creek measurements: maximum width 6 m, maximum depth 0.4 m,
length sampled 98 m. Finfish species caught: Anguilla marmorata (8), Poecilia reticulata (1),
Kuhlia marginata (3), K. rupestris (7), Awaous ocellaris (1), Redigobius leveri (2),
Schismatogobius vitiensis (1), Sicyopterus lagocephalus (13), Stenogobius sp. 1(1), Eleotris fusca
(12), E. melanosoma (1), Hypseleotris guentheri (2) and Giurus margaritacea (2).
A. Site 11b. Savura Creek, 200 m upstream from Site 10. Physical water parameters measured:
current speed 0.2 ms-1, temperature 23.7 0C, DO (No reading), turbidity 85 %, conductivity 81.5
S, salinity 0 ppt and pH 6.1. Creek measurements: maximum width 6 m, maximum depth 0.4 m,
length sampled 98 m. Finfish species caught: Poecilia reticulata (1), Kuhlia marginata (1),
Stenogobius sp. 1 (5), Eleotris fusca (2), Hypseleotris guentheri (4) and Giurus margaritacea (1).
Crustaceans: Macrobrachium sp. 1 (6), Caridina sp. (2). Molluscan species collected: Melanoides
tuberculata (4).
A. Site 12a. Savura Creek, 200 m upstream from Site 11. Physical water parameters measured:
current speed 0.1 ms-1, temperature 28.6 0C, DO 7.0 mg/L, turbidity 50 %, conductivity 76.2 S,
salinity 0 ppt and pH 6.3. Creek measurements: maximum width 14 m, maximum depth 0.5 m,
length sampled 105 m. Finfish species caught: Anguilla megastoma (1), A. marmorata (6),
Ambassis miops (1) Kuhlia marginata (8), K. munda (2), K. rupestris (1), Glossogobius sp. 1 (1)
Eleotris fusca (29), E. melanosoma (16), Giurus hoedti (1), Hypseleotris guentheri (12) and
Giurus margaritacea (3).
157
A. Site 12b. Savura Creek, 200 m upstream from Site 11. Physical water parameters measured:
current speed 0.1 ms-1, temperature 23.0 0C, DO (No reading), turbidity 90 %, conductivity 77.0
S, salinity 0 ppt and pH 6.2. Creek measurements: maximum width 14 m, maximum depth 0.5
m, length sampled 105 m. Finfish species caught: Stenogobius sp. 1 (3) and Hypseleotris
guentheri (3). Crustaceans: Macrobrachium sp. 1 (5).
A. Site 13a. Savura Creek, 200 m below water dam. Physical water parameters measured: current
speed 0.4 – 1.2 ms-1, temperature 25.7 0C, DO 8.1 mg/L, turbidity 50 %, conductivity 58.1 S,
salinity 0 ppt and pH 6.3. Creek measurements: maximum width 14.2 m, maximum depth 0.7 m,
length sampled 28 m. Finfish species caught: Anguilla marmorata (2), Yirrkala gjellerupi (1),
Poecilia reticulata (1), Microphis retzii (1), Kuhlia marginata (3), Schismatogobius vitiensis (2),
Stenogobius sp. 1 (1), Eleotris fusca (12), E. melanosoma (5), Giurus margaritacea (1) and
Hypseleotris guentheri (6).
A. Site 13b. Savura Creek, 200 m below water dam. Physical water parameters measured: current
speed 0.2 – 1.0 ms-1, temperature 24.3 0C, DO (No reading), turbidity 80 %, conductivity 84.7 S,
salinity 0 ppt and pH 6.2. Creek measurements: maximum width 14.2 m, maximum depth 0.7 m,
length sampled 28 m. Finfish species caught: Poecilia reticulata (3), Kuhlia marginata (2),
Eleotris fusca (1) and Hypseleotris guentheri (1).
A. Site 14a. Savura Creek. Deep pool below water dam, 10 m upstream from Site 13. This site is
disturbed due to building of dam; therefore, trees near dam cleared. Physical water parameters
measured: current speed 0 – 1.2 ms-1, temperature 25.7 0C, DO 8.1 mg/L, turbidity 50 %,
conductivity 58.1 S, salinity 0 and pH 6.3. Creek measurements: maximum width 14.2 m,
maximum depth 1.4 m, length sampled 10 m. Finfish species caught: Anguilla marmorata (3),
Yirrkala gjellerupi (3), Microphis retzii (1), Kuhlia marginata (3), Caranx sexfasciatus (1),
Eleotris fusca (19), E. melanosoma (1), Giurus hoedti (1) and Hypseleotris guentheri (6).
Crustaceans: Thalamita sp. (1) and Varuna litterata (1). Mollusca species collected: Melanoides
tuberculata (4).
A. Site 14b. Savura Creek. Deep pool below water dam, 10 m upstream from Site 13. Physical
water parameters measured: current speed 0.1 – 1.2 ms-1, temperature 23.5 0C, DO (No reading),
turbidity 95 %, conductivity 81.6 S, salinity 0 and pH 6.2. Creek measurements: maximum
width 14.2 m, maximum depth 1.4 m, length sampled 10 m. Finfish species caught: Poecilia
158
reticulata (6), Kuhlia marginata (3), Eleotris fusca (4), E. melanosoma (1), Hypseleotris
guentheri (13) and Stenogobius sp. 1 (7).
A. Site 15a. Vago Creek. Sampling at confluence of Vago Creek and Savura Creek, 50 m
upstream from Site 14. Physical water parameters measured: current speed 0.2 – 0.8 ms-1,
temperature 24.5 0C, DO 7. 9 mg/L, turbidity 80 %, conductivity 47.8 S, salinity 0 ppt and pH
6.3. Creek measurements: maximum width 11 m, maximum depth 0.8 m, length sampled 37 m.
Finfish species caught: Anguilla marmorata (5), Poecilia reticulata (7), Stiphodon sp. 2 (1),
Stiphodon rutilaureus (1), Eleotris fusca (2) and E. melanosoma (5).
A. Site 15b. Vago Creek. Sampling at confluence of Vago Creek and Savura Creek, 50 m
upstream from Site 14. Physical water parameters measured: current speed 0.2 – 1.0 ms-1,
temperature 23.0 0C, DO (No reading), turbidity 90 %, conductivity 77.0 S, salinity 0 ppt and
pH 6.2. Creek measurements: maximum width 11 m, maximum depth 0.8 m, length sampled 37
m. Finfish species caught: Poecilia reticulata (5) and Stiphodon sp. 1 (1). Molluscan species
collected: Melanoides tuberculata (6).
A. Site 16a. Vago Creek, 10 m upstream from Site 15. Physical water parameters measured:
current speed 0.3 – 0.6 ms-1, temperature 25.1 0C, DO 7.6 mg/L, turbidity 100 %, conductivity
48.6 s, salinity 0 ppt and pH 6.3. Creek measurements: maximum width 15.5 m, maximum
depth 0.6 m, length sampled 36.7 m. Finfish species caught: Anguilla marmorata (5), Poecilia
reticulata (3), Kuhlia rupestris (1), Eleotris fusca (7) and E. melanosoma (3).
A. Site 16b. Vago Creek, 10 m upstream from Site 15. Physical water parameters measured:
current speed 0.1 – 0.5 ms-1, temperature 23.10C, DO (No reading), turbidity 100 %, conductivity
40.2 S, salinity 0 ppt and pH 6.2. Creek measurements: maximum width 15.5 m, maximum
depth 0.6 m, length sampled 36.7 m. Finfish species caught: Redigobius leveri (2) and
Sicyopterus lagocephalus (5).
A. Site 17a. Vago Creek, 10 m upstream from Site 16. Physical water parameters measured:
current speed 0.3 – 0.6 ms-1, temperature 25.1 0C, DO 7.6 mg/L, turbidity 100 %, conductivity
48.6 S, salinity 0 ppt and pH 6.3. Creek measurements: maximum width 15.3 m, maximum
depth 0.6 m, length sampled 10 m. Finfish species caught: Anguilla marmorata (4), Sicyopterus
lagocephalus (4), Eleotris fusca (3) and E. melanosoma (5).
159
A. Site 17b. Vago Creek, 10 m upstream from Site 16. Physical water parameters measured:
current speed 0.2 – 0.4 ms-1, temperature 23.3 0C, DO (No reading), turbidity 100 %, conductivity
32.4 S, salinity 0 ppt and pH 6.2. Creek measurements: maximum width 15.3 m, maximum
depth 0.6 m, length sampled 10 m. Finfish species caught: Sicyopterus lagocephalus (2) and
Stiphodon sp. 1 (1). Molluscan species collected: Melanoides tuberculata (3).
A. Site 18a. Vago Creek, 20 m upstream from Site 17. Physical water parameters measured:
current speed 0.1 ms-1, temperature 23.7 0C, DO 7.8 mg/L, turbidity 100 %, conductivity 52.6 S,
salinity 0 ppt and pH 6.4. Creek measurements: maximum width 13.7 m, maximum depth 0.4 m,
length sampled 50 m. Finfish species caught: Anguilla marmorata (4), Redigobius leveri (7),
Sicyopterus lagocephalus (4), Stiphodon rutilaureus (2) and Eleotris melanosoma (21).
A. Site 18b. Vago Creek, 20 m upstream from Site 17. Physical water parameters measured:
current speed 0.3 ms-1, temperature 23.1 0C, DO (No reading), turbidity 100 %, conductivity 57.1
S, salinity 0 ppt and pH 6.2. Creek measurements: maximum width 13.7 m, maximum depth 0.4
m, length sampled 50 m. Finfish species caught: Sicyopterus lagocephalus (1), Sicyopus
zosterophorum (1), Stiphodon sp. 1 (2) and Stiphodon sp. 2 (1). Molluscan species collected:
Melanoides tuberculata (4).
A. Site 19a. Vago Creek, 20 m upstream from Site 18 and also below Vago Waterfall. Physical
water parameters measured: current speed 0.1 ms-1, temperature 24.1 0C, DO 6.8 mg/L, turbidity
80 %, conductivity 53.3 S, salinity 0 ppt and pH 6.3. Creek measurements: maximum width 12
m, maximum depth 2.9 m, length sampled 30 m. Finfish species caught: Anguilla marmorata (5),
Kuhlia rupestris (1), Redigobius leveri (2), Sicyopterus lagocephalus (5) and Eleotris
melanosoma (25).
A. Site 19b. Vago Creek, 20 m upstream from Site 18 and also below Vago Waterfall. Physical
water parameters measured: current speed 0.1 ms-1, temperature 23.8 0C, DO (No reading),
turbidity 90 %, conductivity 61.1 S, salinity 0 ppt and pH 6.2. Creek measurements: maximum
width 12 m, maximum depth 2.9 m, length sampled 30 m. Finfish species caught: Sicyopterus
lagocephalus (3) and Stiphodon sp. 1 (1).
A. Site 20a. Vago Creek, at top of Vago Waterfall. Physical water parameters measured: current
speed 0.1 ms-1, temperature 24.5 0C, DO 7.6 mg/L, turbidity 70 %, conductivity 76.6 S, salinity
160
0 ppt and pH 6.3. Creek measurements: maximum width 15 m, maximum depth 0.7 m, length
sampled 100 m. Finfish species caught: Anguilla marmorata (7) and Sicyopterus lagocephalus
(20).
A. Site 20b. Vago Creek, at top of Vago Waterfall. Physical water parameters measured: current
speed 0.1 ms-1, temperature 23.2 0C, DO (no reading), turbidity 100 %, conductivity 66.9 S,
salinity 0 ppt and pH 6.2. Creek measurements: maximum width 15 m, maximum depth 0.7 m,
length sampled 100 m. Finfish species caught: Sicyopterus lagocephalus (1), Sicyopus
zosterophorum (5), Stiphodon sp. 1 (2) and Stiphodon sp. 2 (1). Molluscan species collected:
Melanoides tuberculata (11).
A. Site 21a. Vago Creek, above Vago waterfall, 200 m upstream from its edge. Physical water
parameters measured: current speed 0.1 ms-1, temperature 24.5 0C, DO 7.6 mg/L, turbidity 70 %,
conductivity 76.6 S, salinity 0 ppt and pH 6.3. Creek measurements: maximum width 15 m,
maximum depth 1 m, length sampled 100 m. Finfish species caught: Anguilla marmorata (2) and
Sicyopterus lagocephalus (3).
A. Site 21b. Vago Creek, above Vago waterfall, 200 m upstream from its edge. Physical water
parameters measured: current speed 0.1 ms-1, temperature 23.7 0C, DO (no reading), turbidity 100
%, conductivity 72.1 S, salinity 0 ppt and pH 6.2. Creek measurements: maximum width 15 m,
maximum depth 1 m, length sampled 100 m. Finfish species caught: Sicyopterus lagocephalus
(5), Sicyopus zosterophorum (4) and Stiphodon sp. 2 (1). Molluscan species collected:
Melanoides tuberculata (7).
B. Site 43. Upper Navua River. Physical water parameters measured: current speed 0.1 ms-1,
temperature 24.7 0C, DO 6.6 mg/L, turbidity 20 %, conductivity 119.3 S, salinity 0 ppt and pH
6.2. River measurements: maximum width 13 m, maximum depth 1.5 m, length sampled 30 m.
Finfish species caught: Anguilla marmorata (4), Gymnothorax polyuranodon (1), Lamnostoma
kampeni (2), Kuhlia marginata (1), K. rupestris (1), Awaous ocellaris (1), Redigobius leveri (1),
Schismatogobius vitiensis (2), Sicyopterus lagocephalus (7), Stenogobius sp. 1 (2) and Eleotris
melanosoma (5).
B. Site 44. Upper Navua River, side stream into flowing river. Physical water parameters
measured: current speed 0.1 ms-1, temperature 24.6 0C, DO 7.4 mg/L, turbidity 20 %,
161
conductivity 110.8 S, salinity 0.1 ppt and pH 6.2. River measurements: maximum width 13 m,
maximum depth 1.5 m, length sampled 5 m. Finfish species caught and observed: Oreochromis
mossambicus (2), Sicyopterus lagocephalus (2) and Stenogobius sp. 1 (1).
C. Site 45 Sovi River. Physical water parameters measured: current speed 3.0 ms-1, temperature
23.7 0C, DO (no reading), turbidity 100 %, conductivity 51 S, salinity 0 ppt and pH 6.3. River
measurements: maximum width 7 m, maximum depth 1.2 m, length sampled 10 m. Finfish
species observed: Anguilla marmorata (2), Kuhlia marginata (8), K. rupestris (11), Awaous
ocellaris (12), Schismatogobius vitiensis (1), Sicyopterus lagocephalus (1), Stiphodon rutilaureus
(5) and Belobranchus belobranchus (7).
D. Site 46. Lower Wainadi Creek. Physical water parameters measured: current speed 0.1 ms-1,
temperature 23.8 0C, DO (no reading), turbidity 100 %, conductivity 60.2 S, salinity 0 ppt and
pH 6.3. Creek measurements: maximum width 4.3 m, maximum depth 0.5 m, length sampled 10
m. Finfish species caught and observed: Anguilla marmorata (1), Kuhlia marginata (2), K.
rupestris (4), Sicyopterus lagocephalus (1) and Stiphodon rutilaureus (5). Crustacean species
caught: Macrobrachium rosenbergii (2).
D. Site 47. Mid Wainadi Creek. Physical water parameters measured: current speed 0.1 ms-1,
temperature 23.8 0C, DO (no reading), turbidity 100 %, conductivity 66.5 S, salinity 0 ppt and
pH 6.3. Creek measurements: maximum width 3.5 m, maximum depth 0.7 m, length sampled 12
m. Finfish species observed: Anguilla marmorata (3), Kuhlia marginata (5), K. rupestris (4),
Sicyopterus lagocephalus (1) and Stiphodon rutilaureus (5).
D. Site 52. Upper Wainadi Creek. Physical water parameters measured: current speed 0.1 ms-1,
temperature 24.2 0C, DO (no reading), turbidity 100 %, conductivity 46 S, salinity 0 ppt and pH
6.3. Creek measurements: maximum width 1.5 m, maximum depth 0.3 m, length sampled 3 m.
Finfish species observed: Anguilla marmorata (2), Kuhlia marginata (7), K. rupestris (9),
Awaous ocellaris (4), Sicyopterus lagocephalus (2) and Stiphodon rutilaureus (3).
E. Site 48. Lower to mid Wainavobo River. Physical water parameters measured: current speed
0.1 ms-1, temperature 23.6 0C, DO (no reading), turbidity 100 %, conductivity 52 S, salinity 0
ppt and pH 6.3. River measurements: maximum width 4 m, maximum depth 0.4 m, length
sampled 8 m. Finfish species caught and observed: Anguilla marmorata (6),
162
Gymnothorax polyuranodon (1), Kuhlia marginata (17), K. rupestris (21), Stiphodon rutilaureus
(7) and Belobranchus belobranchus (5).
F. Site 49. Lower section of Wainasa Creek. Physical water parameters measured: current speed
0.1 ms-1, temperature 23.7 0C, DO (no reading), turbidity 100 %, conductivity 60.7 S, salinity 0
ppt and pH 6.3. Creek measurements: maximum width 5 m, maximum depth 0.6 m, length
sampled 10 m. Finfish species caught and observed: Anguilla marmorata (3), Gymnothorax
polyuranodon (2), Kuhlia marginata (12), K. rupestris (15), Awaous ocellaris (7), Sicyopterus
lagocephalus (3), Stiphodon rutilaureus (5) and Belobranchus belobranchus (4).
G. Site 50. Upper section of Wainivalau River. Physical water parameters measured: current
speed 2.5 ms-1, temperature 23.7 0C, DO (no reading), turbidity100 %, conductivity 48 S,
salinity 0 ppt and pH 6.3. River measurements: maximum width 5 m, maximum depth 0.3 m,
length sampled 10 m. Finfish species caught and observed: Anguilla marmorata (7), Kuhlia
marginata (9), K. rupestris (14), Awaous ocellaris (9), Sicyopterus lagocephalus (5), Stiphodon
rutilaureus (9) and Belobranchus belobranchus (6). Crustacean species caught: Macrobrachium
rosenbergii (8).
H. Site 51. Lower section of Waibasaga Creek. Physical water parameters measured: current
speed 0.1 ms-1, temperature 23.8 0C, DO (no reading), turbidity 80 %, conductivity 66.5 S,
salinity 0 ppt and pH 6.3. Creek measurements: maximum width 5 m, maximum depth 1.5 m,
length sampled 10 m. Finfish species caught and observed: Anguilla marmorata (5), Kuhlia
marginata (10), K. rupestris (7), Awaous ocellaris (3) and Stiphodon rutilaureus (3).
I. Site 53. Waiveikovi Creek. Physical water parameters measured: current speed 1.0 ms-1,
temperature17.3 0C, DO (no reading), turbidity 100 %, conductivity 46 S, salinity 0 ppt and pH
6.2. Creek measurements: maximum width 2 m, maximum depth 0.5 m, length sampled 100 m.
Finfish species caught: Anguilla marmorata (2). Crustacean species caught: Caridina nudirostris
(abundant).
J. Site 54. Wabu Creek (Wabu watershed). Physical water parameters measured: current speed
1.2 ms-1, temperature 17.9 0C, DO (no reading), turbidity 100 %, conductivity 43.7 S, salinity 0
ppt and pH 6.2. Creek measurements: maximum width 4 m, maximum depth 1.2 m, length
163
sampled 100 m. Finfish species caught: Anguilla marmorata (2). Crustacean species caught:
Caridina nudirostris (abundant).
K. Site 60. Wairoko Creek. Physical water parameters measured: current speed 1.2 ms-1,
temperature 23.6 0C, DO (no reading), turbidity 30 %, conductivity 73.5 S, salinity 0 ppt and pH
6.5. Creek measurements: maximum width 5 m, maximum depth 1.3 m, length sampled 50 m.
Finfish species caught: Anguilla marmorata (1), Sicyopterus lagocephalus (5) and Stiphodon
rutilaureus (1). Crustacean species caught: Macrobrachium caledonicum (1), Macrobrachium lar
(3) and Macrobrachium rosenbergii (1). Molluscan species caught: Melanoides tuberculata (9).
Insecta species caught: millipod sp. (1).
L. Site 61. Oxbow pools along Wailotua River. Physical water parameters measured: current
speed 0.5 ms-1, temperature 25.5 0C, DO (no reading), turbidity 70 %, conductivity 158 S,
salinity 0 ppt and pH 6.5. River measurements: maximum width 10 m, maximum depth 1.0 m,
length sampled 25 m. Finfish species caught: Barbonymus gonionotus (10), Poecilia reticulata
(190), Awaous ocellaris (3). Glossogobius sp. 1 (1) and Eleotris fusca (1). Crustacean species
caught: Macrobrachium lar (16), Palaemon debilis (20) and Caridina nudirostris (abundant).
Molluscan species caught: Melanoides arthurii (2), Thiara scabra (8) and T. terpsichore (9).
L. Site 62. Mid Wailotua River. Physical water parameters measured: current speed 0.3 ms-1,
temperature 24.5 0C, DO (no reading), turbidity 70 %, conductivity 147.4 S, salinity 0 ppt and
pH 6.4. River measurements: maximum width 10 m, maximum depth1.5 m, length sampled 40 m.
Finfish species caught: Anguilla marmorata (1), Gymnothorax polyuranodon (3), Poecilia
reticulata (61), Kuhlia marginata (21), K. rupestris (28), Caranx sexfasciatus (1), Oreochromis
mossambicus (1), Bunaka gyrinoides (1) and Giurus margaritacea (1). Crustacean species
caught: Macrobrachium lar (4).
R. Site 63. Upper Ba River. Physical water parameters measured: current speed 1 ms-1,
temperature 21.4 0C, DO 6.7, turbidity100 %, conductivity 83.8 S, salinity 0 ppt and pH 7.8.
River measurements: maximum width 9 m, maximum depth 0.5 m, length sampled 15 m. Finfish
species caught and observed: Anguilla marmorata (1), Gambusia affinis (13), K. rupestris (4)
and Oreochromis mossambicus (3). Crustacean species caught: Caridina fijiana (abundant) and
molluscan species collected: Melanoides tuberculata (abundant) and M. lutosa (5).
164
S. Site 64. Nukunuku Creek Physical water parameters measured: current speed 1.2 ms-1,
temperature 20.9 0C, DO 7.1 mg/L turbidity100 %, conductivity 56.3 S, salinity 0 ppt and pH
7.5. River measurements: maximum width 12 m, maximum depth 0.5 m, length sampled 20 m.
Finfish species caught and observed: Anguilla marmorata (3), Gambusia affinis (2),
Oreochromis mossambicus (4), Awaous guamensis (3) and Sicyopterus lagocephalus (1).
Crustacean species caught: Caridina sp. 1 (abundant), Macrobrachium equidens (2), M.
rosenbergii (2), and molluscan species collected: Melanoides tuberculata (3) and M. lutosa (5).
T. Site 65. Nadala Creek Physical water parameters measured: current speed 1 ms-1, temperature
21.7 0C, DO 7.13 mg/L turbidity100 %, conductivity 56.4 S, salinity 0 ppt and pH 6.9. River
measurements: maximum width 6 m, maximum depth 0.5 m, length sampled 25 m. Finfish
species caught and observed: Anguilla marmorata (1), Gambusia affinis (7), Oreochromis
mossambicus (2), Awaous guamensis (2) and Sicyopterus lagocephalus (4). Crustacean species
caught: Caridina sp. 1 (abundant) and molluscan species collected: Melanoides tuberculata (3).
U. Site 66. Qaliwana Creek. Physical water parameters measured: current speed 0.3 – 1 ms-1,
temperature 21.1 0C, DO 7.13, turbidity 100 %, conductivity 54.7 S, salinity 0 ppt and pH 6.94.
River measurements: maximum width 5 m, maximum depth 0.3 m, length sampled 10 m. Finfish
species caught and observed: Anguilla marmorata (2), Gambusia affinis (5), Oreochromis
mossambicus (3), Awaous guamensis (3) and Sicyopterus lagocephalus (2). Crustacean species
caught: Macrobrachium rosenbergii (8). Crustacean species caught: Caridina fijiana (11),
Caridina sp. 1 (8), and molluscan species collected: Melanoides tuberculata (7) and M. lutosa
(5).
M. Site 22. Mouth of Tavoro Creek. Physical water parameters measured: current speed 0.1 ms-1,
temperature 27.9 0C, DO 6. 5 mg/L, turbidity 50 %, conductivity 22.8 S, salinity 30.8 ppt and
pH 6.2. Creek measurement: maximum width 30 m, maximum depth 2.5 m, length sampled 50 m.
Finfish species caught: Terapon jarbua (1), Leiognathus fasciatus (1), Liza subviridis (1),
Lutjanus fulvus (1), L. russellii (1), Periophthalmus kalolo (1) and Siganus vermiculatus (1).
M. Site 23. Tavoro Creek, 50 m away from mouth. Physical water parameters measured: current
speed 0.1 ms-1, temperature 25.8 0C, DO 6.6 mg/L, turbidity 40 %, conductivity 36.5 S, salinity
2.8 ppt and pH 6.2. Creek measurements: maximum width 25 m, maximum depth 1.0 m, length
165
sampled 50 m. Finfish species caught: Mesopristes kneri (1), Lutjanus argentimaculatus (1), L.
russellii (1), Plectorhinchus gibbosus (2), Monodactylus argenteus (1) and Diodon liturosus (1).
M. Site 24. Tavoro Creek, 50 m away from Site 23 and 10 m downstream from a bridge. Physical
water parameters measured: current speed 0.1 ms-1, temperature 27.2 0C, DO 6.1 mg/L, turbidity
40 %, conductivity 38 S, salinity 2.5 ppt and pH 6.2. Creek measurements: maximum width 20
m, maximum depth 1.5m, length sampled 50 m. Finfish species caught: Terapon jarbua (1) and
Lutjanus russellii (1).
M. Site 25a. Tavoro Creek, a metre upstream of bridge. Physical water parameters measured:
current speed 0.1 ms-1, temperature 23.8 0C, DO 7.8 mg/L, turbidity 100 %, conductivity 53.9 S,
salinity 0 ppt and pH 6.3. Creek measurements: maximum width 16 m, maximum depth 0.5 m,
length sampled 29 m. Finfish species caught: Kuhlia marginata (2), K. munda (3), K. rupestris
(3) Eleotris melanosoma (11) and Stiphodon rutilaureus (1).
M. Site 25b. Tavoro Creek, a metre upstream of bridge. Physical water parameters measured:
current speed 0.1 ms-1, temperature 28.2 0C, DO 7.2 mg/L, turbidity 100 %, conductivity 43.8 S,
salinity 2.9 ppt and pH 6.3. Creek measurements: maximum width 16 m, maximum depth 0.5 m,
length sampled 29 m. Finfish species caught: Ambassis miops (3), Kuhlia marginata (5),
Redigobius bikolanus (2) and Eleotris melanosoma (5).
M. Site 26a. Tavoro Creek, 50 m upstream of bridge. Physical water parameters measured:
current speed 0.2 ms-1, temperature 23.6 0C, DO 6.8 mg/L, turbidity 100 %, conductivity 44.3 S,
salinity 0 ppt and pH 6.3. Creek measurements: maximum width 18 m, maximum depth 0.5 m,
length sampled 17 m. Finfish species caught: Anguilla marmorata (1), Zenarchopterus dispar (3),
Microphis brachyurus brachyurus (1), Ambassis miops (8), Kuhlia marginata (1) and Eleotris
melanosoma (5).
M. Site 26b. Tavoro Creek, 50 m upstream of bridge. Physical water parameters measured:
current speed 0.1 ms-1, temperature 27.2 0C, DO 7.0 mg/L, turbidity 100 %, conductivity 66.1 S,
salinity 0 ppt and pH 6.3. Creek measurements: maximum width 6 m, maximum depth 0.5, length
sampled 26 m. Finfish species caught: Glossogobius sp. 1 (1), Stiphodon rutilaureus (3) and
Eleotris melanosoma (15).
166
M. Site 27a. Tavoro Creek, 100 m upstream of bridge. Physical water parameters measured:
current speed 0.1 ms-1, temperature 23.6 0C, DO 5.3 mg/L, water turbidity 100 %, conductivity
41.5 S, salinity 0 ppt and pH 6.3. Creek measurements: maximum width 18 m, maximum depth
0.6 m, length sampled 22 m. Finfish species caught: Anguilla marmorata (3), Microphis
brachyurus brachyurus (1), Kuhlia marginata (1), K. munda (1), Stiphodon rutilaureus (1),
Eleotris melanosoma (15) and Giurus margaritacea (4).
M. Site 27b. Tavoro Creek, 100 m upstream of bridge. Physical water parameters measured:
current speed 0.02 ms-1, temperature 27.2 0C, DO 7.0 mg/L, turbidity 100 %, conductivity 66.1
S, salinity 0 ppt and pH 6.3. Creek measurements: maximum width 9 m, maximum depth 0.6 m,
length sampled 22 m. Finfish species caught: Anguilla marmorata (2), Ambassis miops (1),
Kuhlia rupestris (1), Redigobius leveri (2), Stiphodon rutilaureus (1), Stiphodon sp. 1 (1),
Eleotris melanosoma (15) and Giurus margaritacea (3).
M. Site 28a. Tavoro Creek, 100 m upstream of Site 27. Physical water parameters measured:
current speed 0.02 ms-1, temperature 23.8 0C, DO 8.5 mg/L, turbidity 100 %, conductivity 66.1
S, salinity 0 ppt and pH 6.3. Creek measurements: maximum width 9 m, maximum depth 0.6 m,
length sampled 28 m. Finfish species caught: Anguilla marmorata (10), Neoconger tuberculatus
(1), Gymnothorax polyuranodon (3), Kuhlia marginata (5), Eleotris fusca (3), Giurus
margaritacea (1), Psammogobius biocellatus (2) and Stenogobius sp. 1 (1)
M. Site 28b. Tavoro Creek, 100 m upstream of Site 27. Physical water parameters measured:
current speed 0.02 ms-1, temperature 24.3 0C, DO 8.1 mg/L, turbidity 40 %, conductivity 33.3 S,
salinity 0 ppt and pH 6.2. Creek measurements: maximum width 6 m, maximum depth 0.4 m,
length sampled 25 m. Finfish species caught: Anguilla marmorata (9), Redigobius leveri (3),
Sicyopterus lagocephalus (4), Stiphodon rutilaureus (3), Belobranchus belobranchus (5), Eleotris
fusca (2), E. melanosoma (14) and Hypseleotris guentheri (2).
M. Site 29a. Tavoro Creek, at confluence of Nakabuka and Tavoro creeks. Physical water
parameters measured: current speed 0.4 ms-1, temperature 23.6 0C, DO 8.1 mg/L, turbidity 100 %,
conductivity 42.3 S, salinity 0 ppt and pH 6.3. Creek measurements: maximum width 10 m,
maximum depth 0.6 m, length sampled 25 m. Finfish species caught: Microphis brachyurus
brachyurus (1), Kuhlia marginata (2), K. munda (1), K. rupestris (5), Eleotris fusca (6) and
Hypseleotris guentheri (2).
167
M. Site 29b. Tavoro Creek, at confluence of Nakabuka and Tavoro creeks. Physical water
parameters measured: current speed 0.1 ms-1, temperature 26.4 0C, DO 6.6 mg/L, turbidity 100 %,
conductivity 48.3 S, salinity 0 ppt and pH 6.3. Creek measurements: maximum width 10 m,
maximum depth 0.5 m, length sampled 25 m. Finfish species caught: Redigobius leveri (2),
Sicyopterus lagocephalus (1), Stiphodon rutilaureus (2), Eleotris melanosoma (1), Giurus
margaritacea (1) and Hypseleotris guentheri (1).
M. Site 29c. Tavoro Creek, at confluence of Nakabuka and Tavoro creeks. Physical water
parameters measured: current speed 0.1 ms-1, temperature 24.7 0C, DO 7.7 mg/L, turbidity 40 %,
conductivity 32.6 S, salinity 0 ppt and pH 6.3. Creek measurements: maximum width10 m,
maximum depth 0.6 m, length sampled 25 m. Finfish species caught: Microphis brevidorsalis (1),
Kuhlia marginata (4), K. munda (3), K. rupestris (2), Caranx sexfasciatus (1), Stenogobius sp. 1
(1), Stiphodon rutilaureus (1), Eleotris fusca (6), Giurus margaritacea (1) and Hypseleotris
guentheri (3).
M. Site 30a. Tavoro Creek, 100 m upstream of Site 29. Physical water parameters measured:
current speed 0.2 ms-1, temperature 23.5 0C, DO 5.4 mg/L, turbidity 100 %, conductivity 40.7 S,
salinity 0 ppt and pH 6.2. Creek measurements: maximum width 9 m, maximum depth 0.6 m,
length sampled 29 m. Finfish species caught: Anguilla marmorata (2), Kuhlia marginata (3), K.
rupestris (3), Awaous ocellaris (1), Eleotris fusca (15), E. melanosoma (3) and Hypseleotris
guentheri (5).
M. Site 30b. Tavoro Creek, 100 m upstream of Site 29. Physical water parameters measured:
current speed 0.1 ms-1, temperature 24.7 0C, DO 7.7 mg/L, turbidity 40 %, conductivity 32.6 S,
salinity 0 ppt and pH 6.3. Creek measurements: maximum width 9 m, maximum depth 0.5 m,
length sampled 20 m. Finfish species caught: Kuhlia marginata (1), Caranx sexfasciatus (1),
Stenogobius sp. 1 (1), Stiphodon rutilaureus (3), Eleotris melanosoma (3) and Giurus
margaritacea (2).
M. Site 31a. Tavoro Creek, 100 m downstream from waterfall pool. Physical water parameters
measured: current speed 0.2 ms-1, temperature 22.6 0C, DO 8.6 mg/L, turbidity 100 %,
conductivity 36.4 S, salinity 0 ppt and pH 6.3. Creek measurements: maximum width 14 m,
maximum depth 1.2 m, length sampled 3.0 m. Finfish species caught: Anguilla marmorata (1),
168
Schismatogobius vitiensis (1), Stenogobius sp. 1 (1), Belobranchus belobranchus (2), Eleotris
fusca (1) and E. melanosoma (7).
M. Site 31b. Tavoro Creek, 100 m downstream from waterfall pool. Physical water parameters
measured: current speed 0.2 ms-1, temperature 26.5 0C, DO 7.2 mg/L, turbidity 100 %,
conductivity 46.7 S, salinity 0 ppt and pH 6.3. Creek measurements: maximum width 14 m,
maximum depth 1.2 m, length sampled 30 m. Finfish species caught: Kuhlia marginata (1),
Glossogobius sp. 1 (1), Redigobius leveri (1), Sicyopterus lagocephalus (2) Stenogobius sp. 1 (2),
Belobranchus belobranchus (5), Eleotris fusca (1) and Hypseleotris guentheri (3).
M. Site 31c. Tavoro Creek, 100 m downstream from waterfall pool. Physical water parameters
measured: current speed 0.1 ms-1, temperature 25.3 0C, DO 7.4 mg/L, turbidity 60 %,
conductivity 36.5 S, salinity 0 ppt and pH 6.2. Creek measurements: maximum width 10 m,
maximum depth 0.3 m, length sampled 50 m. Finfish species caught: Kuhlia marginata (3), K.
rupestris (1), Stiphodon sp. 2 (7), Stiphodon rutilaureus (5), Eleotris fusca (7) and Hypseleotris
guentheri (1).
M. Site 32a. Tavoro Creek, 50 m downstream of waterfall. Physical water parameters measured:
current speed 0.02 ms-1, temperature 23 0C, DO 7.1 mg/L, turbidity 100 %, conductivity 36.8 S,
salinity 0 ppt and pH 6.2. Creek measurements: maximum width 6 m, maximum depth 0.4 m,
length sampled 14 m. Finfish species caught: Anguilla marmorata (1), Kuhlia marginata (2),
Eleotris melanosoma (1) and Giurus margaritacea (1)
M. Site 32b. Tavoro Creek, 50 m downstream of waterfall. Physical water parameters measured:
current speed 0.1 ms-1, temperature 25.2 0C, DO 7. 9 mg/L, turbidity 60 %, conductivity 36.6 S,
salinity 0 ppt and pH 6.1. Creek measurements: maximum width 10 m, maximum depth 0.4 m,
length sampled 50 m. Finfish species caught: Kuhlia marginata (2), Redigobius leveri (1) and
Eleotris fusca (1).
M. Site 33a. Tavoro Creek, waterfall pool. Physical water parameters measured: current speed
0.3 ms-1, temperature 23.2 0C, DO 8.3 mg/L, turbidity 100 %, conductivity 37.2 S, salinity 0 ppt
and pH 6.3. Creek measurements: maximum width 9 m, maximum depth 3.0 m, length sampled
14 m. Finfish species caught: Kuhlia marginata (2), K. rupestris (1), Redigobius leveri (1),
Stenogobius sp. 1 (1), Stiphodon sp. 2 (2) and Stiphodon rutilaureus (1).
169
M. Site 33b. Tavoro Creek, waterfall pool. Physical water parameters measured: current speed
0.1 ms-1, temperature 25.3 0C, DO 7.4 mg/L, turbidity 60 %, conductivity 36.5 S, salinity 0 ppt
and pH 6.2. Creek measurements: maximum width 9 m, maximum depth 2.6 m, length sampled
14 m. Finfish species caught: Microphis leiaspis (1), Kuhlia marginata (2), K. rupestris (1),
Eleotris fusca (1), Belobranchus belobranchus (1), Glossogobius sp. 1 (1), Redigobius leveri (1),
Sicyopterus lagocephalus (1), Stiphodon rutilaureus (3) and Stiphodon sp. 2 (2).
M. Site 34a. Tavoro Creek, above Tavoro Falls, 400m from edge. Physical water parameters
measured: current speed 0.4 ms-1, temperature 23.2 0C, DO 6.7 mg/L, turbidity 100 %,
conductivity 39.3 S, salinity 0 ppt and pH 6.2. Creek measurements: maximum width 8 m,
maximum depth 1.2m, length sampled 7 m. Crustacean species caught: Caridina nudirostris
(abundant).
M. Site 34b. Tavoro Creek, above Tavoro Falls, 400m from edge. Physical water parameters
measured: current speed 0.1 ms-1, temperature 24.8 0C, DO 7.2 mg/L, turbidity 100 %,
conductivity 44 S, salinity 0 ppt and pH 6.1. Creek measurements: maximum width 8 m,
maximum depth 1.2 m, length sampled 28 m. Finfish species caught: Anguilla marmorata (2) and
Sicydiinae: new genus, new species (1). Crustacean species caught: Caridina nudirostris
(abundant).
N. Site 35. Lower Navaka Creek. Physical water parameters measured: current speed 0.1 ms-1,
temperature 28.7 0C, DO 8.8 mg/L, turbidity 100 %, conductivity 56.4 S, salinity 0 ppt and pH
6.2. Creek measurements: maximum width 12 m, maximum depth 0.4 m, length sampled 20 m.
Finfish species caught: Anguilla marmorata (2), Kuhlia marginata (1), K. munda (1), K. rupestris
(4), Redigobius leveri (1), Sicyopterus lagocephalus (4), Stiphodon rutilaureus (1), Belobranchus
belobranchus (1), Eleotris fusca (3) and E. melanosoma (5).
N. Site 36. Upper Navaka Creek. Physical water parameters measured: current speed 0.1 ms-1,
temperature 25.7 0C, DO 7.0 mg/L, turbidity 100 %, conductivity 55 S, salinity 0 ppt and pH
6.2. Creek measurements: maximum width 10 m, maximum depth 0.8 m, length sampled 40 m.
Finfish species caught: Kuhlia marginata (3), K. munda (1), K. rupestris (5), Redigobius leveri
(4), Sicyopterus lagocephalus (3), Sicyopus (c.f. Juxtastiphodon) sp. (1), Stiphodon rutilaureus
(13) and Stiphodon sp. 2 (4).
170
O. Site 37. Mouth of Wailevu Creek. Physical water parameters measured: current speed
0.1 ms-1, temperature 28.8 0C, DO 6.5 mg/L, turbidity 100 %, conductivity 26.3 S, salinity 29.1
ppt and pH 6.2. Creek measurements: maximum width 7 m, maximum depth 0.6 m, length
sampled 30 m. Finfish species caught/observed: Microphis brachyurus brachyurus (2), M.
brevidorsalis (1), Ambassis miops (6), Terapon jarbua (1), Kuhlia munda (8), Caranx
sexfasciatus (1), Lutjanus fulvus (3), and Sicyopterus lagocephalus (1).
O. Site 38. Mid Wailevu Creek. Physical water parameters measured: current speed 0.1 ms-1,
temperature 26.1 0C, DO 7.1 mg/L, turbidity 100 %, conductivity 46.9 S, salinity 0 ppt and pH
6.1. Creek measurements: maximum width 8 m, maximum depth 0.6 m, length sampled 10 m.
Finfish species caught: Anguilla marmorata (3), Kuhlia marginata (1), K. munda (1), K. rupestris
(1), Redigobius leveri (2), Sicyopterus lagocephalus (1), Stiphodon rutilaureus (2), Belobranchus
belobranchus (4), Eleotris melanosoma (1), Giurus hoedti (1) and Hypseleotris guentheri (1).
Molluscan species collected: Clithon corona (2) and C. pritchardi (1).
O. Site 39. Wailevu Creek (side pool). Small tributary to Wailevu Creek. Physical water
parameters measured: current speed 0.1 ms-1, temperature 28.6 0C, DO 6.0 mg/L, turbidity 100 %,
conductivity 46.7 S, salinity 0 ppt and pH 6.3. Creek measurements: maximum width 5 m,
maximum depth 0.5 m, length sampled 3 m. Finfish species caught: Sicyopus zosterophorum (1)
Stiphodon sp. 2 (1) and Stiphodon rutilaureus (10).
O. Site 40. Upper Wailevu Creek. Physical water parameters measured: current speed 0.1 ms-1,
temperature 28.4 0C, DO 7.1 mg/L, turbidity 100 %, conductivity 43.5 S, salinity 0 ppt and pH
6.3. Creek measurements: maximum width 6 m, maximum depth 0.7 m, length sampled 20 m.
Finfish species caught: Awaous ocellaris (1), Redigobius leveri (2), Sicyopterus lagocephalus (4),
Stiphodon sp. 1 (1), Stiphodon sp. 2 (10) and Stiphodon rutilaureus (11). Molluscan species
collected: Septaria sanguisuqa (1), S. macrocephala (1) and S. bougainvillei (1).
P. Site 41. Lower Waitavala Creek. Physical water parameters measured: current speed 0.1 ms-1,
temperature 25 0C, DO 7.8 mg/L, turbidity 100 %, conductivity 62.3 S, salinity 0 ppt and pH
6.2. Creek measurements: maximum width 3.8 m, maximum depth 0.2 m, length sampled 70 m.
Finfish species caught: Lentipes kaaea (12), Sicyopterus lagocephalus (1), Sicyopus (c.f.
Juxtastiphodon) sp. (9), Stiphodon rutilaureus (31) Stiphodon sp. 1 (8), Stiphodon sp. 2 (18) and
Sicydiinae: new genus, new species (1).
171
P. Site 42. Waitavala Creek, pool at base of water slide. Physical water parameters measured:
current speed 0.1 ms-1, temperature 26.7 0C, DO 7.1 mg/L, turbidity 100 %, conductivity 63.5 S,
salinity 0 ppt and pH 6.2. Creek measurements: maximum width 5 m, maximum depth 1.7 m,
length sampled 12 m. Finfish species caught: Anguilla marmorata (1) and Sicyopus
zosterophorum (2).
Q. Site 55. Upper section of Waisali Creek. Physical water parameters measured: current speed
0.5 ms-1, temperature 25.2 0C, DO (no reading), turbidity 100 %, conductivity 73.5 S, salinity 0
ppt and pH 6.5. River measurements: maximum width 12 m, maximum depth 0.6 m, length
sampled 35 m. Finfish species caught: Anguilla marmorata (1), Kuhlia marginata (11), K.
rupestris (7), Eleotris fusca (1), Redigobius leveri (1), Sicyopterus lagocephalus (5), Stiphodon
sp. 1 (1). Crustacean species caught: Macrobrachium lar (6) and Macrobrachium sp. 1 (3).
Molluscan species caught: Septaria suffreni (4).
Q. Site 56. Confluence of Waisali and Savuqoro Creeks. Physical water parameters measured:
current speed 0.4 ms-1, temperature 25.8 0C, DO (no reading), turbidity 100 %, conductivity 86.4
S, salinity 0 ppt and pH 6.4. River measurements: maximum width 10 m, maximum depth 1.0
m, length sampled 25 m. Finfish species caught: Anguilla marmorata (1), Kuhlia marginata (8),
K. rupestris (9), Sicyopterus lagocephalus (3). Crustacean species caught: Macrobrachium lar (9)
and Macrobrachium sp. 1 (5).
Q. Site 57. Lower Savuqoro Creek. Physical water parameters measured: current speed 0.1 ms-1,
temperature 25.6 0C, DO (no reading), turbidity 100 %, conductivity 72.6 S, salinity 0 ppt and
pH 6.4. Creek measurements: maximum width 7 m, maximum depth 0.8 m, length sampled 8 m.
Finfish species caught/observed: Kuhlia marginata (5), K. rupestris (2), Sicyopterus lagocephalus
(2) and Sicyopus zosterophorum (3). Crustacean species caught/observed: Macrobrachium lar
(abundant) and Macrobrachium sp. 1 (abundant).
Q. Site 58. Savuqoro Creek, below waterfall. Physical water parameters measured: current speed
0.01 ms-1, temperature 25.6 0C, DO (no reading), turbidity 100 %, conductivity 70.9 S, salinity 0
ppt and pH 6.4. Creek measurements: maximum width 7 m, maximum depth 0.8 m, length
sampled 9 m. Finfish species caught: Sicyopterus lagocephalus (5) and Sicyopus zosterophorum
(4). Crustacean species caught/observed: Macrobrachium lar (abundant) and Macrobrachium sp.
1 (abundant).
172
Q. Site 59. Savuqoro Creek, above waterfall. Physical water parameters measured: current speed
0.1 ms-1, temperature 25.2 0C, DO reading mg/L, turbidity 100 %, conductivity 60.7 S, salinity 0
ppt and pH 6.3. Creek measurements: maximum width 7 m, maximum depth 0.2 m, length
sampled 9 m. Finfish species Sicyopterus lagocephalus (7) and Sicyopus zosterophorum (11).
Crustacean species caught/observed: Macrobrachium lar (abundant) and Macrobrachium sp. 1
(abundant).
173
Appendix 2. Fish list of species collected from the 66 sites during this study. The alphabetically
letters are denoting the collection sites from this study as in Figure 2.1 and Figure 2.2.
Family Species Fish species present in the following water system
USP Collection Number:
Anguillidae Anguilla marmorata Quoy & Gaimard, 1824
A,B,C,D,E,F,G,H,I, J, K, L,M,N,O,P,Q, R,S,T,U
5220
Anguilla megastoma Kaup, 1856
A 5219, 5221
Moringuidae Moringua abbreviata (Bleeker, 1863)
A 5222
Neoconger tuberculatus(Castle, 1965)
M CAS 217641
Muraenidae Gymnothorax polyuranodon (Bleeker, 1853)
A,B,E,F,L,M 5223
Ophichthidae Lamnostoma kampeni (Weber & de Beaufort, 1916)
A,B 5224 and CAS 217643
Yirrkala gjellerupi (Weber & de Beaufort, 1916)
A 5225 and CAS 217642
Clupeidae Sardinella fijiense (Fowler & Bean 1923)
A 5441
Engraulidae Stolephorus indicus (van Hasselt 1823)
A 5226
Cyprinidae Barbonymus gonionotus (Bleeker, 1850)
L 5312
Hemiramphidae Zenarchopterus dispar (Valenciennes in Cuvier and Valenciennes, 1847)
A,M 5227
Poeciliidae Gambusia affinis (Baird & Girard 1853)
R,S,T,U 5451
Poecilia reticulata Peters 1859
A,L 5234, 5313
Syngnathidae Microphis brachyurus brachyurus (Bleeker, 1853)
A,M,O 5229
Microphis brevidorsalis (de Beaufort, 1913)
M,O 5228, 5230
Microphis leiaspis (Beeker, 1853)
A,M 5231
Microphis retzii (Bleeker, 1856)
A 5232
Scorpaenidae Tetraroge niger (Cuvier, 1829)
A 5233
Ambassidae Ambassis miops Günther 1872
A,M,O 5235
Teraponidae Mesopristes kneri (Bleeker, 1876)
A,M 5236
174
Terapon jarbua (Forsskål, 1775)
M, O -
Kuhliidae Kuhlia marginata (Cuvier, 1829)
A,B,C,D,E,F,G,H, L,M, N, O, Q 5237
Kuhhia munda (De Vis, 1884)
A,M,N,O 5238
Kuhlia rupestris (Lacepède, 1802)
A,B,C,D,E,F,G,H, L, M, N, O, Q,R 5239
Apogonidae Apogon amboinensis (Bleeker, 1853)
A 5240
Apogon lateralis Valenciennes, 1832
A 5241
Carangidae Caranx sexfasciatus Quoy & Gaimard, 1825
A,L,M,O 5242
Leiognathidae Gazza minuta (Bloch 1795) A 5442 Leiognathus equulus (Forsskål, 1775)
A 5243, 5244
Leiognathus fasciatus (Lacepède, 1803)
M 5245
Leiognathus splendens (Cuvier 1829)
A 5443
Lutjanidae Lutjanus argentimaculatus(Forsskål, 1775)
A,M 5246
Lutjanus fulvus (Forster, 1801)
A,M,O 5247
Lutjanus russellii (Bleeker, 1849)
A,M 5248
Gerreidae Gerres longirostris (Lacepède, 1801)
A 5249
Haemulidae Plectorhinchus gibbosus Lacepède, 1802
M 5250
Mullidae Upeneus sulphureus Cuvier in Cuvier & Valenciennes 1829
A 5444
Upeneus vittatus (Forsskål, 1775)
M 5251
Monodactylidae Monodactylus argenteus (Linnaeus, 1758)
A,M 5252
Scatophagidae Scatophagus argus (Linnaeus, 1766)
A 5253
Cichlidae Oreochromis mossambicus (Peters, 1852)
B,L,R,S,T,U 5284
Mugilidae Liza macrolepis (Smith, 1846)
A 5445
Liza subviridis (Valenciennces, in Cuvier & Valenciennes, 1836)
A,M 5254
175
Valamugil buchanani (Bleeker, 1854)
A 5446
Valamugil cunnesius (Valenciennces, in Cuvier & Valenciennes, 1836)
A 5441
Valamugil engeli (Bleeker ,1858)
A 5255
Sphyraenidae Sphyraena obtusata Cuvier in Cuvier & Valenciennes 1829
A 5448
Gobiidae -Gobiinae Psammogobius biocellatus
(Valenciennces, in Cuvier & Valenciennes, 1837)
A,M 5260 and AMS 1. 43172 - 001
-Gobionellinae Awaous guamensis (Valenciennces, in Cuvier & Valenciennes, 1837)
S,T,U 5452
Awaous ocellaris (Broussonet, 1792)
A,C,D,F,G,H,L,M,O 5256
Glossogobius sp. 1 A,L,M 5257 and AMS 1. 43171- 001
Redigobius bikolanus (Herre, 1927)
M 5261
Redigobius leveri (Fowler, 1943)
A,M,N,O.Q 5262
Schismatogobius vitiensisJenkins and Boseto, 2005
A,B,C,M 5120
Stenogobius sp. 1 A,B,M 5268 Oxudercinae Periophthalmus kalolo
Lesson 1831M 5259
-Sicydiinae Lentipes kaaea Watson, Keith and Marquet, 2002
P 5258
Sicyopterus lagocephalus (Lacepède 1800)
A,B,C,D,F,G,K,M,N,O,P,Q,S,T,U 5263, 5264
Sicyopus zosterophorum (Bleeker, 1856-57)
O,P,Q 5265
Sicyopus (c.f. Juxtastiphodon) sp.
N,P 5266
New genus, new species M,P 5267
Stiphodon rutilaureus Watson, 1996
A, D,E,F,G,H,M,N,O,P 5269
Stiphodon sp. 1 A,M,O,P,Q 5271 Stiphodon sp. 2 A,M,N,O,P 5270
Eleotridae - Butinae Bostrychus sinensis
Lacepède 1801A 5273
Ophiocara porocephala (Valenciennces, in Cuvier & Valenciennes, 1837)
A 5280 and AMS 1. 43173 - 001
176
- Eleotrinae Belobranchus belobranchus (Valenciennces, in Cuvier & Valenciennes, 1837)
C,E,F,G,M,N,O 5272
Bunaka gyrinoides (Bleeker,1853)
A,L 5274
Eleotris fusca (Forster, 1801)
A,L,M,N,Q 5275
Eleotris melanosoma Bleeker, 1852
A,B,M,N,O 5276
Giurus hoedti (Bleeker,1854)
A,O 5277
Giurus margaritacea (Valenciennces, in Cuvier & Valenciennes, 1837)
A,L,M 5278, 5450
Hypseleotris guentheri (Bleeker, 1875)
A,M,O 5279
Siganidae Siganus vermiculatus (Valenciennces, in Cuvier & Valenciennes, 1837)
A,M 5281
Tetraodontidae Arothron reticularis (Bloch & Schneider, 1801)
A 5282
Diodontidae Diodon liturosus Shaw, 1804
M 5283
177
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ae
Amba
ssis
mio
ps
Wai
sai C
reek
Se
p-05
Je
nkin
s 200
4
Am
bass
idae
Am
bass
is u
rota
enia
Fi
ji Is
land
s
Fo
wle
r 195
9: 5
86
Am
bass
idae
Am
bass
is v
aiva
sens
is
Riv
er fl
owin
g in
to S
uva
Har
bour
M
ar-2
9
CA
S 24
835
Am
bass
idae
Am
bass
is v
aiva
sens
is
Bur
eta
Riv
er.
Mar
-29
Fo
wle
r 195
9
Am
bass
idae
Am
bass
is v
aiva
sens
isN
aiko
roko
ro C
reek
R
yan
1980
Am
bass
idae
Am
bass
is v
aiva
sens
is
Suva
M
ar-2
9
CA
S 59
69
Ang
uilli
dae
Angu
illa
aust
ralis
K
anac
ea Is
land
Fo
wle
r 195
9; R
yan
1980
: 59;
Le
wis
and
Prin
g 19
86
Ang
uilli
dae
Angu
illa
aust
ralis
K
adav
u Is
land
Fo
wle
r 195
9; R
yan
1980
: 59;
Le
wis
and
Prin
g 19
86
Ang
uilli
dae
Angu
illa
aust
ralis
V
iti L
evu
Ege
1939
in B
eum
er 1
985
Ang
uilli
dae
Angu
illa
bico
lor b
icol
or
Fiji
Ege
1939
in B
eum
er 1
985
Ang
uilli
dae
Angu
illa
bico
lor b
icol
or
Fiji
Jenk
ins a
nd B
oset
o 20
03
Ang
uilli
dae
Angu
illa
mar
mor
ata
Wai
nika
vika
Cre
ek, t
rib o
f Nav
ua R
iver
Se
p-86
Lew
is a
nd P
ring
1986
Ang
uilli
dae
Angu
illa
mar
mor
ata
Nab
ukav
esi R
iver
, E L
ast R
iver
Se
p-86
47
-85
Lew
is a
nd P
ring
1986
178
Ang
uilli
dae
Angu
illa
mar
mor
ata
Suva
Fo
wle
r 195
9
Ang
uilli
dae
Angu
illa
mar
mor
ata
Upp
er R
ewa
Riv
er
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Ang
uilli
dae
Angu
illa
mar
mor
ata
Wai
man
u R
iver
D
ec-0
2
FIT
Col
lect
ions
200
2
Ang
uilli
dae
Angu
illa
mar
mor
ata
Con
fluen
ce o
f Wai
nivo
di a
nd W
aini
savu
levu
R
iver
May
-77
Inst
Nat
. Res
ourc
es =
IAS
Ang
uilli
dae
Angu
illa
mar
mor
ata
Nal
a V
illag
e (N
atew
a Pe
nisu
lar)
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3A
ngui
llida
eAn
guill
a m
arm
orat
aM
id-U
pper
Nak
awak
awa
Riv
er n
ear
Nak
awak
awa
Vill
age
Aug
-03
54-
112
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3A
ngui
llida
eAn
guill
a m
arm
orat
aM
id W
ainu
nu R
iver
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3A
ngui
llida
eAn
guill
a m
arm
orat
alo
wer
Wai
niko
ro R
iver
nea
r Nas
asa
Vill
age
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Ang
uilli
dae
Angu
illa
mar
mor
ata
Upp
er D
reke
ti R
iver
nea
r Sai
vou
Vill
age
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Ang
uilli
dae
Angu
illa
mar
mor
ata
Levu
ka T
own
Fow
ler 1
959
Ang
uilli
dae
Angu
illa
mar
mor
ata
Suva
A
pr-3
3
CA
S 55
94
Ang
uilli
dae
Angu
illa
mar
mor
ata
Nar
okor
okoy
awa
Cre
ek
Fow
ler 1
959
Ang
uilli
dae
Angu
illa
mar
mor
ata
Kad
avu
Isla
nd
Fow
ler 1
959
Ang
uilli
dae
Angu
illa
mar
mor
ata
Nai
rai I
slan
d
Fo
wle
r 195
9
Ang
uilli
dae
Angu
illa
mar
mor
ata
Suva
Eg
e 19
39 in
Beu
mer
198
5
Ang
uilli
dae
Angu
illa
mar
mor
ata
Ova
lau
Ege
1939
in B
eum
er 1
985
Ang
uilli
dae
Angu
illa
mar
mor
ata
Nar
okor
okoy
awa
Ege
1939
in B
eum
er 1
985
Ang
uilli
dae
Angu
illa
mar
mor
ata
Kan
davu
= K
adav
u
Fo
wle
r 195
9
Ang
uilli
dae
Angu
illa
mar
mor
ata
Nai
rai
Fow
ler 1
959
Ang
uilli
dae
Angu
illa
meg
asto
ma
Viti
Lev
u
Eg
e 19
39 in
Beu
mer
198
5
Ang
uilli
dae
Angu
illa
mar
mor
ata
Rew
a D
ealta
B
eum
er 1
985
Ang
uilli
dae
Angu
illa
mar
mor
ata
Loki
a (T
ribut
ry to
Rew
a)
Beu
mer
198
5
Ang
uilli
dae
Angu
illa
mar
mor
ata
Nuk
unik
ula
Cre
ek
Beu
mer
198
5
Ang
uilli
dae
Angu
illa
meg
asto
ma
Vun
idaw
a R
iver
B
eum
er 1
985
Ang
uilli
dae
Angu
illa
meg
asto
ma
Kan
athe
a =
Kan
acea
Fo
wle
r 195
9
Ang
uilli
dae
Angu
illa
meg
asto
ma
Nad
urul
oulo
u re
sear
ch st
atio
n po
nds
Sep-
01
W
etla
nds T
rain
ing
Col
lect
ions
200
1
Ang
uilli
dae
Angu
illa
obsc
ura
La
mi R
iver
M
ay-8
2
USN
M 0
0259
990
Ang
uilli
dae
Angu
illa
obsc
ura
W
aim
anu
Riv
er
Dec
-02
FI
T C
olle
ctio
ns 2
002
179
Ang
uilli
dae
Angu
illa
obsc
ura
Lo
kia
Cre
ek
QM
I.25
649
Ang
uilli
dae
Angu
illa
obsc
ura
D
obui
levu
R n
ear r
esea
rch
stat
ion
Sep-
86
38
Lew
is a
nd P
ring
1986
Ang
uilli
dae
Angu
illa
obsc
ura
N
adur
ulou
lou
rese
arch
stat
ion
pond
s Se
p-01
USP
495
3
Ang
uilli
dae
Angu
illa
obsc
ura
N
adur
ulou
lou
drai
nage
Se
p-86
Lew
is a
nd P
ring
1986
Ang
uilli
dae
Angu
illa
obsc
ura
To
toya
Isla
nd
Apr
82
U
SNM
002
5998
9
Ang
uilli
dae
Angu
illa
obsc
ura
M
id-U
pper
Nak
awak
awa
Riv
er n
ear
Nak
awak
awa
Vill
age
Aug
-03
85-
123
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3 A
ngui
llida
eAn
guill
a ob
scur
a
Wai
nika
i Cre
ek
QM
I.25
651
Ang
uilli
dae
Angu
illa
obsc
ura
Kan
acea
Isla
nd
Fow
ler 1
959
Ang
uilli
dae
Angu
illa
obsc
ura
Suva
Eg
e 19
39 in
Beu
mer
198
5
Ang
uilli
dae
Angu
illa
obsc
ura
Kan
athe
a =K
anac
ea Is
land
Eg
e 19
39 in
Beu
mer
198
5
Ang
uilli
dae
Angu
illa
obsc
ura
R
ewa
Del
ta
Beu
mer
198
5
Ang
uilli
dae
Angu
illa
obsc
ura
Loki
a (T
ribut
ory
to R
ewa
Riv
er)
Beu
mer
198
5
Ang
uilli
dae
Angu
illa
obsc
ura
Low
er R
ewa
Riv
er
Beu
mer
198
5
Ang
uilli
dae
Angu
illa
obsc
ura
Vun
idaw
a R
iver
B
eum
er 1
985
Ang
uilli
dae
Angu
illa
obsc
ura
Fish
erie
s sta
tion,
Lam
i
B
eum
er 1
985
Ang
uilli
dae
Angu
illa
sp.
Nad
i Riv
er
Ano
n 19
83 in
Beu
mer
198
5
Apo
goni
dae
Apog
on la
tera
lis
Naq
ara
Isla
nd
Jun
82
U
SNM
002
6249
9
Apo
goni
dae
Apog
on la
tera
lis
Kub
una
Cre
ek
May
-65
U
SNM
002
1238
8
Apo
goni
dae
Apog
on la
tera
lis
Suva
19
00
U
SNM
000
6573
4
Apo
goni
dae
Spha
eram
ia o
rbic
ular
is
Wai
nado
i Riv
er
Jun-
82
U
SNM
002
6242
0
Bal
istid
aeRh
inec
anth
us a
cule
atus
R
ewa
Riv
er m
outh
M
ay-8
2 27
U
SNM
002
5655
4
Car
angi
dae
Car
anx
igno
bilis
Fiji
Isla
nds
Le
wis
and
Prin
g 19
86
Car
angi
dae
Car
anx
papu
ensi
s K
ubun
a C
reek
M
ay-6
5
CA
S 17
412
Car
angi
dae
Car
anx
sexf
asci
atus
K
ubun
a C
reek
A
ug-6
3
CA
S 80
184
Car
angi
dae
Car
anx
sexf
asci
atus
Su
va
1979
-198
0
USN
M 0
0176
665
Car
angi
dae
Car
anx
sexf
asci
atus
Fi
ji Is
land
s
Lew
is a
nd P
ring
1986
Car
angi
dae
Car
anx
sexf
asci
atus
Ta
mav
ua R
iver
W
aqai
ratu
200
3
Car
angi
dae
Car
anx
sexf
asci
atus
M
id R
ewa
Riv
er
Rya
n 19
80, a
fter H
erre
193
6
Car
angi
dae
Car
anx
sexf
asci
atus
W
aim
anu
Riv
er
Dec
-02
FI
T C
olle
ctio
ns 2
002
Car
angi
dae
Car
anx
tille
Su
va
1982
USN
M 0
0260
045
Car
angi
dae
Scom
bero
ides
tol
Fiji
Isla
nds
Le
wis
and
Prin
g 19
86
Car
char
hini
dae
Car
char
hinu
s leu
cas
Siga
toka
Riv
er
Rya
n 19
80
180
Car
char
hini
dae
Eula
mia
gan
getic
a =
C
arch
arhi
nus l
euca
s M
id R
ewa
Riv
er
Fo
wle
r 195
9: 5
69
Car
char
hini
dae
Car
char
hinu
s leu
cas
Low
er N
asav
u R
iver
nea
r Viti
na V
illag
e A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3C
entra
rchi
dae
Mic
ropt
erus
salm
oide
s U
pper
Nad
i Riv
er
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Cen
trarc
hida
e M
icro
pter
us sa
lmoi
des
Vat
uru
dam
A
ndre
ws 1
985
Cha
nida
eC
hano
s cha
nos
Suva
A
pr-3
3
CA
S 56
95
Cha
nida
eC
hano
s cha
nos
Suva
pr
e 18
84
U
SNM
827
99
Cha
nida
eC
hano
s cha
nos
Wai
man
u R
iver
D
ec-0
2
FIT
Col
lect
ions
200
2
Cha
nida
eC
hano
s cha
nos
Lau
Isla
nd
Apr
82
U
SNM
002
5966
5
Chi
roce
ntrid
aeC
hiro
cent
rus d
orab
Fi
ji Is
land
s
Le
wis
and
Prin
g 19
86
Chi
roce
ntrid
aeC
hiro
cent
rus d
orab
R
ewa
Riv
er m
outh
M
ay-8
2
USN
M 0
0259
952
Chi
roce
ntrid
aeC
hiro
cent
rus d
orab
O
vala
u Is
land
H
erre
193
6
Cic
hlid
aeO
reoc
hrom
is m
ossa
mbi
cus
Upp
er B
a R
iver
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3C
ichl
idae
Ore
ochr
omis
mos
sam
bicu
s M
id B
a R
iver
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3C
ichl
idae
Ore
ochr
omis
mos
sam
bicu
s U
pper
Nad
i Riv
er
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Cic
hlid
aeO
reoc
hrom
is m
ossa
mbi
cus
Low
er S
igat
oka
Riv
er
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Cic
hlid
aeO
reoc
hrom
is m
ossa
mbi
cus
Wai
man
u R
iver
D
ec-0
2 FI
T C
olle
ctio
ns 2
002
Cic
hlid
aeO
reoc
hrom
is m
ossa
mbi
cus
Con
fluen
ce o
f Wai
nivo
di a
nd W
aini
savu
levu
R
iver
May
-77
Inst
Nat
. Res
ourc
es =
IAS
Cic
hlid
aeO
reoc
hrom
is m
ossa
mbi
cus
Mid
-Upp
er N
akaw
akaw
a R
iver
nea
r N
akaw
akaw
a V
illag
e A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3 C
ichl
idae
Ore
ochr
omis
mos
sam
bicu
s In
terio
r 705
m
B
MN
H 1
981.
1.19
.1-4
Cic
hlid
aeO
reoc
hrom
is n
ilotic
us
Wai
man
u R
iver
D
ec-0
2 FI
T C
olle
ctio
ns 2
002
Cic
hlid
aeO
reoc
hrom
is n
ilotic
us
Mon
asav
u R
eser
voir
Lew
is a
nd P
ring
1986
Cic
hlid
aeO
reoc
hrom
is n
ilotic
us
Low
er W
aini
koro
Riv
er n
ear N
asas
a V
illag
e A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3C
ichl
idae
Ore
ochr
omis
nilo
ticus
U
pper
Dre
keti
Riv
er, n
ear S
aivo
u V
illag
e A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3C
ichl
idae
Ore
ochr
omis
nilo
ticus
M
id-u
pper
Nav
akam
otol
u C
reek
, nea
r N
avon
u V
illag
e (N
atew
a Pe
nisu
lar)
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3 C
ichl
idae
Ore
ochr
omis
nilo
ticus
W
aisa
i Cre
ek
Sep-
04
Je
nkin
s 200
4 C
ichl
idae
Ore
ochr
omis
aur
eus
Rav
iravi
And
rew
s 198
5
Cic
hlid
aeTi
lapi
a zi
lli
Unk
now
nA
ndre
ws 1
985
181
Clu
peid
aeSa
rdin
ella
fijie
nse
Fiji
Isla
nds
Le
wis
and
Prin
g 19
86
Clu
peid
aeSa
rdin
ella
fijie
nse
Nai
koro
koro
Cre
ek
May
-82
U
SNM
002
5999
2
Clu
peid
aeSa
rdin
ella
fijie
nse
Tam
avua
Riv
er
Waq
aira
tu 2
003
Cyp
rinid
aeBa
rbod
es g
onio
notu
s R
ewa
Riv
er tr
ibut
arie
s
Lew
is a
nd P
ring
1986
Cyp
rinid
aeBa
rbod
es g
onio
notu
s M
id R
ewa
Riv
er
Le
wis
and
Prin
g 19
86
Cyp
rinid
aeC
teno
phar
yngo
don
idel
la
Rew
a R
iver
And
rew
s 198
5
Cyp
rinid
aeC
teno
phar
yngo
don
idel
la
Wai
man
u R
iver
D
ec-0
2
FIT
Col
lect
ions
200
2
Cyp
rinid
aeRh
odeu
s oce
llatu
s N
adur
ulou
lou
rese
arch
stat
ion
pond
s
Le
wis
and
Prin
g 19
86
Cyp
rinid
aeAr
istie
hthy
s nob
ilis
Unk
now
n
A
ndre
ws 1
985
Cyp
rinid
aeH
ypot
ham
icht
hys m
olitr
ix
Unk
now
n
A
ndre
ws 1
985
Cyp
rinid
aeC
ypri
nus c
arpi
o ca
rpio
U
nkno
wn
And
rew
s 198
5
Eleo
trida
eAm
blye
leot
ris g
utta
taK
adav
u Is
land
M
ay 8
2
CA
S - 5
6534
Eleo
trida
eBo
stry
chus
sine
nsis
Bur
eta
Riv
er
Fow
ler 1
959:
447
, 606
Eleo
trida
eBo
stry
chus
sine
nsis
Kan
acea
Isla
nd
Fow
ler 1
959:
447
, 606
Eleo
trida
eBu
naka
gyr
inoi
des
Wai
man
u R
iver
D
ec-0
2
FIT
Col
lect
ions
200
2
Eleo
trida
eBu
naka
gyr
inoi
des
Nad
urul
oulo
u re
sear
ch st
atio
n po
nds
Sep-
01
U
SP 4
959
Eleo
trida
eBu
naka
gyr
inoi
des
Nay
arab
ale
Riv
er
Sep-
86
B
oren
198
6
Eleo
trida
eBu
naka
gyr
inoi
des
Fiji
BM
NH
187
9.6.
25.4
Eleo
trida
eBu
tis a
mbo
inen
sis
Kub
una
Cre
ek
Aug
-63
USN
M 0
0272
625
Eleo
trida
eBu
tis b
utis
Nal
ase
Cre
ek
W
aqai
ratu
200
3
Eleo
trida
eBu
tis b
utis
Nai
koro
koro
Cre
ek
R
yan
1980
Eleo
trida
eEl
eotr
is fu
sca
Nai
koro
koro
Cre
ek
R
yan
1980
Eleo
trida
eEl
eotr
is fu
sca
Kub
una
Cre
ek
Aug
-63
U
SNM
002
4215
9
Eleo
trida
eEl
eotr
is fu
sca
Suva
Fo
wle
r 195
9: 4
46
Eleo
trida
eEl
eotr
is fu
sca
Nay
arab
ale
Riv
er
Sep-
86
B
oren
198
6
Eleo
trida
eEl
eotr
is fu
sca
Dob
uile
vu R
iver
nea
r res
earc
h st
atio
n Se
p-86
24
5 Le
wis
and
Prin
g 19
86
Eleo
trida
eEl
eotr
is fu
sca
Wai
man
u R
iver
D
ec-0
2
FIT
Col
lect
ions
200
2
Eleo
trida
eEl
eotr
is fu
sca
Nad
urul
oulo
u re
sear
ch st
atio
n po
nds
Lew
is a
nd P
ring
1986
Eleo
trida
eEl
eotr
is fu
sca
Wai
sere
Cre
ek, T
aile
vu
Sep-
01
U
SP 5
301
Eleo
trida
eEl
eotr
is fu
sca
Levu
ka T
own
BM
NH
187
9.5.
14.5
36 -
537
Eleo
trida
eEl
eotr
is fu
sca
Tavu
ki C
reek
in K
adav
u D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Eleo
trida
eEl
eotr
is fu
sca
Nas
egai
Riv
er in
Kad
avu
Dec
-03
W
ildlif
e C
onse
rvat
ion
Soci
ety
182
Eleo
trida
eEl
eotr
is fu
sca
Nuk
unuk
u C
reek
, Lak
eba
Dec
-03
W
ildlif
e C
onse
rvat
ion
Soci
ety
Eleo
trida
eEl
eotr
is fu
sca
Vak
ano
Cre
ek, L
akeb
a D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Eleo
trida
eEl
eotr
is fu
sca
Wai
niba
u C
reek
, Tav
euni
R
yan
1980
: 64
Eleo
trida
eEl
eotr
is fu
sca
Viti
Lev
u, in
swam
p M
ar-2
9
USN
M 0
0082
916
Eleo
trida
eEl
eotr
is fu
sca
Suva
Fo
wle
r, 19
59: 4
46
Eleo
trida
eEl
eotr
is fu
sca
Ova
lau
Isla
nd, L
evuk
a
Fo
wle
r, 19
59: 4
46
Eleo
trida
eEl
eotr
is fu
sca
Nar
okor
okay
awa
Cre
ek
Fow
ler,
1959
: 446
Eleo
trida
eEl
eotr
is m
elan
osom
a K
oroi
vonu
Riv
er, n
ear
Nal
a V
illag
e (N
atew
a Pe
nisu
lar)
A
ug-0
3
Pogo
now
ski 2
003
Eleo
trida
eEl
eotr
is m
elan
osom
a W
aim
anu
Riv
er
Dec
-02
FI
T C
olle
ctio
ns 2
002
Eleo
trida
eEl
eotr
is m
elan
osom
a Lo
wer
Sig
atok
a R
iver
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3 El
eotri
dae
Eleo
tris
mel
anos
oma
Sa
vura
Cre
ek
Sep-
01
U
SP 4
954
Eleo
trida
eEl
eotr
is m
elan
osom
a
Nad
urul
oulo
u re
sear
ch st
atio
n po
nds
Sep-
01
U
SP 4
954
Eleo
trida
eEl
eotr
is m
elan
osom
a N
alas
e C
reek
W
aqai
ratu
200
3
Eleo
trida
eEl
eotr
is m
elan
osom
a R
iver
flow
ing
into
Suv
a H
arbo
ur
Mar
-29
C
AS
2494
2
Eleo
trida
eEl
eotr
is m
elan
osom
a Su
va
Fo
wle
r 195
9: 4
46
Eleo
trida
eEl
eotr
is m
elan
osom
a N
adur
ulou
lou
drai
nage
Se
p-86
Lew
is a
nd P
ring
1986
Eleo
trida
eEl
eotr
is m
elan
osom
a V
akan
o C
reek
, Lak
eba
Dec
-03
Wild
life
Con
serv
atio
n So
ciet
y
Eleo
trida
eEl
eotr
is m
elan
osom
a N
ukun
ikul
a C
reek
N
ov-8
6
Beu
mer
198
6
Eleo
trida
eG
iuru
s hoe
dti
Low
er S
igat
oka
Riv
er
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Eleo
trida
eG
iuru
s hoe
dti
Nad
urul
oulo
u re
sear
ch st
atio
n po
nds
Sep-
01
U
SP 4
951
Eleo
trida
eG
iuru
s hoe
dti
Nam
ara
Riv
er n
ear
Sani
ma
Vill
age
in
Kad
avu
Dec
-03
Wild
life
Con
serv
atio
n So
ciet
y
Eleo
trida
eG
iuru
s hoe
dti
Kab
arik
i Cre
ek n
ear N
abuk
elev
u (K
adav
u)
Dec
-03
Wild
life
Con
serv
atio
n So
ciet
y
Eleo
trida
eG
iuru
s hoe
dti
Low
er W
aini
koro
Riv
er n
ear N
asas
a V
illag
e A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3 El
eotri
dae
Giu
rus h
oedt
i R
ewa
Riv
er
Fow
ler 1
959:
449
Eleo
trida
eG
iuru
s hoe
dti
Wai
sai C
reek
Se
p-04
Jenk
ins 2
004
Eleo
trida
eO
phio
cara
apo
ros =
O
phie
leot
ris a
poro
s So
vi R
iver
Se
p-86
Lew
is a
nd P
ring
1986
Eleo
trida
eO
phio
cara
apo
ros =
O
phie
leot
ris a
poro
sW
aim
anu
Riv
er
Dec
-02
FI
T C
olle
ctio
ns 2
002
183
Eleo
trida
eO
phio
cara
apo
ros =
O
phie
leot
ris a
poro
sN
aiko
roko
ro C
reek
Rya
n 19
80
Eleo
trida
eO
phio
cara
apo
ros =
O
phie
leot
ris a
poro
sSu
va
Fo
wle
r 195
9: 4
49
Eleo
trida
eO
phio
cara
apo
ros =
O
phie
leot
ris a
poro
sK
anac
ea Is
land
Fow
ler 1
959:
449
Eleo
trida
eO
phio
cara
apo
ros =
O
phie
leot
ris a
poro
sO
vala
u Is
land
Fow
ler 1
959:
449
Eleo
trida
eG
iuru
s mar
gari
tace
a Si
gato
ka R
iver
Fo
wle
r 195
9
Eleo
trida
eG
iuru
s mar
gari
tace
a N
aiko
roko
ro C
reek
R
yan
1980
Eleo
trida
eG
iuru
s mar
gari
tace
a M
id-U
pper
Nak
awak
awa
Riv
er n
ear
Nak
awak
awa
Vill
age
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Eleo
trida
eLa
irdi
na h
ople
tupu
s = G
iuru
s m
arga
rita
cea
Fiji
Fow
ler 1
955
Eleo
trida
eH
ypse
leot
ris g
uent
heri
K
anac
ea Is
land
Fo
wle
r 195
9: 4
58 &
608
Eleo
trida
eH
ypse
leot
ris g
uent
heri
V
iti L
evu,
in sw
amp
Fow
ler 1
959:
458
& 6
08
Eleo
trida
eH
ypse
leot
ris g
uent
heri
D
obui
levu
R n
ear r
esea
rch
stat
ion
Sep-
86
Le
wis
and
Prin
g 19
86
Eleo
trida
eH
ypse
leot
ris g
uent
heri
Lo
wer
Sig
atok
a R
iver
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3 El
eotri
dae
Hyp
sele
otri
s gue
nthe
ri
Wai
man
u R
iver
D
ec-0
2
FIT
Col
lect
ions
200
2
Eleo
trida
eH
ypse
leot
ris g
uent
heri
W
aiba
u C
reek
, trib
of W
aim
anu
Riv
er
Dec
-85
126
Lew
is a
nd P
ring
1986
Eleo
trida
eH
ypse
leot
ris g
uent
heri
W
aise
re C
reek
, Tai
levu
Se
p-01
USP
529
1
Eleo
trida
eH
ypse
leot
ris g
uent
heri
N
aseg
ai R
iver
in K
adav
u D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Eleo
trida
eH
ypse
leot
ris g
uent
heri
Ta
vuki
Cre
ek in
Kad
avu
Dec
-03
Wild
life
Con
serv
atio
n So
ciet
y
Eleo
trida
eH
ypse
leot
ris g
uent
heri
V
akan
o C
reek
, Lak
eba
Dec
-03
Wild
life
Con
serv
atio
n So
ciet
y
Eleo
trida
eH
ypse
leot
ris g
uent
heri
To
bou
Cre
ek, L
akeb
a D
ec-0
3 W
ildlif
e C
onse
rvat
ion
Soci
ety
Eleo
trida
eH
ypse
leot
ris g
uent
heri
N
ukun
uku
Cre
ek, L
akeb
a D
ec-0
3 W
ildlif
e C
onse
rvat
ion
Soci
ety
Eleo
trida
eH
ypse
leot
ris g
uent
heri
M
id B
uca
Riv
er (N
atew
a)
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Eleo
trida
eH
ypse
leot
ris g
uent
heri
K
oroi
vonu
Riv
er n
ear
Nal
a V
illag
e (N
atew
a Pe
nisu
lar)
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3El
eotri
dae
Hyp
sele
otri
s gue
nthe
ri
Mid
-Upp
er N
akaw
akaw
a R
iver
nea
r N
akaw
akaw
a V
illag
e A
ug-0
3 12
1-18
0J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Eleo
trida
eH
ypse
leot
ris g
uent
heri
Lo
wer
Nas
avu
Riv
er n
ear V
itina
Vill
age
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Eleo
trida
eH
ypse
leot
ris g
uent
heri
N
ayar
abal
e R
iver
Se
p-86
Bor
en 1
986
Eleo
trida
eH
ypse
leot
ris g
uent
heri
N
abuk
aves
i Cre
ek
Fow
ler 1
959:
458
& 6
08
Eleo
trida
eH
ypse
leot
ris g
uent
heri
W
aisa
i Cre
ek
Sep-
04
Jenk
ins 2
004
184
Eleo
trida
eEl
eotr
is m
acro
lepi
dota
=
Oph
ioca
ra m
acro
lepi
dotu
s O
vala
u Is
land
Gün
ther
188
0 in
Fow
ler 1
959:
45
0El
eotri
dae
Oph
ioca
ra m
acro
lepi
dotu
s Fi
jiW
hitle
y 19
27
Eleo
trida
eO
phio
cara
mac
role
pido
tus
Fiji
Fow
ler 1
927,
193
1 an
d 19
34
Eleo
trida
eEl
eotr
is c
anto
ris =
O
phio
cara
mac
role
pido
tus
Kan
athi
a =
Kan
acea
Isla
nd
K
ner 1
868;
Sch
mel
tz 1
869;
Pö
hl 1
884
in F
owle
r 195
9:
450
Eleo
trida
eO
phio
cara
por
ocep
hala
=
Oph
ioca
ra m
acro
lepi
dotu
s Su
va
H
erre
193
6
Eleo
trida
eO
phio
cara
por
ocep
hala
W
aina
doi R
iver
J
un 8
2
USN
M 0
0259
779
Eleo
trida
eO
phio
cara
por
ocep
hala
K
anac
ea Is
land
Fow
ler 1
959:
450
Eleo
trida
eO
phio
cara
por
ocep
hala
Su
va
Fo
wle
r 195
9: 4
50
Eleo
trida
eO
xyel
eotr
is m
arm
orat
a Ta
mav
ua R
iver
Wai
qaira
tu 2
003
Eleo
trida
eO
xyel
eotr
is m
arm
orat
a Fi
ji
Whi
tley
1927
Eleo
trida
eO
xyel
eotr
is m
arm
orat
a Fi
ji
Fow
ler 1
928
and
1931
Eleo
trida
eEl
eotr
is m
arm
orat
a =
O
xyel
eotr
is m
arm
orat
a N
eva
Riv
er =
Rew
a R
iver
Sc
hmel
tz 1
965
in F
owle
r 19
59: 4
52
Eleo
trida
eEl
eotr
is m
arm
orat
a =
O
xyel
eotr
is m
arm
orat
a V
iti
Pöhl
188
4 in
Fow
ler 1
959:
45
2El
eotri
dae
Oxy
eleo
tris
mar
mor
ata
Mid
Rew
a R
iver
R
yan
1980
Eleo
trida
eO
xyel
eotr
is m
arm
orat
a W
aim
anu
Riv
er
Dec
-02
FI
T C
olle
ctio
ns 2
002
Engr
aulid
aeTh
ryss
a ba
elam
aK
ubun
a C
reek
A
ug-6
3
USN
M 0
0258
494
Engr
aulid
aeTh
ryss
a ba
elam
a Fi
ji Is
land
s
Lew
is a
nd P
ring
1986
Ephi
ppid
ae
Plat
ax o
rbic
ular
is
Tobe
rua
Isla
nd
May
-65
U
SNM
002
7637
2
Gob
iidae
, Gob
iinae
G
obiu
s can
inua
=
Acen
trog
obiu
s can
inus
N
amus
i = N
amos
i Pro
vinc
e
Fow
ler 1
959:
468
Gob
iidae
, Gob
iinae
Ac
entr
ogob
ius c
anin
us
Naq
ara
Isla
nd
Jun
82
U
SNM
002
4321
6
Gob
iidae
, Gob
iinae
Ac
entr
ogob
ius s
ulue
nsis
So
uth
Dra
unib
ota
Isla
nd
May
-65
U
SNM
003
2915
6
Gob
iidae
, Gob
iinae
G
obiu
s fus
cus =
Bat
hygo
bius
fu
scus
Suva
Poi
nt
Fo
wle
r 195
9: 4
72
Gob
iidae
, Gob
iinae
G
obiu
s fus
cus =
Bat
hygo
bius
fu
scus
Ova
lau
Isla
nd
Fo
wle
r 195
9: 4
72
Gob
iidae
, Gob
iinae
Ba
thyg
obiu
s hon
gkon
gens
is
Naq
ara
isla
nd
Jun
82
U
SNM
002
4179
3
Gob
iidae
, Gob
iinae
G
obiu
s pet
roph
ilus v
ar.
ocel
latu
s = B
athy
gobi
us
pada
ngen
sis
Nam
usi =
Nam
osi P
rovi
nce
Fow
ler 1
959:
467
Gob
iidae
, Gob
iinae
C
arag
obiu
s uro
lepi
s N
aqar
a Is
land
J
un 8
2
USN
M 0
0241
794
185
Gob
iidae
, Gob
iinae
Ap
pari
us a
uroc
ingu
lus
=C
teno
gobi
ops a
uroc
ingu
lus
Ova
lau
Isla
nd
Her
re 1
936
Gob
iidae
, Gob
iinae
G
obiu
s aur
ocin
gulu
s =
Cte
nogo
biop
s aur
ocin
gulu
s Fi
ji M
ar-2
9
Fow
ler 1
959:
612
Gob
iidae
, Gob
iinae
G
loss
ogob
ius b
icir
rhos
us
Nai
koro
koro
Cre
ek
May
-82
U
SNM
002
5953
4
Gob
iidae
, Gob
iinae
G
loss
ogob
ius c
eleb
ius
Riv
er fl
owin
g in
to S
uva
Har
bour
R
yan
1980
Gob
iidae
, Gob
iinae
G
loss
ogob
ius c
eleb
ius
Riv
er fl
owin
g in
to S
uva
Har
bour
M
ar-2
9
CA
S 24
892;
Fow
ler 1
959:
48
3G
obiid
ae, G
obiin
ae
Glo
ssog
obiu
s cel
ebiu
s V
utin
i Cre
ek
Jun-
01
p
ers c
om. S
atya
n La
l 200
1
Gob
iidae
, Gob
iinae
G
loss
ogob
ius c
eleb
ius
Mid
Rew
a R
iver
A
MS
I .27
052-
001
Gob
iidae
, Gob
iinae
G
loss
ogob
ius c
eleb
ius
Mid
Rew
a R
iver
M
ar-2
9
CA
S 24
871;
Fow
ler 1
959:
48
3G
obiid
ae, G
obiin
ae
Glo
ssog
obiu
s cel
ebiu
s
Sovi
Riv
er
1987
Lew
is a
nd P
ring
1986
Gob
iidae
, Gob
iinae
G
loss
ogob
ius c
eleb
ius
M
id B
uca
Riv
er (
Nat
ewa
Peni
sula
r)
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
, Gob
iinae
G
loss
ogob
ius c
eleb
ius
M
id-U
pper
Nak
awak
awa
Riv
er n
ear
Nak
awak
awa
Vill
age
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
, Gob
iinae
G
loss
ogob
ius c
eleb
ius
D
avut
u R
iver
mid
of
Wai
nunu
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3G
obiid
ae, G
obiin
ae
Glo
ssog
obiu
s cel
ebiu
s
Kau
vula
Riv
er, L
ekut
u
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
, Gob
iinae
G
loss
ogob
ius c
eleb
ius
Lo
wer
Wai
niko
ro R
iver
nea
r Nas
asa
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
, Gob
iinae
G
loss
ogob
ius s
p. 1
Nay
arab
ale
Riv
er
Sep-
86
B
oren
198
6
Gob
iidae
, Gob
iinae
G
loss
ogob
ius s
p. 1
Mid
Buc
a R
iver
(N
atew
a Pe
nisu
lar)
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3G
obiid
ae, G
obiin
ae
Glo
ssog
obiu
s sp.
1K
oroi
vonu
Riv
er, N
ala
Vill
age
(Nat
ewa
Peni
sula
r)
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
, Gob
iinae
G
loss
ogob
ius s
p. 1
Wai
bau
Cre
ek, t
rib o
f Wai
man
u R
iver
Fe
b-86
Lew
is a
nd P
ring
1986
Gob
iidae
, Gob
iinae
G
loss
ogob
ius s
p. 1
Nab
ukav
esi R
iver
, E L
ast R
iver
Se
p-86
62
-97
Lew
is a
nd P
ring
1986
Gob
iidae
, Gob
iinae
G
loss
ogob
ius s
p. 1
èR
iver
flow
ing
into
Suv
a H
arbo
ur
Fow
ler 1
959:
483
; Rya
n 19
80
Gob
iidae
, Gob
iinae
O
plop
omus
opl
opom
us
Sout
h D
raun
ibot
a Is
land
M
ay-6
5
USN
M 0
0342
615
Gob
iidae
, Gob
iinae
Pa
lutr
us sc
apul
opun
ctat
us
Fiji
Isla
nds
Fow
ler 1
959:
611
Gob
iidae
, Gob
iinae
Ps
amm
ogob
ius b
ioce
llatu
s R
iver
flow
ing
into
Suv
a H
arbo
ur
Mar
-29
C
AS
2484
5
Gob
iidae
, Gob
iinae
G
loss
ogob
ius b
ioce
llatu
s =
Psam
mog
obiu
s bio
cella
tus
Riv
er fl
owin
g in
to S
uva
Har
bour
H
erre
193
6
Gob
iidae
, Gob
iinae
G
loss
ogob
ius g
iuru
s =
Psam
mog
obiu
s bio
cella
tus
Riv
er fl
owin
g in
to S
uva
Har
bour
Fo
wle
r 195
9: 4
83;
Gob
iidae
, Gob
iinae
Ps
amm
ogob
ius b
ioce
llatu
s N
aiko
roko
ro C
reek
M
ay-8
2
USN
M 0
0259
782
Gob
iidae
, Gob
iinae
Ps
amm
ogob
ius b
ioce
llatu
s N
aqar
a Is
land
J
un 8
2
USN
M 0
0241
797
186
Gob
iidae
, Gob
iinae
Ps
amm
ogob
ius b
ioce
llatu
s K
adav
u Is
land
M
ay 8
2
USN
M 0
0243
081
Gob
iidae
, Gob
iinae
Ps
amm
ogob
ius b
ioce
llatu
s K
oroi
vonu
Riv
er, N
ala
Vill
age
(Nat
ewa
Peni
sula
r)
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
, Gob
iinae
Ps
amm
ogob
ius b
ioce
llatu
s K
auvu
la R
iver
nea
r Lek
utu
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
, Gob
iinae
Ps
amm
ogob
ius b
ioce
llatu
s R
iver
flow
ing
into
Suv
a H
arbo
ur
Rya
n 19
80
Gob
iidae
, Gob
iinae
G
obiu
s neb
ulos
us
=Yo
ngei
chth
ys n
ebul
osus
N
amus
i = N
amos
i Pro
vinc
e Fo
wle
r 195
9
Gob
iidae
;G
obio
nelli
nae
Awao
us g
uam
ensi
s. N
akas
alek
a C
reek
nea
r Nak
oron
awa
Vill
age
in K
adav
u D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Gob
iidae
;G
obio
nelli
nae
Awao
us g
uam
ensi
s N
adur
ulou
lou
drai
nage
Se
p-86
Lew
is a
nd P
ring
1986
Gob
iidae
;G
obio
nelli
nae
Awao
us g
uam
ensi
s
Nad
ariv
atu
Riv
er
1994
AM
S IB
.265
1
Gob
iidae
;G
obio
nelli
nae
Awao
us g
uam
ensi
s N
abuk
aves
i Riv
er, E
Las
t Riv
er
Sep-
86
84-8
9 Le
wis
and
Prin
g 19
86
Gob
iidae
;G
obio
nelli
nae
Awao
us g
uam
ensi
s Sa
vura
Cre
ek
Sep-
01
U
SP 4
960
Gob
iidae
;G
obio
nelli
nae
Awao
us g
uam
ensi
s O
vala
u Is
land
B
MN
H 1
856.
9.4.
84
Gob
iidae
;G
obio
nelli
nae
Cho
noph
orus
gua
men
sis
=Aw
aous
gua
men
sis
Nar
okor
okoy
awa
Riv
er
Fow
ler 1
959:
474
Gob
iidae
;G
obio
nelli
nae
Gob
ius c
rass
ilabr
is =
Aw
aous
gua
men
sis
Nam
usi =
Nam
osi P
rovi
nce
Fow
ler 1
959:
474
Gob
iidae
;G
obio
nelli
nae
Gob
ius c
rass
ilabr
is =
Aw
aous
gua
men
sis
Kan
athi
a =
Kan
acea
Isla
nd
Fow
ler 1
959:
474
Gob
iidae
;G
obio
nelli
nae
Gob
ius c
rass
ilabr
is =
Aw
aous
gua
men
sis
Ova
lau
Isla
nd
Fow
ler 1
959:
474
Gob
iidae
;G
obio
nelli
nae
Gob
ius
ocel
lari
s =Aw
aous
gu
amen
sis
Nev
a =
Rew
a R
iver
Fo
wle
r 195
9: 4
74
Gob
iidae
;G
obio
nelli
nae
Cho
noph
orus
oce
llari
s =
Awao
us g
uam
ensi
s Fi
jiW
hitle
y 19
27
Gob
iidae
;G
obio
nelli
nae
Awao
us m
elan
ocep
halu
s V
iti L
evu
Lew
is a
nd P
ring
1986
Gob
iidae
;G
obio
nelli
nae
Awao
us o
cella
ris
Dob
uile
vu R
nea
r res
earc
h st
atio
n Se
p-86
72
Le
wis
and
Prin
g 19
86
Gob
iidae
;G
obio
nelli
nae
Awao
us o
cella
ris
Mid
Buc
a R
iver
(Nat
ewa
Peni
sula
) A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3 G
obiid
ae;
Gob
ione
llina
eAw
aous
oce
llari
s So
vi R
iver
Se
p-86
Lew
is a
nd P
ring
1986
Gob
iidae
;G
obio
nelli
nae
Awao
us o
cella
ris
Kau
vula
Riv
er n
ear
Leku
tu
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s an
dB
oset
o20
03G
obiid
ae;
Gob
ione
llina
eAw
aous
oce
llari
s K
anac
ea Is
land
Fo
wle
r 195
9: 4
74, 6
14
187
Gob
iidae
;G
obio
nelli
nae
Awao
us o
cella
ris
Ova
lau
Isla
nd
Fow
ler 1
959:
474
, 614
Gob
iidae
;G
obio
nelli
nae
Awao
us o
cella
ris
Nab
ukav
esi C
reek
Fo
wle
r 195
9: 4
74, 6
14
Gob
iidae
;G
obio
nelli
nae
Awao
us o
cella
ris
Nam
osi P
rovi
nce
Fow
ler 1
959:
474
, 614
Gob
iidae
;G
obio
nelli
nae
Awao
us o
cella
ris
Rew
a R
iver
Fo
wle
r 195
9: 4
74, 6
14
Gob
iidae
;G
obio
nelli
nae
Awao
us o
cella
ris
Wai
nasa
vule
vu C
reek
at W
aiba
saga
R
yan
1980
Gob
iidae
;G
obio
nelli
nae
Awao
us o
cella
ris
Mid
Rew
a R
iver
M
ar-2
9
CA
S 24
893
Gob
iidae
;G
obio
nelli
nae
Awao
us o
cella
ris
Upp
er R
ewa
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
;G
obio
nelli
nae
Awao
us o
cella
ris
Wai
bau
Cre
ek, t
rib o
f Wai
man
u R
iver
Fe
b-86
46
-78
Lew
is a
nd P
ring
1986
Gob
iidae
;G
obio
nelli
nae
Gob
ius n
otos
pilu
s =
Mug
ilogo
bius
not
ospi
lus
Nam
usi =
Nam
osi P
rovi
nce
Fow
ler 1
959:
469
Gob
iidae
;G
obio
nelli
nae
Stig
mat
ogob
ius h
oeve
nii =
M
ugilo
gobi
us n
otos
pilu
sV
iti L
evu
Fow
ler 1
959:
610
Gob
iidae
;G
obio
nelli
nae
Oxy
uric
hthy
s oph
thal
mon
ema
K
ubun
a C
reek
M
ay-6
5
USN
M 0
0238
969
Gob
iidae
;G
obio
nelli
nae
Oxy
uric
hthy
s ten
tacu
lari
sN
aqar
a Is
land
J
un 8
2 U
SNM
002
5975
2
Gob
iidae
;G
obio
nelli
nae
Redi
gobi
us b
ikol
anus
R
iver
flow
ing
into
Suv
a H
arbo
ur
Mar
-29
C
AS
2443
3
Gob
iidae
;G
obio
nelli
nae
Redi
gobi
us b
ikol
anus
W
aisa
i Cre
ek
Sep-
04
Je
nkin
s 200
4
Gob
iidae
;G
obio
nelli
nae
Redi
gobi
us le
veri
W
aini
vesi
Riv
er
Fow
ler 1
959:
610
Gob
iidae
;G
obio
nelli
nae
Redi
gobi
us le
veri
M
id-U
pper
Nak
awak
awa
Riv
er n
ear
Nak
awak
awa
Vill
age
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
;G
obio
nelli
nae
Vaim
osa
leve
ri =
Red
igob
ius
leve
riFi
ji
Fo
wle
r 194
3
Gob
iidae
;G
obio
nelli
nae
Gob
ius l
ever
i = R
edig
obiu
s le
veri
Riv
er n
ear S
uva
Fo
wle
r 195
9: 6
09
Gob
iidae
;G
obio
nelli
nae
Redi
gobi
us le
veri
Ta
mav
ua R
iver
W
aqai
ratu
200
3
Gob
iidae
;G
obio
nelli
nae
Redi
gobi
us le
veri
U
pper
Dre
keti
Riv
er n
ear S
aivo
u V
illag
e A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3G
obiid
ae;
Gob
ione
llina
eRe
digo
bius
leve
ri
Dav
utu
Riv
er n
ear W
ainu
nu
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
;G
obio
nelli
nae
Gob
ius r
oem
eri =
Red
igob
ius
roem
eri
Riv
er n
ear S
uva
Fo
wle
r 195
9: 6
09
188
Gob
iidae
;G
obio
nelli
nae
Redi
gobi
us sp
. 1K
auvu
la R
iver
nea
r Lek
utu
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3G
obiid
ae;
Gob
ione
llina
eSc
hmat
ogob
ius v
itien
sis
Kor
oivo
nu R
iver
Nal
a V
illag
e (N
atew
a Pe
nisu
lar)
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3G
obiid
ae;
Gob
ione
llina
eSc
hmat
ogob
ius v
itien
sis
Mid
Buc
a R
iver
(Nat
ewa
Peni
sula
r)
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
;G
obio
nelli
nae
Schm
atog
obiu
s viti
ensi
s K
auvu
la R
iver
nea
r Lek
utu
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
;G
obio
nelli
nae
Sten
ogob
ius s
p. 1
Nad
urul
oulo
u dr
aina
ge
Sep-
86
Le
wis
and
Prin
g 19
86
Gob
iidae
;G
obio
nelli
nae
Sten
ogob
ius s
p. 1
Nai
koro
koro
Cre
ek
R
yan
1980
Gob
iidae
;G
obio
nelli
nae
Sten
ogob
ius s
p. 1
Low
er S
igat
oka
Riv
er
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
;G
obio
nelli
nae
Sten
ogob
ius s
p. 1
Nab
ukav
esi R
iver
, E L
ast R
iver
Se
p-86
Lew
is a
nd P
ring
1986
Gob
iidae
;G
obio
nelli
nae
Sten
ogob
ius s
p. 1
Lau
Isla
nd
Apr
82
U
SNM
002
5973
6
Gob
iidae
;G
obio
nelli
nae
Sten
ogob
ius s
p. 1
Kor
oivo
nu R
iver
Nal
a V
illag
e (N
atew
a Pe
nisu
lar)
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3
Gob
iidae
;G
obio
nelli
nae
Sten
ogob
ius s
p. 1
Mid
-Upp
er N
akaw
akaw
a R
iver
nea
r N
akaw
akaw
a V
illag
e A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3G
obiid
ae;
Gob
ione
llina
eSt
enog
obiu
s sp.
1Ta
vuki
Cre
ek in
Kad
avu
Dec
-03
W
ildlif
e C
onse
rvat
ion
Soci
ety
Gob
iidae
;G
obio
nelli
nae
Sten
ogob
ius s
p. 1
Mid
Buc
a R
iver
(N
atew
a Pe
nisu
la)
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
;G
obio
nelli
nae
Sten
ogob
ius s
p. 1
Kau
vula
Riv
er n
ear L
ekut
u A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3G
obiid
ae;
Gob
ione
llina
eSt
enog
obiu
s sp.
1R
ewa
Riv
er
Fow
ler 1
959:
476
Gob
iidae
;G
obio
nelli
nae
Gob
ius s
adan
undi
o =
St
igm
atog
obiu
s sad
anun
dio
K
anat
hia
= K
anac
ea I
slan
d
Fo
wle
r 195
9: 4
68
Gob
iidae
;G
obio
nelli
nae
Stig
mat
ogob
ius s
adan
undi
o
Viti
Lev
u
R
ainb
oth
1996
Gob
iidae
, Oxu
derc
inae
Pe
riop
htha
lmod
on b
arba
rus
Bur
eta
Riv
er
Fow
ler 1
959:
490
Gob
iidae
, Oxu
derc
inae
Pe
riop
htha
lmod
on b
arba
rus
Suva
Fow
ler 1
959:
490
G
obiid
ae; O
xude
rcin
ae
Peri
opht
halm
us
arge
ntili
neat
us
Ellin
gton
Riv
er, P
enan
g in
Rak
iraki
Ju
ne-2
2
USN
M 0
0278
368
Gob
iidae
; Oxu
derc
inae
Pe
riop
htha
lmus
ar
gent
iline
atus
N
aiko
roko
ro C
reek
M
ay-8
2
USN
M 0
0256
565
Gob
iidae
; Oxu
derc
inae
Pe
riop
htha
lmus
ar
gent
iline
atus
K
adav
u Is
land
M
ay 8
2
USN
M 0
0279
332
189
Gob
iidae
; Oxu
derc
inae
Pe
riop
htha
lmus
kal
olo
N
aiko
roko
ro C
reek
Rya
n 19
80
Gob
iidae
; Oxu
derc
inae
Pe
riop
htha
lmus
kal
olo
Naq
ara
Isla
nd
Jun
82
USN
M 0
0241
796
Gob
iidae
; Oxu
derc
inae
Pe
riop
htha
lmus
koe
lreu
teri
=
Peri
opht
halm
us k
alol
o R
ewa
Riv
er
Fow
ler 1
959
Gob
iidae
; Oxu
derc
inae
Pe
riop
htha
lmus
kal
olo
Kad
avu
Isla
nd
Mar
82
U
SNM
002
3885
6
Gob
iidae
; Sic
ydiin
ae
Lent
ipes
kaa
ea
Nak
asal
eka
Cre
ek n
ear N
akor
onaw
a V
illag
e in
Kad
avu
Dec
-03
W
ildlif
e C
onse
rvat
ion
Soci
ety
Gob
iidae
; Sic
ydiin
ae
Sicy
opte
rus l
agoc
epha
lus
Kad
avu
Isla
nd
Fow
ler 1
959:
486
; Rya
n 19
80
Gob
iidae
; Sic
ydiin
ae
Sicy
opte
rus l
agoc
epha
lus
Nam
osi P
rovi
nce
Fow
ler 1
959:
485
Gob
iidae
; Sic
ydiin
ae
Sicy
opte
rus l
agoc
epha
lus
Nar
okor
okoy
awa
Cre
ek
Fow
ler 1
959:
485
Gob
iidae
; Sic
ydiin
ae
Sicy
opte
rus l
agoc
epha
lus
Nad
ariv
atu
Riv
er
AM
S IB
.230
6
Gob
iidae
; Sic
ydiin
ae
Sicy
opte
rus l
agoc
epha
lus
Upp
er S
igat
oka
Riv
er
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
; Sic
ydiin
ae
Sicy
opte
rus l
agoc
epha
lus
Nak
avu
Cre
ek
Jan-
01
Wet
land
s Tra
inin
g C
olle
ctio
nsG
obiid
ae; S
icyd
iinae
Si
cyop
teru
s lag
ocep
halu
s So
vi R
iver
Se
p-86
Lew
is a
nd P
ring
1986
Gob
iidae
; Sic
ydiin
ae
Sicy
opte
rus l
agoc
epha
lus
Nak
asal
eka
Cre
ek n
ear N
akor
onaw
a V
illag
e in
Kad
avu)
D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Gob
iidae
; Sic
ydiin
ae
Sicy
opte
rus l
agoc
epha
lus
Tavu
ki C
reek
in K
adav
u D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Gob
iidae
; Sic
ydiin
ae
Sicy
opte
rus l
agoc
epha
lus
Kab
arik
i Cre
ek n
ear
Nab
ukel
evu
(Kad
avu)
D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Gob
iidae
; Sic
ydiin
ae
Sicy
opte
rus l
agoc
epha
lus
Kau
vula
Cre
ek L
ekut
u
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
; Sic
ydiin
ae
Sicy
opte
rus l
agoc
epha
lus
Fiji
Isla
nds
Rya
n 19
80
Gob
iidae
; Sic
ydiin
ae
Sicy
opte
rus h
ickl
ingi
M
id R
ewa
Riv
er
AM
S IB
.194
9
Gob
iidae
; Sic
ydiin
ae
Sicy
opus
zost
erop
horu
m
Wai
bau
Cre
ek, T
aveu
ni
Rya
n 19
91
Gob
iidae
; Sic
ydiin
ae
Sicy
opus
zost
erop
horu
m
Nak
asal
eka
Cre
ek n
ear N
akor
onaw
a V
illag
e in
Kad
avu
Dec
-03
W
ildlif
e C
onse
rvat
ion
Soci
ety
Gob
iidae
; Sic
ydiin
ae
Sicy
opus
zost
erop
horu
m
Nav
akam
otol
u C
reek
mid
of
Nav
onu
Vill
age
(Nat
ewa
Peni
sula
) A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3G
obiid
ae; S
icyd
iinae
Si
cyop
us zo
ster
opho
rum
M
id-U
pper
Nak
awak
awa
Riv
er n
ear
Nak
awak
awa
Vill
age
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
; Sic
ydiin
ae
Sicy
opus
zost
erop
horu
m
Mid
Wai
nunu
Riv
er
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
; Sic
ydiin
ae
Sicy
opus
zost
erop
horu
m
Nak
asal
eka
Cre
ek n
ear N
akor
onaw
a V
illag
e in
Kad
avu
Dec
-03
W
ildlif
e C
onse
rvat
ion
Soci
ety
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n ru
tilau
reus
N
akav
u C
reek
Ja
n-01
W
etla
nds T
rain
ing
Col
lect
ions
190
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n ru
tilau
reus
N
akav
u C
reek
Ja
n-01
W
etla
nds T
rain
ing
Col
lect
ions
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n ru
tilau
reus
N
aseg
ai R
iver
in K
adav
u D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n ru
tilau
reus
N
akas
alek
a C
reek
nea
r Nak
oron
awa
Vill
age
in K
adav
u D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n ru
tilau
reus
K
abar
iki C
reek
nea
r Nab
ukal
evu
(Kad
avu)
D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n ru
tilau
reus
M
id B
uca
Riv
er (
Nat
ewa
Peni
sula
r)
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n ru
tilau
reus
M
id-U
pper
Nak
awak
awa
Riv
er n
ear
Nak
awak
awa
Vill
age
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n ru
tilau
reus
M
id W
ainu
nu R
iver
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3G
obiid
ae; S
icyd
iinae
St
ipho
don
sp. 1
Nak
asal
eka
Cre
ek n
ear N
akor
onaw
a V
illag
e in
Kad
avu
Dec
-03
W
ildlif
e C
onse
rvat
ion
Soci
ety
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 1Ta
vuki
Cre
ek in
Kad
avu
Dec
-03
W
ildlif
e C
onse
rvat
ion
Soci
ety
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 1N
amar
a R
iver
nea
r San
imaV
illag
e in
kad
avu
Dec
-03
Wild
life
Con
serv
atio
n So
ciet
y
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 1K
abar
iki C
reek
nea
r Nab
ukal
evu
(Kad
avu)
D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 1K
oroi
vonu
Riv
er N
ala
Vill
age
(Nat
ewa
Peni
sula
r)
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 1N
avak
amot
olu
Cre
ek m
id o
f N
avon
u V
illag
e (N
atew
a Pe
nisu
la)
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 1M
id-W
ainu
nu R
iver
, V. L
evu
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 1N
akav
u C
reek
Ja
n-01
W
etla
nds T
rain
ing
Col
lect
ions
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 1M
id B
uca
Riv
er (N
atew
a Pe
nisu
lar)
, V. L
evu
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 1M
id-U
pper
Nak
awak
awa
Riv
er n
ear
Nak
awak
awa
Vill
age
Sep-
03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 1W
aini
bau
Cre
ek, T
aveu
ni
1980
Rya
n 19
80
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 2Ta
vuki
Cre
ek in
Kad
avu
Dec
-03
W
ildlif
e C
onse
rvat
ion
Soci
ety
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 2N
amar
a R
iver
nea
r Sa
nim
a V
illag
e in
K
adav
uD
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 2N
akas
alek
a C
reek
nea
r Nak
oron
awa
Vill
age
in K
adav
u D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 2N
akav
u C
reek
Ja
n-01
W
etla
nds T
rain
ing
Col
lect
ions
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 2M
id-U
pper
Nak
awak
awa
Riv
er n
ear
Nak
awak
awa
Vill
age
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 2D
avut
u R
iver
, mid
- of
Wai
nunu
, V. L
evu
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
191
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 2N
akas
alek
a C
reek
nea
r Nak
oron
awa
Vill
age
in K
adav
u D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 2N
amar
a R
iver
nea
r Sa
nim
a V
illag
e in
K
adav
uD
ec-0
3W
ildlif
e C
onse
rvat
ion
Soci
ety
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 2N
avak
amot
olu
Cre
ek m
id o
f N
avon
u V
illag
e (N
atew
a Pe
nisu
la)
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Gob
iidae
; Sic
ydiin
ae
Stip
hodo
n sp
. 2M
id W
ainu
nu R
iver
Se
p-03
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3H
aem
ulid
ae
Plec
torh
inch
us g
ibbo
sus
Kub
una
Cre
ek
May
-65
U
SNM
002
7365
3
Hem
iram
phid
ae
Hyp
orha
mph
us d
ussu
mie
ri
Bur
eta
Riv
er
Mar
-29
50
CA
S 24
994
Hem
iram
phid
ae
Hem
irha
mph
us e
ryth
rori
chus
=
Hyp
orha
mph
us d
ussu
mie
ri
Bur
eta
Riv
er
Fow
ler 1
959
Hem
iram
phid
ae
Hem
irha
mph
us e
ryth
rori
chus
=
Hyp
orha
mph
us d
ussu
mie
ri
Bur
eta
Riv
er
Mar
-29
Fo
wle
r 195
9: 1
02
Hem
iram
phid
ae
Zena
chop
teru
s mac
ulos
us
=Ze
nach
opte
rus b
uffo
nis
Fiji
Whi
tley
1927
Hem
iram
phid
ae
Zena
chop
teru
s mac
ulos
us
=Ze
nach
opte
rus b
uffo
nis
Fiji
Fow
ler 1
959:
106
Hem
iram
phid
ae
Zena
chop
teru
s mac
ulos
us
=Ze
nach
opte
rus b
uffo
nis
Suva
Fo
wle
r 195
9: 1
06
Hem
iram
phid
ae
Zena
chop
teru
s dis
par
Low
er S
igat
oka
Riv
er
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Hem
iram
phid
ae
Zena
rcho
pter
us d
ispar
N
aiko
roko
ro C
reek
M
ay-8
2
USN
M 0
0236
682
Hem
iram
phid
ae
Zena
rcho
pter
us d
ispar
W
aina
doi R
iver
J
un 8
2
USN
M 0
0256
571
Hem
iram
phid
ae
Zena
rcho
pter
us d
ispar
N
aqar
a Is
land
J
un 8
2
USN
M 0
0256
572
Hem
iram
phid
ae
Zena
rcho
pter
us d
ispar
Su
va
1899
- 19
00
USN
M 0
0066
085
Hem
iram
phid
ae
Zena
rcho
pter
us d
ispar
Su
va
Apr
-33
C
AS
5769
; Fow
ler,
1959
: 106
Hem
iram
phid
ae
Zena
rcho
pter
us d
ispar
K
adav
u Is
land
M
ay 8
2
USN
M 0
0236
681
Hem
iram
phid
ae
Zena
rcho
pter
us d
ispar
B
uret
a R
iver
M
ar-2
9
CA
S 24
816
Hem
iram
phid
ae
Zena
rcho
pter
us d
ispar
B
uret
a R
iver
Fo
wle
r 195
9: 1
05
Hem
iram
phid
ae
Zena
rcho
pter
us d
ispar
Q
awa
Riv
er
QM
I.98
19
Hem
iram
phid
ae
Zena
rcho
pter
us d
ispar
W
aini
kai C
reek
A
pr 8
3
USN
M 0
0266
907
Kuh
liida
eD
ules
mar
gina
tus =
Kuh
lia
mar
gina
taFi
ji
G
ünth
er 1
859
in F
owle
r 195
9 an
d Fo
wle
r 193
1, 1
934
and
1959
Kuh
liida
eK
uhlia
mar
gina
ta
Fiji
Bou
leng
er 1
895i
n Fo
wle
r 19
59, W
hitle
y 19
27, F
owle
r 19
28
192
Kuh
liida
eD
ules
mal
o =
Kuh
lia
mar
gina
taR
ewa
Riv
er
Schm
eltz
186
5 in
Fow
ler
1959
Kuh
liida
eD
ules
mal
o =
Kuh
lia
mar
gina
taV
iti
Pöhl
188
4 in
Fow
ler 1
959
Kuh
liida
eK
uhlia
mal
o =
Kuh
lia
mar
gina
taV
iti L
evu
Bou
leng
er 1
895
in F
owle
r 19
59 a
nd W
hitle
y 19
27
Kuh
liida
eK
uhlia
mar
gina
ta
Low
er S
igat
oka
Riv
er
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Kuh
liida
eK
uhlia
mar
gina
ta
Wai
nisu
su R
iver
Ju
l-02
D
Bos
eto
colle
ctio
n
Kuh
liida
eK
uhlia
mar
gina
ta
Wai
nisa
vule
vu C
reek
at W
aiba
saga
R
yan
1980
Kuh
liida
eK
uhlia
mar
gina
ta
Viti
Lev
u
B
MN
H 1
986.
6.6.
1
Kuh
liida
eK
uhlia
mar
gina
ta
Upp
er D
ama
Riv
er n
ear D
riti V
illag
e A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3K
uhlii
dae
Kuh
lia m
argi
nata
M
id-U
pper
Nak
awak
awa
Riv
er n
ear
Nak
awak
awa
Vill
age
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Kuh
liida
eK
uhlia
mar
gina
ta
Mid
Buc
a R
iver
(Nat
ewa
Peni
sula
r)
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Kuh
liida
eK
uhlia
mar
gina
ta
Kor
oivo
nu R
iver
, N
ala
Vill
age
(Nat
ewa
Peni
sula
r)
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Kuh
liida
eK
uhlia
mar
gina
ta
Kab
arik
i Riv
er n
ear
Nab
ukel
evu
(Kad
avu)
D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Kuh
liida
eK
uhlia
mar
gina
ta
Wai
man
u R
iver
D
ec-0
2
FIT
Col
lect
ions
200
2
Kuh
liida
eK
uhlia
mar
gina
ta
Savu
ra C
reek
Se
p-01
USP
495
7
Kuh
liida
eK
uhlia
mar
gina
ta
Nas
egai
Riv
er in
Kad
avu
Dec
-03
W
ildlif
e C
onse
rvat
ion
Soci
ety
Kuh
liida
eK
uhlia
mar
gina
ta
Nak
asal
eka
Cre
ek n
ear N
akor
onaw
a V
illag
e in
Kad
avu
Dec
-03
W
ildlif
e C
onse
rvat
ion
Soci
ety
Kuh
liida
eK
uhlia
mar
gina
ta
Tavu
ki C
reek
in K
adav
u D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Kuh
liida
eK
uhlia
bilu
nula
ta =
Kuh
lia
mun
daFi
ji
R
yan
1980
and
200
0
Kuh
liida
eK
uhlia
bilu
nula
ta =
Kuh
lia
mun
daR
iver
flow
ing
into
Suv
a H
arbo
ur
Her
re 1
936
Kuh
liida
eK
uhlia
mun
da
Fiji
Whi
tley
1927
and
Fow
ler
1928
Kuh
liida
eD
ules
mun
da =
Kuh
lia m
unda
Fi
ji
Fo
wle
r 193
1, 1
934
and
1959
Kuh
liida
eK
uhlia
hum
ilis =
Kuh
lia
mun
daFi
ji
R
egan
191
3 in
Fow
ler 1
959
Kuh
liida
eK
uhlia
mal
o =
Kuh
lia m
unda
Fi
ji
B
oule
nger
185
9 in
Fow
ler
1959
Kuh
liida
eK
uhlia
pro
xim
a =
Kuh
lia
mun
daFi
ji
K
enda
ll an
d G
olds
boro
ugh
1911
in F
owle
r 195
9 K
uhlii
dae
Kuh
lia m
unda
R
iver
flow
ing
into
Suv
a H
arbo
ur
Mar
-29
C
AS
2442
7 K
uhlii
dae
Kuh
lia m
unda
N
aiko
roko
ro C
reek
M
ay-8
2
USN
M 0
0258
512
193
Kuh
liida
eK
uhlia
mun
da
Low
er N
asav
u R
iver
nea
r Viti
na V
illag
e A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3K
uhlii
dae
Kuh
lia m
unda
M
id W
ainu
nu R
iver
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3K
uhlii
dae
Kuh
lia m
unda
M
id-U
pper
Nak
awak
awa
Riv
er n
ear
Nak
awak
awa
Vill
age
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Kuh
liida
eK
uhlia
mun
da
Mid
Buc
a R
iver
(Nat
ewa
Peni
sula
r)
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Kuh
liida
eK
uhlia
mun
da
Wai
man
u R
iver
D
ec-0
2
FIT
Col
lect
ions
200
2
Kuh
liida
eK
uhlia
mun
da
Nam
ara
Riv
er n
ear
Sani
ma
Vill
age
in
Kad
avu
Dec
-03
W
ildlif
e C
onse
rvat
ion
Soci
ety
Kuh
liida
eK
uhlia
mun
da
Wai
sere
Cre
ek, T
aile
vu
Sep-
01
U
SP 5
296
Kuh
liida
eK
uhlia
mun
da
Lau
Isla
nd
Apr
82
U
SNM
002
3669
0
Kuh
liida
eK
uhlia
mun
da
Tobo
u C
reek
, Lak
eba
Dec
-03
W
ildlif
e C
onse
rvat
ion
Soci
ety
Kuh
liida
eK
uhlia
mun
da
Nak
asal
eka
Cre
ek n
ear N
akor
onaw
a V
illag
e in
Kad
avu
Dec
-03
W
ildlif
e C
onse
rvat
ion
Soci
ety
Kuh
liida
eD
ules
rupe
stri
s = K
uhlia
ru
pest
ris
Fiji
Fow
ler 1
931,
193
4 an
d 19
59
Kuh
liida
eD
ules
rupe
stri
s = K
uhlia
ru
pest
ris
Ova
lau
Gün
ther
188
0 an
d 18
59 in
Fo
wle
r 195
9 K
uhlii
dae
Dul
es ru
pest
ris =
Kuh
lia
rupe
stri
sV
iti L
evu
Schm
eltz
187
4 in
Fow
ler
1959
Kuh
liida
eK
uhlia
rupe
stris
Fi
ji
Bou
leng
er 1
895
in F
owle
r 19
59, W
hitle
y 19
27, a
nd
Fow
ler 1
928
Kuh
liida
eK
uhlia
rupe
stris
R
ewa
Riv
er
Her
re 1
936
Kuh
liida
eTh
erap
on u
nico
lor =
Kuh
lia
rupe
stri
sK
anda
vu =
Kad
avu
Kne
r 186
8 in
Fow
ler 1
959
Kuh
liida
eTh
erap
on u
nico
lor =
Kuh
lia
rupe
stri
sFi
ji
W
hitle
y 19
28 in
Fow
ler 1
959
Kuh
liida
eK
uhlia
rupe
stris
Su
va
Apr
-33
C
AS
5915
Kuh
liida
eK
uhlia
rupe
stris
N
amar
a R
iver
nea
r Sa
nim
a V
illag
e in
K
adav
uD
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Kuh
liida
eK
uhlia
rupe
stris
K
oroi
vonu
Riv
er, N
ala
Vill
age
(Nat
ewa
Peni
sula
r)
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Kuh
liida
eK
uhlia
rupe
stris
M
id B
uca
Riv
er (N
atew
a Pe
nisu
lar)
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3K
uhlii
dae
Kuh
lia ru
pest
ris
Upp
er B
a R
iver
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3K
uhlii
dae
Kuh
lia ru
pest
ris
Mid
-Upp
er N
akaw
akaw
a R
iver
nea
r N
akaw
akaw
a V
illag
e A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3K
uhlii
dae
Kuh
lia ru
pest
ris
Wai
man
u R
iver
D
ec-0
2
FIT
Col
lect
ions
200
2
194
Kuh
liida
eK
uhlia
rupe
stris
M
id W
ainu
nu R
iver
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3K
uhlii
dae
Kuh
lia ru
pest
ris
Upp
er D
ama
Riv
er n
ear D
riti V
illag
e A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3K
uhlii
dae
Kuh
lia ru
pest
ris
Low
er N
asav
u R
iver
nea
r Viti
na V
illag
e A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3K
uhlii
dae
Kuh
lia ru
pest
ris
Inte
rior 7
05 m
B
MN
H 1
986.
6.6.
2
Kuh
liida
eK
uhlia
rupe
stris
Sa
vura
Cre
ek
Sep-
01
U
SP 4
950
Kuh
liida
eK
uhlia
rupe
stris
M
id R
ewa
Riv
er
B
MN
H 1
984.
11.6
.2-3
Kuh
liida
eK
uhlia
rupe
stris
R
ewa
Riv
er m
outh
A
MS
I .24
637-
001
Kuh
liida
eK
uhlia
rupe
stris
W
aini
susu
Riv
er
Jul-0
2
D B
oset
o co
llect
ion
Kuh
liida
eK
uhlia
rupe
stris
U
pper
Rew
a R
iver
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3 K
uhlii
dae
Kuh
lia ru
pest
ris
Wai
sere
Cre
ek, T
aile
vu
Sep-
01
U
SP 5
294
Kuh
liida
eK
uhlia
rupe
stris
N
aivu
tini a
nd W
aina
savu
la R
iver
Ju
l-02
D B
oset
o co
llect
ion
Kuh
liida
eK
uhlia
rupe
stris
C
onflu
ence
of W
aini
vodi
and
Wai
nsav
ulev
u R
iver
May
-77
Inst
Nat
. Res
ourc
es =
IAS
Kuh
liida
eK
uhlia
rupe
stris
W
aisa
i Cre
ek
Sep-
04
Jenk
ins 2
004
Lact
ariid
ae
Lact
ariu
s lac
tari
us
Rew
a R
iver
mou
th
May
-82
U
SNM
002
5995
3
Leio
gnat
hida
e G
azza
min
uta
Fiji
Isla
nds
Lew
is a
nd P
ring
1986
Leio
gnat
hida
e Le
iogn
athu
s equ
ulus
Ta
mav
ua R
iver
W
aqai
ratu
200
3
Leio
gnat
hida
e Le
iogn
athu
s equ
ulus
N
alas
e C
reek
W
aqai
ratu
200
3
Leio
gnat
hida
e Le
iogn
athu
s equ
ula
=
Leio
gnat
hus e
quul
us
Bur
eta
Riv
er
Mar
-29
Fo
wle
r 195
9: 5
84
Leio
gnat
hida
e Le
iogn
athu
s fas
ciat
us
Fiji
Isla
nds
Lew
is a
nd P
ring
1986
Leio
gnat
hida
e Le
iogn
athu
s spl
ende
ns
Lauc
ala
Bay
J.
Seet
o pe
rs c
omm
..
Leth
rinid
ae
Leth
rinu
s har
ak
Wai
nado
i Riv
er
Jun
82
U
SNM
002
5939
0
Leth
rinid
ae
Leth
rinu
s har
ak
Kub
una
Cre
ek
May
-65
U
SNM
003
4943
4
Leth
rinid
ae
Leth
rinu
s har
ak
Fiji
Fow
ler 1
928,
193
1 an
d 19
33
Leth
rinid
ae
Leth
rinu
s har
ak
Suva
Jo
rdan
and
Dic
kson
190
8
Leth
rinid
ae
Leth
rinu
s har
ak
Fiji
Whi
tley
1927
Leth
rinid
ae
Leth
rinu
s ret
icul
atus
K
ubun
a C
reek
A
ug-6
3
USN
M 0
0349
305
Leth
rinid
ae
Leth
rinu
s ret
icul
atus
Fi
ji
Fo
wle
r 192
8, 1
931
and
1933
Leth
rinid
ae
Leth
rinu
s moe
nsi =
Let
hrin
us
retic
ulat
usK
adav
u
G
ünth
er 1
880
in F
owle
r 195
9
Lutja
nida
eLu
tjanu
s arg
entim
acul
atus
Fi
ji
Fo
wle
r 192
8, 1
931
and
1934
195
Lutja
nida
eLu
tjanu
s arg
entim
acul
atus
Su
va
Her
re 1
936
Lutja
nida
eLu
tjanu
s arg
entim
acul
atus
N
aiko
roko
ro C
reek
M
ay-8
2
USN
M 0
0258
890
Lutja
nida
eLu
tjanu
s arg
entim
acul
atus
N
aiko
roko
ro C
reek
R
yan
1980
Lutja
nida
eLu
tjanu
s arg
entim
acul
atus
W
aina
doi R
iver
J
un 8
2
USN
M 0
0258
895
Lutja
nida
eLu
tjanu
s arg
entim
acul
atus
N
aqar
a Is
land
J
un 8
2
USN
M 0
0258
864
Lutja
nida
eLu
tjanu
s arg
entim
acul
atus
Ta
mav
ua R
iver
W
aqai
ratu
200
3
Lutja
nida
eLu
tjanu
s arg
entim
acua
latu
s W
aim
anu
Riv
er
Dec
-02
FI
T C
olle
ctio
ns 2
002
Lutja
nida
eLu
tjanu
s arg
entim
acul
atus
K
oroi
vonu
Riv
er, N
ala
Vill
age
(Nat
ewa
Peni
sula
r)
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Lutja
nida
eLu
tjanu
s arg
entim
acul
atus
M
id B
uca
Riv
er (N
atew
a Pe
nisu
lar)
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3Lu
tjani
dae
Lutia
nus f
ulvi
flam
ma
=
Lutja
nus f
ulvi
flam
ma
Fi
ji
H
erre
193
6
Lutja
nida
eLu
tjanu
s ful
vifla
mm
a
Fiji
Fow
ler 1
928,
193
1 an
d 93
4
Lutja
nida
eLu
tianu
s aur
eovi
ttatu
s =
Lutja
nus f
ulvi
flam
ma
Su
va
Jo
rdan
and
Dic
kson
187
9 in
Fo
wle
r 195
9 Lu
tjani
dae
Lutia
nus a
ureo
vitta
tus =
Lu
tjanu
s ful
vifla
mm
a Fi
ji
W
hitle
y 19
27
Lutja
nida
eLu
tjanu
s ful
vifla
mm
a
Kub
una
Cre
ek
Aug
-63
U
SNM
002
9838
1
Lutja
nida
eLu
tjanu
s ful
vus
Fiji
Isla
nds
Apr
-82
U
SNM
002
6004
2
Lutja
nida
eLu
tjanu
s ful
vus
Wai
nado
i Riv
er
Jun
82
U
SNM
002
5888
6
Lutja
nida
eLu
tjanu
s ful
vus
Kub
una
Cre
ek
May
-65
U
SNM
002
9841
1
Lutja
nida
eLu
tjanu
s ful
vus
Kub
una
Cre
ek
Aug
-63
U
SNM
002
9840
9
Lutja
nida
eLu
tianu
s gib
bus =
Lut
janu
s gi
bbus
Fiji
Whi
tley
1927
Lutja
nida
eLu
tjanu
s gib
bus
Suva
Fo
wle
r 192
8, 1
931
and
1934
Lutja
nida
eLu
tjanu
s gib
bus
Rew
a R
iver
mou
th
May
-82
U
SNM
002
5995
1
Lutja
nida
eLu
tianu
s joh
nii =
Lut
janu
s jo
hnii
Fiji
Whi
tley
1927
Lutja
nida
eLu
tjanu
s joh
nii
Suva
Fow
ler 1
928
and
1934
Lutja
nida
eLu
tjanu
s joh
nii
Tam
avua
Riv
er
Waq
aira
tu 2
003
Lutja
nida
eLu
tjanu
s lun
ulat
us
Nai
koro
koro
Cre
ek
May
-82
U
SNM
002
5940
1
Lutja
nida
eLu
tjanu
s riv
ulat
us
Wai
nado
i Riv
er
Jun
82
U
SNM
002
5940
2
Lutja
nida
eLu
tjanu
s rus
selli
W
aina
doi R
iver
J
un 8
2
USN
M 0
0259
397
Lutja
nida
eLu
tjanu
s rus
selli
K
ubun
a C
reek
M
ay-6
5
USN
M 0
0292
116
Meg
alop
idae
M
egal
ops c
ypri
noid
es
Fiji
Whi
tley
1927
196
Meg
alop
idae
M
egal
ops c
ypri
noid
es
Fiji
Fow
ler 1
928
and
1931
Meg
alop
idae
M
egal
ops c
ypri
noid
es
Suva
H
erre
193
6
Meg
alop
idae
M
egal
ops c
ypri
noid
es
Suva
G
ünth
er 1
880
in F
owle
r 195
9:
26M
egal
opid
ae
Meg
alop
s cyp
rino
ides
N
adur
ulou
lou
rese
arch
stat
ion
pond
s
Le
wis
and
Prin
g 19
86
Meg
alop
idae
M
egal
ops c
ypri
noid
es
Ova
lau
Isla
nd
Gün
ther
188
0 in
Fow
ler 1
959:
26
Meg
alop
idae
M
egal
ops c
ypri
noid
es
Fiji
Isla
nds
Sep-
86
Lew
is a
nd P
ring
1986
Mon
odac
tylid
ae
Pset
tus a
rgen
teus
=
Mon
odac
tylu
s arg
ente
us
Levu
ka
Gün
ther
188
0 in
Fow
ler 1
959
Mon
odac
tylid
ae
Mon
odac
tylu
s arg
ente
us
Fiji
Whi
tley
1927
Mon
odac
tylid
ae
Mon
odac
tylu
s arg
ente
us
Fiji
Fow
ler 1
928,
193
1 an
d 19
34
Mon
odac
tylid
ae
Mon
odac
tylu
s arg
ente
us
Wai
nado
i Riv
er
Jun
82
U
SNM
002
5889
4
Mon
odac
tylid
ae
Mon
odac
tylu
s arg
ente
us
Ova
lau
Isla
nd
B
MN
H 1
879.
5.14
.338
Mor
ingu
idae
M
orin
gua
abbr
evia
ta
Viti
levu
Schm
rltz
1879
in F
owle
r 19
59M
orin
guid
ae
Mor
ingu
a ab
brev
iata
Fi
ji
Whi
tley
1927
Mor
ingu
idae
Ap
htha
lmic
hthy
s abb
revi
atus
=
Mor
ingu
a ab
brev
iata
N
ukul
au Is
land
Her
re 1
936
Mor
ingu
idae
Ra
tabo
ura
abbr
evia
te =
M
orin
gua
abbr
evia
ta
Nam
usi =
Nam
osi P
rovi
nce
Fo
wle
r 195
9: 6
8 fr
om F
owle
r 19
28M
orin
guid
ae
Mor
ingu
a m
acro
cepa
la =
M
orin
gua
mac
roce
phal
us
Kan
athe
a =
Kan
acea
Isla
nd
Gün
ther
191
0 in
Fow
ler 1
959:
67
Mor
ingu
idae
M
orin
gua
mac
roce
phal
a =
M
orin
gua
mac
roce
phal
us
Fiji
Her
re 1
936
Mor
ingu
idae
M
orin
gua
mac
roce
phal
a =
M
orin
gua
mac
roce
phal
us
Fiji
Fow
ler 1
959:
68
Mor
ingu
idae
Ap
htha
lmic
hthy
s m
acro
ceph
alus
= M
orin
gua
mac
roce
phal
us
Fiji
Fow
ler 1
928
Mor
ingu
idae
Ra
tabo
ura
mac
roce
phal
a =
M
orin
gua
mac
roce
phal
us
Fiji
Fow
ler 1
934
Mor
ingu
idae
N
eoco
nger
tube
rcul
atus
Lo
wer
Rew
a R
iver
C
AS
6026
1
Mug
ilida
eC
estr
aeus
plic
atili
s W
aim
ani R
iver
11
3 Fo
wle
r 195
9; R
yan,
198
0;
Lew
is a
nd P
ring
1986
M
ugili
dae
Ces
trae
us p
licat
ilis
Fiji
Fo
wle
r 19
28, 1
931
and
1934
M
ugili
dae
Gon
osto
myx
us lo
a-lo
a =
C
estr
aeus
plic
atili
s W
ai M
anu
= W
aim
anu
M
acdo
nald
186
9 in
Fow
ler
1959
Mug
ilida
eAg
onos
tom
a pl
icat
ile =
C
estr
aeus
plic
atili
s V
iti
Schm
eltz
188
1 in
Fow
ler
1959
197
Mug
ilida
eAg
onos
tom
us lo
aloa
=
Ces
trae
us p
licat
ilis
Fiji
W
hitle
y 19
27
Mug
ilida
eC
reni
mug
il cr
enila
bis
Lau
Isla
nd
Apr
82
U
SNM
002
5971
3
Mug
ilida
eM
ugil
tade
= C
reni
mug
il cr
enila
bis
Suva
Fo
wle
r 192
8 an
d 19
59
Mug
ilida
eM
ugil
tade
= C
reni
mug
il cr
enila
bis
Nuk
ulau
Isla
nd
Fow
ler 1
949
Mug
ilida
eM
ugil
deci
mra
diat
us =
C
reni
mug
il cr
enila
bis
Kan
davu
= K
adav
u
Sc
hmel
tz 1
869
and
Pöhl
188
4 in
Fow
ler 1
959
Mug
ilida
eM
ugil
Kan
dave
nsis
=
Cre
nim
ugil
cren
ilabi
sFi
ji
W
hitle
y 19
27
Mug
ilida
eM
ugil
kand
aven
sis =
C
reni
mug
il cr
enila
bis
Kan
davu
= K
adav
u
H
erre
193
6
Mug
ilida
eM
ugil
mac
role
pis =
Liz
a m
acro
lepi
sSu
va
Fow
ler 1
928,
193
1, 1
934
and
1949
Mug
ilida
eLi
za tr
osch
eli =
Liz
a m
acro
lepi
sFi
ji
W
hitle
y 19
27
Mug
ilida
eLi
za tr
osch
eli =
Liz
a m
acro
lepi
sSu
va
Seal
e 19
35 a
nd H
erre
193
6
Mug
ilida
eLi
za m
acro
lepi
s To
bou
Cre
ek, L
akeb
a D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Mug
ilida
eLi
za m
elin
opte
ra
Kad
avu
Isla
nd
B
MN
H 1
877.
4.18
.2
Mug
ilida
eLi
za m
elin
opte
ra
Wai
man
u R
iver
D
ec-0
2 48
FI
T C
olle
ctio
ns 2
002
Mug
ilida
eLi
za m
elin
opte
ra
Rew
a de
lta
Lew
is a
nd P
ring
1986
Mug
ilida
eLi
za m
elin
opte
ra
Suva
Jord
an a
nd D
icks
on 1
908
and
Her
re 1
936
Mug
ilida
eLi
za m
elin
opte
rus =
Liz
a m
elin
opte
raFi
jiW
hitle
y 19
27
Mug
ilida
eM
ugil
vaig
iens
is =
Liz
a m
elin
opte
raFi
jiFo
wle
r 192
8, 1
931
and
1934
Mug
ilida
eM
ugil
mel
inop
teru
s = L
iza
mel
inop
tera
Suva
Fow
ler 1
949
and
1959
Mug
ilida
eLi
za su
bvir
idis
Ta
mav
ua R
iver
W
aqai
ratu
200
3
Mug
ilida
eLi
za su
bvir
idis
N
alas
e C
reek
W
aqai
ratu
200
3
Mug
ilida
eM
ugil
duss
umie
ri =
Liz
a su
bvir
idis
Fiji
Fow
ler 1
928,
193
1 an
d 19
59
Mug
ilida
eM
ugil
duss
umie
ri =
Liz
a su
bvir
idis
Suva
Har
bour
H
erre
193
6
Mug
ilida
eLi
za v
aigi
ensi
s La
u Is
land
A
pr 8
2
USN
M 0
0259
712
Mug
ilida
eLi
za v
aigi
ensi
s R
ewa
Riv
er m
outh
M
ay-8
2
USN
M 0
0259
679
Mug
ilida
eLi
za v
aigi
ensi
s Fi
ji
W
hitle
y 19
27
Mug
ilida
eLi
za v
aigi
ensi
s R
eef b
etw
een
Suva
and
Nuk
ulau
Isla
nd
Her
re 1
936
198
Mug
ilida
eM
ugil
vaig
iens
is =
Liz
a
vaig
iens
isSu
va
Fow
ler 1
928,
193
1, 1
934
and
1959
Mug
ilida
eEl
loch
elon
vai
gien
sis =
Liz
ava
igie
nsis
Suva
Fo
wle
r 194
9
Mug
ilida
eM
ugil
ceph
alus
R
iver
flow
ing
into
Suv
a H
arbo
ur
Mar
-29
CA
S 24
817
Mug
ilida
eM
ugil
ceph
alus
V
akan
o C
reek
, Lak
eba
Dec
-03
W
ildlif
e C
onse
rvat
ion
Soci
ety
Mug
ilida
eM
ugil
ceph
alus
To
bou
Cre
ek, L
akeb
a D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Mug
ilida
eM
ugil
ceph
alus
N
ukun
uku
Cre
ek, L
akeb
a D
ec-0
3
Wild
life
Con
serv
atio
n So
ciet
y
Mug
ilida
eVa
lam
ugil
buch
anan
i W
aim
anu
Riv
er
Dec
-02
115
FIT
Col
lect
ions
200
2
Mug
ilida
eVa
lam
ugil
sehe
li R
iver
flow
ing
into
Suv
a H
arbo
ur
Rya
n 19
80
Mug
ilida
eLi
za c
aeru
leam
acul
ata
=
Vala
mug
il se
heli
Suva
Jo
rdan
and
Dic
kers
on 1
908
and
Whi
tley
1927
M
ugili
dae
Mug
il se
heli
= V
alam
ugil
sehe
liSu
va
Fow
ler 1
928,
193
1, 1
934,
19
49 a
nd 1
959
Mug
ilida
eLi
za se
heli
= V
alam
ugil
sehe
liSu
va H
arbo
ur
Her
re 1
936
Mul
lidae
Paru
pene
us in
dicu
s R
ewa
Riv
er m
outh
M
ay-8
2
USN
M 0
0259
955
Mul
lidae
Pseu
dupe
neus
indi
cus =
Pa
rupe
neus
indi
cus
Fiji
Whi
tley
1927
and
Fow
ler
1959
Mul
lidae
Upe
neus
sulp
hure
us
Kub
una
Cre
ek
May
-65
U
SNM
002
6768
8
Mul
lidae
Upe
neus
sulp
hure
us
Tam
avua
Riv
er
Waq
aira
tu 2
003
Mul
lidae
Upe
neoi
des s
ulph
ureu
s =
Upe
neus
sulp
hure
us
Suva
Ken
dall
and
Gol
dsbo
roug
h 19
11 in
Fow
ler 1
959
Mul
lidae
Upe
neus
sulp
hure
us
Fiji
Whi
tley
1927
Mul
lidae
Upe
neus
sulp
hure
us
Suva
Fow
ler 1
932,
193
4 an
d 19
59
Mul
lidae
Upe
neus
vitt
atus
N
aiko
roko
ro C
reek
M
ay-8
2
USN
M 0
0259
943
Mul
lidae
Upe
neus
vitt
atus
W
aina
doi R
iver
J
un 8
2
USN
M 0
0259
941
Mul
lidae
Upe
neus
vitt
atus
K
ubun
a C
reek
A
ug-6
3
USN
M 0
0267
658
Mul
lidae
Upe
neus
vitt
atus
K
ubun
a C
reek
M
ay-6
5
USN
M 0
0267
724
Mul
lidae
Upe
neus
vitt
atus
O
vala
u Is
land
B
MN
H 1
879.
5.14
.161
Mul
lidae
Upe
neus
vitt
atus
Fi
jiW
hitle
y 19
27
Mul
lidae
Upe
neus
vitt
atus
Su
vaFo
wle
r 193
2, 1
933,
193
4 an
d 19
59
Mul
lidae
Upe
neoi
des v
ittat
us
=U
pene
us v
ittat
us
Suva
Fow
ler 1
928
and
1931
Mur
aene
soci
dae
Mur
aene
sox
cine
reus
Su
va
Jo
rdan
and
Dic
kers
on 1
908
Mur
aene
soci
dae
Mur
aene
sox
cine
reus
Fi
jiW
hitle
y 19
27
199
Mur
aene
soci
dae
Mur
aene
sox
arab
icus
=
Mur
aene
sox
cine
reus
Fi
ji
Fo
wle
r 193
4 an
d 19
59: 5
2
Mur
aene
soci
dae
Mur
aene
sox
cine
reus
Fi
ji Is
land
s
Le
wis
and
Prin
g 19
86
Mur
aeni
dae
Lyco
dont
is fa
vagi
nea
=
Gym
noth
orax
fava
gine
us
Nar
okor
okay
awa
Cre
ek
Fow
ler 1
931,
193
4 an
d 19
59:
76M
urae
nida
eG
ymno
thor
ax fa
vagi
neus
Su
va H
arbo
ur
Her
re 1
936
Mur
aeni
dae
Gym
noth
orax
pic
tus
Rew
a R
iver
mou
th
May
-82
U
SNM
002
5741
2
Mur
aeni
dae
Gym
noth
orax
pic
tus
Suva
Jo
rdan
and
Dic
kers
on 1
908
Mur
aeni
dae
Gym
noth
orax
pic
tus
Nuk
ulau
Isla
nd
Her
re 1
936
Mur
aeni
dae
Gym
noth
orax
(Sid
erea
) pic
tus
= G
ymno
thor
ax p
ictu
sFi
ji
W
hitle
y 19
27
Mur
aeni
dae
Lyco
dont
is p
icta
=
Gym
noth
orax
pic
tus
Suva
Fo
wle
r 192
8 an
d 19
59
Mur
aeni
dae
Gym
noth
orax
pol
yura
nodo
n W
aim
anu
Riv
er
Dec
-02
FI
T C
olle
ctio
ns 2
002
Mur
aeni
dae
Gym
noth
orax
pol
yura
nodo
n O
vala
u Is
land
B
MN
H 1
879.
5.14
.456
Mur
aeni
dae
Lyco
dont
is p
olyu
rand
on =
G
ymno
thor
ax p
olyu
rano
don
Fiji
Isla
nds
Mar
-29
Fo
wle
r 19
28, 1
931
and
1959
: 57
5M
urae
nida
eG
ymno
thor
ax p
olyu
rano
don
Mid
-Upp
er N
akaw
akaw
a R
iver
nea
r N
akaw
akaw
a V
illag
e A
ug-0
3 10
3 J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Mur
aeni
dae
Gym
noth
orax
pol
yura
nodo
n Fi
jiW
hitle
y 19
27
Mur
aeni
dae
Lyco
dont
is u
ndul
ate
=
Gym
noth
orax
und
ulat
a Su
va
Fo
wle
r 19
28, 1
931,
193
4 an
d 19
59: 7
6 M
urae
nida
eG
ymno
thor
ax u
ndul
ates
and
G
. ste
llatu
s = G
ymno
thor
ax
undu
lata
Fiji
Whi
tley
1927
Mur
aeni
dae
Gym
noth
orax
und
ulat
es =
G
ymno
thor
ax u
ndul
ata
Suva
and
Nuk
ulau
Isla
nd
Her
re 1
936
Mur
aeni
dae
Uro
pter
ygiu
s con
colo
r N
aqar
a Is
land
J
un 8
2
USN
M 0
0259
877
Mur
aeni
dae
Uro
pter
ygiu
s con
colo
r Ta
mav
ua R
iver
W
aqai
ratu
200
3
Oph
icht
hida
eC
aecu
la b
icol
or =
La
mno
stom
a bi
colo
r N
amus
i = N
amos
i Pro
vinc
e
Fow
ler
1928
, 193
1 an
d 19
59:
62O
phic
hthi
dae
Spha
gebr
anch
us b
icol
or =
La
mno
stom
a bi
colo
r N
amus
i = N
amos
i Pro
vinc
e
Sc
hmel
tz 1
869
in F
owle
r 19
59O
phic
hthi
dae
Oph
icht
hys
bico
lor =
La
mno
stom
a bi
colo
r Fi
ji
W
hitle
y 19
27
Oph
icht
hida
eAc
hiro
phic
hthy
s kam
peni
=
Lam
nost
oma
kam
peni
D
obui
levu
Riv
er n
ear r
esea
rch
stat
ion
Sep-
86
Le
wis
and
Prin
g 19
86
Oph
icht
hida
eLa
mno
stom
a ka
mpe
niW
aim
anu
Riv
er
Dec
-02
FI
T C
olle
ctio
ns 2
002
200
Oph
icht
hida
eAc
hiro
phic
hthy
s kam
peni
=
Lam
nost
oma
kam
peni
Sovi
Riv
er
Sep-
86
Le
wis
and
Prin
g 19
86
Oph
icht
hida
ePi
sodo
noph
is sc
hapi
i =
Piso
dono
phis
can
criv
orus
N
amus
i = N
amos
i Pro
vinc
e
Fo
wle
r 19
28, 1
931,
193
4 an
d an
d 19
59: 6
0 O
phic
hthi
dae
Piso
dono
phis
scha
pii =
Pi
sodo
noph
is c
ancr
ivor
us
Nam
usi =
Nam
osi P
rovi
nce
Schm
eltz
186
9 in
Fow
ler
1959
Oph
icht
hida
ePi
sodo
noph
is c
ancr
ivor
us
Fiji
Whi
tley
1927
Oph
icht
hida
eC
aecu
la lu
mbr
icoi
des =
Yi
rrka
la lu
mbr
icoi
des
Nam
usi =
Nam
osi P
rovi
nce
Fo
wle
r 192
8 an
d 19
59: 6
3
Oph
icht
hida
eSp
hage
bran
chus
lum
bric
oide
s =
Yir
rkal
a lu
mbr
icoi
des
Nam
usi =
Nam
osi P
rovi
nce
Sc
hmel
tz 1
869
in F
owle
r 19
59O
phic
hthi
dae
Yirr
kala
lum
bric
oide
s Su
va
Seal
e 19
35
Poec
iliid
aeG
ambu
sia
affin
is
Upp
er R
ewa
Riv
er
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Poec
iliid
aeG
ambu
sia
affin
is
Wai
man
u R
iver
D
ec-0
2
FIT
Col
lect
ions
200
2
Poec
iliid
aeG
ambu
sia
affin
isN
adur
ulou
lou
rese
arch
stat
ion
pond
s Se
p-01
USP
494
9
Poec
iliid
aeG
ambu
sia
affin
is
Wai
sere
Cre
ek, T
aile
vu
Sep-
01
U
SP 5
299
Poec
iliid
aeG
ambu
sia
affin
is
Upp
er B
a R
iver
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3Po
ecili
idae
Gam
busi
a af
finis
M
id B
a R
iver
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3Po
ecili
idae
Gam
busi
a af
finis
Su
va
Jul 7
5
USN
M 0
0246
459
Poec
iliid
aePo
ecili
a m
exic
ana
Con
fluen
ce o
f Wai
nivo
di a
nd W
ains
avul
evu
Riv
erM
ay-7
7 In
st N
at. R
esou
rces
= IA
S
Poec
iliid
aePo
ecili
a m
exic
ana
Suva
R
yan
1980
; And
rew
s 198
5;
Lew
is a
nd P
ring
1986
Po
ecili
idae
Poec
ilia
retic
ulat
a Su
va
Rya
n 19
80; A
ndre
ws 1
985;
Le
wis
and
Prin
g 19
86
Poec
iliid
aeXi
phop
horu
s hel
leri
Su
va
Lew
is a
nd P
ring
1986
Po
ecili
idae
Xiph
opho
rus h
elle
ri
pond
at T
amav
ua
Rya
n 19
80: 6
7; L
ewis
and
Pr
ing
1986
Po
lyne
mid
ae
Poly
dact
ylus
mic
rost
oma
Fiji
Isla
nds
Lew
is a
nd P
ring
1986
Poly
nem
idae
Po
lyda
ctyl
us p
lebe
ius
Rew
a R
iver
mou
th
May
-82
U
SNM
002
7819
3 Po
lyne
mid
ae
Poly
dact
ylus
ple
beiu
s Su
va
Jord
an a
nd D
icke
rson
190
8 Po
lyne
mid
ae
Poly
dact
ylus
ple
beiu
s Fi
ji
Fo
wle
r 192
8, 1
931,
193
4 an
d 19
59
Poly
nem
idae
Po
lyne
mus
ple
beiu
s =
Poly
dact
ylus
ple
beiu
s Fi
ji
W
hitle
y 19
27
Scat
opha
gida
eSc
atop
hagu
s arg
us
Nai
koro
koro
Cre
ek
Rya
n 19
80
Scat
opha
gida
eSc
atop
hagu
s arg
us
Nai
koro
koro
Cre
ek
May
-82
U
SNM
002
5938
3
201
Scat
opha
gida
eSc
atop
hagu
s arg
us
Dra
vo V
illag
e Fe
b-02
CA
S 21
6854
Scat
opha
gida
eSc
atop
hagu
s arg
us
Wai
man
u R
iver
D
ec-0
2 77
FI
T C
olle
ctio
ns 2
002
Scor
paen
idae
Den
droc
hiru
s bra
chyp
teru
s R
ewa
Riv
er m
outh
M
ay-8
2 C
AS
6478
7
Scor
paen
idae
Den
droc
hiru
s bra
chyp
teru
s Fi
jiFo
wle
r 192
8, 1
931
and
1934
Scor
paen
idae
Brac
hyru
s bra
chyp
teru
s =
Den
droc
hiru
s bra
chyp
teru
s Fi
jiFo
wle
r 195
9:34
7
Scor
paen
idae
Brac
hyru
s bra
chyp
teru
s =
Den
droc
hiru
s bra
chyp
teru
s K
anda
vu =
Kad
avu
Sc
hmet
lz 1
879
in F
owle
r 19
59Sc
orpa
enid
aePt
eroi
s sau
sual
ele
=
Den
droc
hiru
s bra
chyp
teru
s Su
vaJo
rdan
and
Dic
kers
on 1
908
Scor
paen
idae
Pter
ois (
Brac
hiru
s)
saus
uale
le =
Den
droc
hiru
s br
achy
pter
us
Fiji
Whi
tley
1927
Scor
paen
idae
Den
droc
hiru
s zeb
ra
Rew
a R
iver
mou
th
May
-82
CA
S 64
790
Scor
paen
idae
Den
droc
hiru
s zeb
ra
Kad
avu
Isla
nd
May
82
U
SNM
col
lect
ion
Scor
paen
idae
Den
droc
hiru
s zeb
ra
Fiji
Fow
ler 1
928
and
1931
Scor
paen
idae
Brac
hyru
s zeb
ra =
D
endr
ochi
rus z
ebra
Fi
ji
Fo
wle
r 195
9:34
6
Scor
paen
idae
Brac
hyru
s zeb
ra =
D
endr
ochi
rus z
ebra
V
iti L
evu
Schm
eltz
187
9 in
Fow
ler
1959
Scor
paen
idae
Pter
ois (
Brac
hiru
s) ze
bra
=
Den
droc
hiru
s zeb
ra
Fiji
Whi
tley
1927
Scor
paen
idae
Scor
paen
opsi
s mac
roch
ir
Rew
a R
iver
mou
th
May
-82
U
SNM
002
6624
2
Scor
paen
idae
Tetr
arog
e ni
ger
Kub
una
Cre
ek
May
-65
CA
S 31
257
Serr
anid
ae
Prom
icro
ps la
nceo
latu
s =
Epin
ephe
lus l
ance
olat
us
Fiji
Whi
tley
1931
in F
owle
r 195
9 an
d Fo
wle
r 195
5 an
d 19
59
Serr
anid
ae
Serr
anus
lanc
eola
tus =
Ep
inep
helu
s lan
ceol
atus
Fi
ji
Fo
wle
r 192
8 an
d 19
31
Serr
anid
ae
Epin
ephe
lus l
ance
olat
us
Fiji
Isla
nds
Lew
is a
nd P
ring
1986
Serr
anid
ae
Epin
ephe
lus m
alab
aric
usW
aina
doi R
iver
J
un 8
2
USN
M 0
0269
102
Serr
anid
ae
Ephi
neph
elus
pan
ther
inus
=
Epin
ephe
lus m
alab
aric
usFi
ji
W
hitle
y 19
27
Serr
anid
ae
Serr
anus
mal
abar
icus
=
Epin
ephe
lus m
alab
aric
usFi
ji
Fo
wle
r 193
1 an
d 19
34
Siga
nida
eSi
ganu
s ver
mic
ulat
us
Wai
nado
i Riv
er
Jun
82
U
SNM
002
5655
5
Siga
nida
eSi
ganu
s ver
mic
ulat
us
Kub
una
Cre
ek
May
-65
U
SNM
003
1758
4
Siga
nida
eSi
ganu
s ver
mic
ulat
us
Tam
avua
Riv
er
Waq
aira
tu 2
003
Siga
nida
eSi
ganu
s ver
mic
ulat
us
Rew
a R
iver
mou
th
May
-82
U
SNM
002
5655
4
202
Siga
nida
eSi
ganu
s ver
mic
ulat
us
Fiji
Whi
tley
1927
and
Fow
ler
1928
and
193
1 Si
gani
dae
Siga
nus v
erm
icul
atus
Su
va
Fow
ler
1932
, 193
4 an
d 19
59
Siga
nida
eTe
nthi
s ver
mic
ulat
a =
Si
ganu
s ver
mic
ulat
us
Kan
davu
= K
adav
u
Sc
hmet
lz 1
869
in F
owle
r 19
59Si
gani
dae
Tent
his v
erm
icul
atus
=
Siga
nus v
erm
icul
atus
K
anda
vu =
Kad
avu
Schm
etlz
187
9 in
Fow
ler
1959
Sphy
raen
idae
Sphy
raen
a ob
tusa
ta
Fiji
Gün
ther
187
7 in
Fow
ler 1
959
and
Whi
tley
1927
Sp
hyra
enid
aeSp
hyra
ena
obtu
sata
Su
va
Fow
ler 1
928
and
1959
Syng
nath
idae
H
ippi
chth
ys c
yano
spilo
sSo
uth
Dra
unib
ota
Isla
nd
May
-65
U
SNM
002
1748
1
Syng
nath
idae
H
ippi
chth
ys c
yano
spilo
sFi
ji
D
awso
n 19
85 a
nd K
uite
r 20
00Sy
ngna
thid
ae
Hip
pich
thys
spic
ifer
Nai
koro
koro
Cre
ek
May
-82
U
SNM
002
3576
6
Syng
nath
idae
H
ippi
chth
ys sp
icife
r K
ubun
a C
reek
M
ay-6
5
USN
M 0
0217
490
Syng
nath
idae
H
ippi
chth
ys sp
icife
r K
adav
u Is
land
M
ay 8
2
USN
M 0
0235
758
Syng
nath
idae
H
ippi
chth
ys sp
icife
r La
u Is
land
A
pr 8
2
USN
M 0
0235
757
Syng
nath
idae
M
icro
gnat
hus s
uven
sis =
H
ippi
chth
ys sp
icife
r Su
va
Her
re 1
953
in K
uite
r 200
0
Syng
nath
idae
Sy
ngna
thus
spic
ifer =
H
ippi
chth
ys sp
icife
r Su
va
Fow
ler 1
928,
193
2, 1
934
and
1959
and
Sea
le 1
935
Syng
nath
idae
M
icro
phis
arg
ulus
W
aini
bau
Cre
ek, T
aveu
ni
1980
Rya
n 19
80, 1
981
Syng
nath
idae
M
icro
phis
arg
ulus
Fi
ji
K
uite
r 200
0
Syng
nath
idae
M
icro
phis
bra
chyu
rus
brac
hyur
us
Low
er S
igat
oka
Riv
er
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Syng
nath
idae
M
icro
phis
bra
chyu
rus
brac
hyur
us
Nai
koro
koro
Cre
ek
Rya
n 19
80
Syng
nath
idae
M
icro
phis
bra
chyu
rus
=
Mic
roph
is b
rach
yuru
s br
achy
urus
Ova
lau
Isla
nd
Fow
ler 1
959:
136
Syng
nath
idae
M
icro
phis
bre
vido
rsal
is
Mid
Rew
a R
iver
A
pr-5
3
USN
M 0
0163
542
Syng
nath
idae
M
icro
phis
bre
vido
rsal
is
Nai
koro
koro
Cre
ek
May
-82
U
SNM
002
3577
0
Syng
nath
idae
M
icro
gnat
hus b
revi
dors
alis
=
Mic
roph
is b
revi
dors
alis
Su
va
Her
re 1
936
Syng
nath
idae
M
icro
gnat
hus b
revi
dors
alis
=
Mic
roph
is b
revi
dors
alis
Fi
ji
Fo
wle
r 195
9
Syng
nath
idae
M
icro
phis
bre
vido
rsal
is
Fiji
Kui
ter 2
000
Syng
nath
idae
M
icro
phis
leia
spis
Lo
wer
Wai
niko
ro R
iver
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3
203
Syng
nath
idae
C
oelo
notu
s lei
aspi
s =
Mic
roph
is le
iasp
is
Suva
Fo
wle
r 192
8, 1
931
and
1959
: 13
4 an
d Se
ale
1935
Sy
ngna
thid
ae
Mic
roph
is le
iasp
is
Low
er N
asav
u R
iver
A
ug-0
3
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3 Sy
ngna
thid
ae
Mic
roph
is le
iasp
is
Wai
man
u R
iver
at S
awan
i
86
Rya
n, 1
980;
Lew
is a
nd P
ring
1986
Syng
nath
idae
M
icro
phis
leia
spis
K
oroi
vonu
Riv
er, N
ala
Vill
age
(Nat
ewa
Peni
sula
r)
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Syng
nath
idae
M
icro
phis
leia
spis
M
id-U
pper
Nak
awak
awa
Riv
er n
ear
Nak
awak
awa
Vill
age
Aug
-03
90
J. Po
gono
wsk
i in
Jenk
ins a
nd
Bos
eto
200
3
Syng
nath
idae
M
icro
phis
leia
spis
Fi
ji
D
awso
n 19
85 a
nd K
uite
r 20
00
Syng
nath
idae
M
icro
phis
retz
ii Ta
vuki
Cre
ek in
Kad
avu
Dec
-03
W
ildlif
e C
onse
rvat
ion
Soci
ety
Syng
nath
idae
M
icro
phis
retz
ii lo
wer
Wai
niko
ro R
iver
nea
r Nas
asa
Vill
age
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Syng
nath
idae
M
icro
phis
retz
iiW
aini
bau
Cre
ek, T
aveu
ni
1980
Rya
n 19
80
Syng
nath
idae
M
icro
phis
retz
ii W
aise
re C
reek
, Tai
levu
Se
p-01
USP
col
lect
ion
Syng
nath
idae
M
icro
phis
retz
ii K
oroi
vonu
Riv
er, N
ala
Vill
age
(Nat
ewa
Peni
sula
r)
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Syng
nath
idae
M
icro
phis
retz
ii M
id-U
pper
Nak
awak
awa
Riv
er n
ear
Nak
awak
awa
Vill
age
Aug
-03
52-6
0 J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Tera
poni
dae
Mes
opri
stes
kne
ri
Suva
Rya
n 19
80
Tera
poni
dae
Mes
opri
stes
kne
ri
Nai
koro
koro
Cre
ek
May
-82
U
SNM
002
5717
3
Tera
poni
dae
Mes
opri
stes
kne
ri
Naq
ara
Isla
nd
Jun
82
U
SNM
002
5717
4 Te
rapo
nida
e M
esop
rist
es k
neri
Su
va
Feb-
51
U
SNM
001
1273
7
Tera
poni
dae
Mes
opri
stes
kne
ri
Riv
er fl
owin
g in
to S
uva
Har
bour
M
ar-2
9
CA
S 24
935
Tera
poni
dae
Mes
opri
stes
kne
ri
Tam
avua
Riv
er
Waq
aira
tu 2
003
Tera
poni
dae
Mes
opri
stes
kne
ri
R
ewa
Riv
er m
outh
19
81
A
MS
I .22
644-
001
Tera
poni
dae
Mes
opri
stes
kne
ri
Nal
ase
Cre
ek
Waq
aira
tu 2
003
Tera
poni
dae
Mes
opri
stes
kne
ri
Kad
avu
Isla
nd
May
82
U
SNM
002
3595
8
Tera
poni
dae
Mes
opri
stes
kne
ri
Lau
Isla
nd
Apr
82
U
SNM
002
3595
7
Tera
poni
dae
Ther
apon
arg
ente
us =
M
esop
rist
es k
neri
Fi
ji
W
hitle
y 19
27 a
nd F
owle
r 19
31Te
rapo
nida
e Th
erap
on a
rgen
teus
=
Mes
opri
stes
kne
ri
Suva
Har
bour
H
erre
193
6
Tera
poni
dae
Ther
apon
kne
ri =
M
esop
rist
es k
neri
Su
va
Fow
ler 1
928
Tera
poni
dae
Ther
apon
mac
ulat
es =
M
esop
rist
es k
neri
Su
va
Ken
dall
and
Gol
dsbo
roug
h 19
11 in
Fow
ler 1
959
204
Tera
poni
dae
Tera
pon
kner
i = M
esop
rist
es
kner
iSu
va
Fow
ler 1
931
and
1959
Tera
poni
dae
Tera
pon
jarb
ua
Lau
Isla
nd
Apr
82
U
SNM
002
3595
6
Tera
poni
dae
Tera
pon
jarb
ua
Low
er S
igat
oka
Riv
er
Aug
-03
J.
Pogo
now
ski
in Je
nkin
s and
B
oset
o 2
003
Tera
poni
dae
Tera
pon
jarb
ua
Sout
h D
raun
ibot
a Is
land
M
ay-6
5
USN
M 0
0332
627
Tera
poni
dae
Tera
pon
jarb
ua
Kub
una
Cre
ek
May
-65
U
SNM
003
3263
5
Tera
poni
dae
Tera
pon
jarb
ua
Kub
una
Cre
ek
Aug
-63
U
SNM
003
3264
7
Tera
poni
dae
Tera
pon
jarb
ua
Suva
Fo
wle
r 193
1, 1
932,
193
4 an
d 19
59Te
rapo
nida
e Th
erap
on ja
rbua
= T
erap
on
jarb
uaSu
va
Jord
an a
nd D
icke
rson
190
8
Tera
poni
dae
Ther
apon
jarb
ua =
Ter
apon
ja
rbua
Fiji
Whi
tley
1927
and
Fow
ler
1928
Tera
poni
dae
Ther
apon
jarb
ua =
Ter
apon
ja
rbua
Suva
Har
bour
H
erre
193
6
Tetra
odon
tidae
Ar
othr
on im
mac
ulat
us
Wai
nado
i Riv
er
Jun
82
U
SNM
002
6911
5
Tetra
odon
tidae
Ar
othr
on im
mac
ulat
us
Smal
l cre
ek a
t Lau
cala
Bay
R
yan
1980
Tetra
odon
tidae
Te
trod
on im
mac
ulat
us =
Ar
othr
on im
mac
ulat
us
Suva
Fo
wle
r 19
28, 1
931,
193
4 an
d 19
59: 5
55
Tetra
odon
tidae
Ar
othr
on im
mac
ulat
us
Rew
a R
iver
mou
th
May
-82
U
SNM
002
6914
4
Tetra
odon
tidae
Te
trao
don
imm
acul
atus
=
Arot
hron
imm
acul
atus
Fi
ji
W
hitle
y 19
27
Tetra
odon
tidae
Te
trao
don
imm
acul
atus
=
Arot
hron
imm
acul
atus
Su
va
Her
re 1
936
Tetra
odon
tidae
Ar
othr
on re
ticul
aris
Ta
mav
ua R
iver
W
aqai
ratu
200
3
Tetra
odon
tidae
Te
trod
on re
ticul
aris
=
Arot
hron
retic
ular
is
Suva
Fo
wle
r 192
8, 1
934
and
1959
: 55
2Te
traod
ontid
ae
Tetr
aodo
n re
ticul
aris
=
Arot
hron
retic
ular
is
Suva
H
erre
193
6
Tetra
odon
tidae
Te
trod
on re
ticul
aris
=
Arot
hron
retic
ular
is
Cre
eks b
ehin
d O
rchi
d Is
land
, Pac
ific
Hab
our
Rya
n 19
80
Tetra
odon
tidae
Sp
hoer
oide
s lun
aris
=
Lago
ceph
alus
luna
ris
Suva
Fo
wle
r 192
8 an
d 19
59: 5
50
and
Seal
e 19
35
Tric
hiur
idae
Tr
ichi
urus
lept
urus
Fi
ji Is
land
s
Le
wis
and
Prin
g 19
86
205
App
endi
x 4.
Fre
shw
ater
fish
es c
olle
cted
from
Fiji
from
oth
er so
urce
s, id
entif
ied
only
to g
enus
.
Fam
ily
Spec
ies c
olle
cted
L
ocal
ity (n
umbe
red
wes
t to
east
, sou
th
to n
orth
) M
onth
&
year
co
llect
ed
Sour
ce o
f Inf
orm
atio
ns
Am
bass
idae
Am
bass
is sp
.13
. Nai
koro
koro
Cre
ek
May
-82
USN
M 0
0259
387
Am
bass
idae
Am
bass
is sp
.W
aiba
u C
reek
, trib
of W
aim
anu
Riv
er
Aug
-86
Lew
is a
nd P
ring
1986
A
mba
ssid
ae
Amba
ssis
sp.
26. M
id R
ewa
Riv
er
Apr
-53
A
mba
ssid
ae
Amba
ssis
sp.
27. R
ewa
Riv
er m
outh
USN
M 0
0163
541
Am
bass
idae
Am
bass
issp
.39
. Nak
asal
eka
Cre
ek n
ear N
akor
onaw
a V
illag
e in
Kad
avu
Dec
-03
Wild
life
Con
serv
atio
n So
ciet
y A
pogo
nida
eAr
cham
iasp
.15
. Wai
nado
i Riv
er
Jun
82
USN
M 0
0261
088
Apo
goni
dae
Arch
amia
sp.
13. N
aiko
roko
ro C
reek
M
ay-8
2 U
SNM
002
6108
4 El
eotri
dae
Butis
sp.
13. N
aiko
roko
ro C
reek
M
ay-8
2 U
SNM
002
5650
8 El
eotri
dae
Butis
sp.
19. K
ubun
a C
reek
M
ay-6
5 U
SNM
003
4102
5 El
eotri
dae
Butis
sp.
20. K
ubun
a C
reek
A
ug-6
3 U
SNM
003
4102
2 El
eotri
dae
Butis
sp.
16. N
aqar
a Is
land
J
un 8
2 U
SNM
002
4179
2 El
eotri
dae
Eleo
tris
sp.
13. N
aiko
roko
ro C
reek
M
ay-8
2 U
SNM
002
5652
2 El
eotri
dae
Eleo
tris
sp.
18. S
outh
Dra
unib
ota
Isla
nd
May
-65
USN
M 0
0353
681
Eleo
trida
e El
eotr
is sp
.La
u Is
land
A
pr 8
2 U
SNM
002
5650
9 El
eotri
dae
Eleo
tris
sp.
Ova
lau
Isla
nd
B
MN
H 1
856.
9.4.
81
Eleo
trida
e El
eotr
is sp
.C
onflu
ence
of W
aini
vodi
and
W
ains
avul
evu
Riv
er
May
-77
Inst
Nat
. Res
ourc
es =
IAS
Eleo
trida
e O
phio
cara
sp.
13. N
aiko
roko
ro C
reek
M
ay-8
2 U
SNM
002
5656
2 El
eotri
dae
Oph
ioca
ra sp
.La
u is
land
A
pr 8
2 U
SNM
002
5650
5 En
grau
lidae
St
olep
horu
s sp.
16. N
aqar
a Is
land
J
un 8
2 U
SNM
002
6162
3 G
erei
dae
Ger
res s
p.27
. Rew
a R
iver
mou
th
May
-82
USN
M 0
0259
705
Gob
iidae
, Gob
iinae
Am
oya
sp.
16. N
aqar
a Is
land
J
un 8
2 U
SNM
002
4179
8 G
obiid
ae, G
obiin
ae
Bath
ygob
ius s
p.13
. Nai
koro
koro
Cre
ek
May
-82
USN
M 0
0261
772
Gob
iidae
, Gob
iinae
C
allo
gobi
ussp
.37
. Kad
avu
Isla
nd
May
82
USN
M 0
0235
959
Gob
iidae
, Gob
iinae
C
oryo
galo
ps sp
. 13
. Nai
koro
koro
Cre
ek
May
U
SNM
002
6632
4 G
obiid
ae, G
obiin
ae
Cor
yoga
lops
sp.
15. W
aina
doi R
iver
J
un 8
2 U
SNM
002
6632
3
206
Gob
iidae
, Gob
iinae
C
teno
gobi
opss
p.N
abuk
aves
i, bi
llabo
ngs b
esid
e cr
eek
Fo
wle
r 195
9: 6
12; R
yan
1980
Gob
iidae
, Gob
iinae
D
rom
bus s
p. 1
19. K
ubun
a C
reek
M
ay-6
5 U
SNM
003
5274
7 G
obiid
ae, G
obiin
ae
Dro
mbu
s sp.
120
. Kub
una
Cre
ek
Aug
-63
USN
M 0
0352
857
Gob
iidae
, Gob
iinae
D
rom
bus s
p. 1
16. N
aqar
a Is
land
J
un 8
2 U
SNM
002
4174
2 G
obiid
ae, G
obiin
ae
Dro
mbu
s sp.
118
. Sou
th D
raun
ibot
a Is
land
M
ay-6
5 U
SNM
003
5274
9 G
obiid
ae, G
obiin
ae
Dro
mbu
s sp.
113
. Nai
koro
koro
Cre
ek
May
U
SNM
002
6177
3 G
obiid
ae, G
obiin
ae
Glo
ssog
obiu
s sp.
134
. Sov
i Riv
er
Sep-
86
Lew
is a
nd P
ring
1986
G
obiid
ae, G
obiin
ae
Glo
ssog
obiu
s sp.
150
.Mid
Buc
a R
iver
(Nat
ewa
Peni
sula
r)
Aug
-03
J. Po
gono
wsk
i in
Jenk
ins a
ndB
oset
o20
03G
obiid
ae, G
obiin
ae
Glo
ssog
obiu
s sp.
115
. Wai
nado
i Riv
er
Jun
82
USN
M 0
0259
740
Gob
iidae
, Gob
iinae
G
loss
ogob
ius s
p. 1
23. T
amav
ua R
iver
W
aqai
ratu
200
3 G
obiid
ae, G
obiin
ae
Glo
ssog
obiu
s sp.
123
. Tam
avua
Riv
er
Waq
aira
tu 2
003
Gob
iidae
, Gob
iinae
G
loss
ogob
ius s
p. 1
28. N
alas
e C
reek
Waq
aira
tu 2
003
Gob
iidae
, Gob
iinae
M
ahid
olia
sp. 1
.18
. Sou
th D
raun
ibot
a Is
land
M
ay-6
5 U
SNM
003
4661
5 G
obiid
ae, G
obiin
ae
Pand
aka
sp.
13. N
aiko
roko
ro C
reek
M
ay-8
2 U
SNM
002
6177
5 G
obiid
ae, G
obiin
ae
Oxy
uric
hthy
s sp.
20. K
ubun
a C
reek
A
ug-6
3 U
SNM
002
6508
6 G
obiid
ae, G
obio
nelli
nae
Oxy
uric
hthy
s sp.
Naq
ara
Isla
nd
Jun
82
USN
M 0
0241
799
Gob
iidae
, Gob
ione
llina
e O
xyur
icht
hys s
p.16
. Naq
ara
Isla
nd
Jun
82
USN
M 0
0241
799
Gob
iidae
, Gob
ione
llina
e Re
digo
bius
sp.
13. N
aiko
roko
ro C
reek
M
ay-8
2 U
SNM
002
6177
4 G
obiid
ae, G
obio
nelli
nae
Redi
gobi
us sp
.53
.Mid
Wai
nunu
A
ug-0
3 J.
Pogo
now
ski i
n Je
nkin
s and
Bos
eto
2003
Gob
iidae
, Gob
ione
llina
e Re
digo
bius
sp.
19. K
ubun
a C
reek
M
ay-6
5 U
SNM
003
4123
1 G
obiid
ae, S
icid
iinae
Si
cydi
um sp
.C
onfl
of W
aini
vodi
& W
ains
avul
evu
Riv
erM
ay-7
7 In
st N
at. R
esou
rces
= IA
S
Gob
iidae
, Sic
idiin
ae
Sicy
opte
rus s
p.N
abuk
aves
i Riv
er, E
Las
t Riv
er
Sep-
86
Lew
is a
nd P
ring
1986
G
obiid
ae, S
icid
iinae
Si
cyop
teru
s sp.
Wai
bau
Cre
ek, t
ribut
ary
of W
aina
mu
Riv
erFe
b-86
Le
wis
and
Prin
g 19
86
Gob
iidae
, Sic
idiin
ae
Sicy
opte
rus s
p.N
ayar
abal
e R
iver
Se
p-86
B
oren
198
6 H
emira
mph
idae
Zena
rcho
pter
ussp
.28
. Nal
ase
Cre
ek
W
aqai
ratu
200
3 H
emira
mph
idae
Zena
rcho
pter
ussp
.19
. Kub
una
Cre
ek
May
-65
USN
M 0
0294
337
Hem
iram
phid
aeZe
narc
hopt
erus
sp.
20. K
ubun
a C
reek
A
ug-6
3 U
SNM
002
9432
7 H
emira
mph
idae
Zena
rcho
pter
us sp
.23
. Tam
avua
Riv
er
Waq
aira
tu 2
003
Kuh
liida
e K
uhlia
sp.
Lau
Isla
nd
Apr
82
USN
M 0
0236
691
207
Leio
gnat
hida
e Le
iogn
athu
s sp.
13. N
aiko
roko
ro C
reek
M
ay-8
2 U
SNM
002
5971
1 Le
iogn
athi
dae
Leio
gnat
hus s
p.27
. Rew
a R
iver
mou
th
May
-82
USN
M 0
0259
701
Mor
ingu
idae
Mor
ingu
a sp
.13
. Nai
koro
koro
Cre
ek
May
-82
USN
M 0
0259
690
Mug
ilida
eLi
za sp
. 13
. Nai
koro
koro
Cre
ek
May
-82
USN
M 0
0259
715
Mug
ilida
eLi
zasp
.La
u Is
land
A
pr 8
2 U
SNM
002
5971
4 M
ugili
dae
Liza
sp.
27. R
ewa
Riv
er m
outh
M
ay-8
2 U
SNM
002
5968
7 M
ugili
dae
Mug
il sp
.13
. Nai
koro
koro
Cre
ek
May
-82
USN
M 0
0259
723
Mug
ilida
eM
ugil
sp.
15. W
aina
doi R
iver
J
un 8
2 U
SNM
002
5970
7 M
ugili
dae
Mug
il sp
.La
u Is
land
A
pr 8
2 U
SNM
002
5972
2 M
ugili
dae
Mug
il sp
.37
. Kad
avu
Isla
nd
May
82
USN
M 0
0245
636
Mug
ilida
eM
ugil
sp.
27. R
ewa
Riv
er m
outh
M
ay-8
2 U
SNM
002
5971
9 M
urae
nida
e G
ymno
thor
ax sp
.13
. Nai
koro
koro
Cre
ek
May
-82
USN
M 0
0259
863
Mur
aeni
dae
Gym
noth
orax
sp. 1
15. W
aina
doi R
iver
J
un 8
2 U
SNM
002
5985
1 M
urae
nida
e G
ymno
thor
ax sp
. 215
. Wai
nado
i Riv
er
Jun
82
USN
M 0
0259
852
Poec
iliid
ae
Gam
busi
a sp
.1.
Dob
uile
vu R
iver
nea
r res
earc
h st
atio
n Se
p-86
Le
wis
and
Prin
g 19
86
Poec
iliid
ae
Poec
ilia
sp.
1. D
obui
levu
Riv
er n
ear r
esea
rch
stat
ion
Sep-
86
Lew
is a
nd P
ring
1986
Po
ecili
idae
Po
ecili
a sp
.23
. Tam
avua
Riv
er
Waq
aira
tu 2
003
Poec
iliid
ae
Poec
ilia
sp.
28. N
alas
e C
reek
Waq
aira
tu 2
003
Siga
nida
eSi
ganu
s sp.
13. N
aiko
roko
ro C
reek
M
ay-8
2 U
SNM
002
5655
6 Sp
hyra
enid
ae
Sphy
raen
a sp
.13
. Nai
koro
koro
Cre
ek
May
-82
USN
M 0
0259
720
Syng
nath
idae
M
icro
phis
sp.
Ba
Riv
er
Sep-
86
Sy
ngna
thid
ae
Mic
roph
issp
.W
aidi
na R
iver
M
ar-8
6
Syng
nath
idae
M
icro
phis
sp.
Savu
ra C
reek
N
ov-0
2
Tetra
odon
tidae
Ar
othr
on sp
. 27
. Rew
a R
iver
mou
th
May
-82
USN
M 0
0269
140
Tetra
odon
tidae
C
anth
igas
ter s
p.15
. Wai
nado
i Riv
er
Jun
82
CA
S 57
132
208
Appendix 5. Summary of Fijian estuarine and freshwater fishes. This list was presented in the
fish family alphabetical order. All the names that are used in this list are the recent valid fish
names.
Note: Species with? see Section 3.4.3. and * denotes the introduced freshwater aquarium fishes.
ALBULIDAE Albula glossodonta (Forsskål, 1775)
AMBASSIDAEAmbassis miops Günther, 1872
ANGUILLIDAE ?Anguilla australis Richardson, 1841 Anguilla bicolor bicolor McClelland, 1844 Anguilla marmorata Quoy & Gaimard, 1824 Anguilla megastoma Kaup, 1856Anguilla obscura Günther, 1872
APOGONIDAE Apogon amboinensis Bleeker, 1853 Apogon lateralis Valenciennes, 1832 Sphaeramia orbicularis (Cuvier, 1828)
BALISTIDAERhinecanthus aculeatus (Linnaeus, 1758)
CARANGIDAE Caranx ignobilis (Forsskål 1775) Caranx papuensis Alleyne & Macleay, 1877 Caranx sexfasciatus Quoy & Gaimard, 1825 Caranx tille Cuvier 1833 Scomberoides tol (Cuvier, 1832)
CARCHARHINIDAE Carcharhinus leucas (Müller & Henle, 1839)
CENTRARCHIDAE Micropterus salmoides (Lacepède, 1802) CHANIDAE
Chanos chanos (Forsskål, 1775) CHIROCENTRIDAE
Chirocentrus dorab (Forsskål, 1775) CICHLIDAE
Oreochromis mossambicus (Peters, 1852) Oreochromis niloticus (Linnaeus, 1758)
CLUPEIDAE Sardinella fijiense (Fowler & Bean, 1923)
CYPRINIDAE Barbonymus gonionotus (Bleeker, 1850)
Ctenophyaryngodon idella (Valenciennes, in Cuvier & Valenciennes, 1844)Rhodeus ocellatus (Kner, 1866)
DIODONTIDAE Diodon liturosus Shaw, 1804
ELEOTRIDAEAmblyeleotris guttata (Fowler, 1938) Belobranchus belobranchus (Valenciennces, in Cuvier & Valenciennes, 1837)
209
Bostrychus sinensis Lacepède, 1801 Bunaka gyrinoides (Bleeker, 1853) Butis amboinensis (Bleeker, 1853) Butis butis (Hamilton, 1822) Eleotris fusca (Forster, in Bloch and Schneider, 1801) Eleotris melanosoma Bleeker, 1852 Giurus hoedti (Bleeker, 1854)Giurus margaritacea (Valenciennces, in Cuvier & Valenciennes, 1837) Hypseleotris guentheri (Bleeker, 1875) Ophiocara porocephala (Valenciennces, in Cuvier & Valencienne, 1837) Oxyeleotris marmorata (Bleeker, 1852)
ENGRAULIDAE Stolephorus indicus (van Hasselt, 1823) Thryssa baelama (Forsskål, 1775)
EPHIPPIDAEPlatax orbicularis (Forsskål, 1775)
GERREIDAEGerres longirostris (Lacepède, 1801)
GOBIIDAE GOBIINAE
Acentrogobius caninus (Valenciennes in Cuvier & Valenciennes, 1837)Acentrogobius suluensis (Herre, 1927)
Bathygobius fuscus (Rüppell, 1830)Bathygobius hongkongensis Lam, 1986 Bathygobius padangensis (Bleeker, 1851) Caragobius urolepis (Bleeker, 1852) Ctenogobiops aurocingulus (Herre, 1935) Glossogobius bicirrhosus (Weber, 1894) Glossogobius sp.1 Oplopomus oplopomus (Valenciennes, in Cuvier & Valenciennes, 1837) Palutrus scapulopunctatus (de Beaufort, 1912) Psammogobius biocellatus (Valenciennces, in Cuvier & Valenciennes, 1837) Yongeichthys nebulosus (Forsskål, 1775)
GOBIONELLINAE Awaous guamensis (Valenciennes, in Cuvier & Valenciennes, 1837)Awaous melanocephalus (Bleeker, 1849) Awaous ocellaris (Broussonet, 1782) Mugilogobius notospilus (Günther, 1877) Oxyurichthys ophthalmonema (Bleeker, 1856-57)
Oxyurichthys tentacularis (Valenciennes, in Cuvier & Valenciennes, 1837) Redigobius bikolanus (Herre, 1927)Redigobius leveri (Fowler, 1943)Redigobius roemeri (Weber, 1911) Redigobius sp.1 Schismatogobius vitiensis Jenkins and Boseto, 2005 Stenogobius sp.1 ?Stigmatogobius sadanundio (Hamilton, 1822)
OXUDERCINAE ?Periophthalmodon barbarus (Linnaeus 1766) Periophthalmus argentilineatus Valenciennces, in Cuvier & Valenciennes, 1837 Periophthalmus kalolo Lesson, 1831
210
SICYDIINAE Lentipes kaaea Watson, Keith and Marquet, 2002 Sicyopterus lagocephalus (Commerson, in Lacepède, 1800) Sicyopus zosterophorum (Bleeker, 1856-57) Sicyopus (c.f. Juxtastiphodon) sp. Stiphodon rutilaureus Watson, 1996 Stiphodon sp. 1Stiphodon sp. 2 New genus, new species
HAEMULIDAEPlectorhinchus gibbosus (Hombron and Jacquinot, 1853)
HEMIRAMPHIDAE Hyporhamphus dussumieri (Valenciennes in Cuvier and Valenciennes, 1847) Zenarchopterus dispar (Valenciennes in Cuvier and Valenciennes, 1847)
KUHLIIDAE Kuhlia marginata (Cuvier, in Cuvier and Valenciennes, 1829)Kuhlia munda (De Vis, 1884) Kuhlia rupestris (Lacepède, 1802)
LACTARIIDAELactarius lactarius (Bloch & Schneider, 1801)
LEIOGNATHIDAE. Gazza minuta (Bloch, 1795)Leiognathus equulus (Forsskål, 1775)Leiognathus fasciatus (Lacepède, 1803) Leiognathus splendens (Cuvier, 1829)
LETHRINIDAELethrinus harak (Forsskål, 1775)Lethrinus reticulatus (Valenciennes, in Cuvier & Valenciennes, 1830)
LUTJANIDAELutjanus argentimaculatus (Forsskål, 1775)Lutjanus fulviflamma (Forsskål, 1775)Lutjanus fulvus (Forster, in Bloch and Schneider, 1801)Lutjanus gibbus (Forsskål, 1775)Lutjanus johnii (Bloch, 1792)Lutjanus lunulatus (Park, 1797)Lutjanus rivulatus (Cuvier, in Cuvier & Valenciennes, 1828) Lutjanus russellii (Bleeker, 1849)
MEGALOPIDAE Megalops cyprinoides (Broussonet, 1782)
MONODACTYLIDAE Monodactylus argenteus (Linnaeus, 1758)
MORINGUIDAE Moringua abbreviata (Bleeker, 1863)Moringua macrocephalus (Bleeker, 1863)Neoconger tuberculatus (Castle, 1965)
MUGILIDAE Cestraeus plicatilis Valenciennes in Cuvier & Valenciennes, 1836 Liza macrolepis (Smith, 1846)Crenimugil crenilabis (Forsskål, 1775) Liza melinoptera (Valenciennces, in Cuvier & Valenciennes, 1836)Liza subviridis (Valenciennces, in Cuvier & Valenciennes, 1836)
211
Liza vaigiensis (Quoy & Gaimard, 1825) Mugil cephalus Linnaeus, 1758Valamugil buchanani (Bleeker, 1853)Valamugil cunnesius (Valenciennes, in Cuvier & Valenciennes, 1836) Valamugil engeli (Bleeker, 1858)Valamugil seheli (Forsskål, 1775)
MULLIDAE Parupeneus indicus (Shaw, 1803)Upeneus sulphureus (Cuvier, in Cuvier & Valenciennes, 1829) Upeneus vittatus (Forsskål, 1775)
MURAENESOCIDAE Muraenesox cinereus (Forsskål, 1775)
MURAENIDAEGymnothorax favagineus Bloch and Schneider, 1801)Gymnothorax pictus (Ahl, 1789)Gymnothorax polyuranodon (Bleeker, 1853)Gymnothorax undulata (Lacepède, 1803)Uropterygius concolor Rüppell, 1838
OPHICHTHIDAE Lamnostoma bicolor (Kaup, 1856)Lamnostoma kampeni (Weber & de Beaufort, 1916)Pisodonophis cancrivorus (Richardson, 1848)Yirrkala gjellerupi (Weber & de Beaufort, 1916)?Yirrkala lumbricoides (Bleeker, 1853)
POECILIIDAEGambusia affinis (Baird & Girard, 1853)Poecilia mexicana Steindachner, 1863*Poecilia reticulata Peters, 1859* Xiphophorus hellerii Heckel, 1848*
POLYNEMIDAE Polydactylus microstoma (Bleeker, 1851)Polydactylus plebeius (Broussonet, 1782)
SCATOPHAGIDAE Scatophagus argus (Linnaeus, 1766)
SCORPAENIDAE Dendrochirus brachypterus (Cuvier, in Cuvier & Valenciennes, 1829)Dendrochirus zebra (Cuvier, in Cuvier & Valenciennes, 1829)Scorpaenopsis macrochir Ogilby, 1910 Tetraroge niger (Cuvier, in Cuvier & Valenciennes, 1829)
SERRANIDAEEpinephelus lanceolatus (Bloch, 1790) Epinephelus malabaricus (Bloch & Schneider, 1801)
SIGANIDAE Siganus vermiculatus (Valenciennces, in Cuvier & Valenciennes, 1835)
SPHYRAENIDAE Sphyraena obtusata (Cuvier, in Cuvier & Valenciennes, 1829)
SYNGNATHIDAE Hippichthys cyanospilus (Bleeker, 1854) Hippichthys spicifer (Rüppell, 1838) Microphis argulus (Peters, 1855)Microphis brachyurus brachyurus (Bleeker, 1853)
212
Microphis brevidorsalis (de Beaufort, 1913) Microphis leiaspis (Bleeker, 1853) Microphis retzii (Bleeker, 1856) Microphis sp.1
TERAPONIDAE Mesopristes kneri (Bleeker, 1876) Terapon jarbua (Forsskål, 1775)
TETRAODONTIDAEArothron immaculatus (Bloch & Schneider, 1801)Arothron reticularis (Bloch & Schneider, 1801) Lagocephalus lunaris (Bloch & Schneider, 1801)
TRICHIURIDAE Trichiurus lepturus Linnaeus, 1758
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Appendix 6. Fish counted into the quartiles and representing common, moderate to occasionally common and less common species.
My collections Other collections Combine the two collections
Common fish species A. marmorata H. guentheri E. fusca K. rupestris A. marmorata
A. marmorata K. rupestris
Moderate to occasionally common fish species
S. lagocephalus K. rupestris K. marginata S. rutilaureus A. ocellaris B. belobranchus
K. marginata Glossogobius sp. 1S. lagocephalus K. munda A. ocellaris E. melanosoma Stiphodon sp. 1Stiphodon sp. 2Stenogobius sp. 1A. guamensis A. obscura Z. dispar A. miops S. rutilaureus O. mossambicus G. hoedti P. biocellatus L. argentimaculatus R. leveri C. sexfasciatus M. kneri G. affinis M. leiaspis M. retzii O. niloticus O. aporos A. reticularis
S. lagocephalus K. marginata E. fusca H. guentheri A. ocellaris Glossogobius sp. 1S. rutilaureus E. melanosoma Stiphodon sp. 1Stiphodon sp. 2K. munda Stenogobius sp. 1 O. mossambicus A. guamensis A. miops R. leveri Z. dispar
Less common fish species O. mossambicus G. polyuranodon E. fusca E. melanosoma Stiphodon sp. 1R. leveri Stiphodon sp. 2C. sexfasciatus S. zosterophorum K. munda G. affinis S. vitiensis H. guentheri Glossogobius sp. 1Stenogobius sp. 1A. guamensis A. miops L. fulvus M. brachyurus brachyurus O. margaritacea M. kneri G. hoedti P. biocellatus L. argentimaculatus M. leiaspis
S. zosterophorum G. polyuranodon B. gyrinoides T. jarbua P. Kalolo U.vittatusS. vermiculatus O. marmorata M. cyprinioides M. cephalus H. spicifer A. immaculatus S. vitiensis L. fulvus M. brachyurus brachyurus O. margaritacea L. kampeni A. lateralis O. porocephala S. argus C. leucas C. chanos C. dorab S. fijiense P. argentineatus
A. obscura C. sexfasciatus G. polyuranodon M. kneri G. hoedti P. biocellatus S. zosterophorum G. affinis L. argentimaculatus M. leiaspis B. belobranchus S. vitiensis M. retzii O. niloticus B. gyrinoides O. aporos L. fulvus M. brachyurus brachyurus T. jarbua A. reticularis P. Kalolo U. vittatus L. kampeni S. vermiculatus A. lateralis
214
B. gyrinoides T. jarbua L. kampeni Z. dispar S. vermiculatus L. russellii M. argenteus M. brevidorsalis L. subviridis Z. dispar P. reticulata S. (c.f. juxtastiphodon) sp. 1N. genus. n. species M. retzii A. reticularis P. kalolo U. vittatus A. lateralis O. porocephala S. argus S. fijiense B. gonionotus B. sinensis R. bikolanus L. equulus A. megastoma L. kaaea P. gibbosus G. minuta L. fasciatus M. abbreviata N. tuberculatus C. macrolepis V. buchanani U. sulphureus T. niger A. amboinensis D. liturosus S. indicus G. longirostris L. splendens V. cunnesius V. engeli Y. gjellerupi S. obtusata
L. equulus L. russullii M. argenteus M. brevidorsalis B. gonionotus B. sinensis R. bikolanus A. australis M. salmoides C. idella B. butis T. baelama A. caninus B. fuscus S. sadanundio P. barbatus L. harak C. plicatilis L. melinoptera L. vaigiensis U. sulphureus M. cinereus U. concolor P. mexicana X. hellerii D. zebra L. subviridis P. reticulata A. megastoma L. kaaea P. gibbosus G. minuta L. fasciatus M. abbreviata N. tuberculatus C. macrolepis V. buchanani T. niger M. argulus A. glossodonta S. orbicularis R. aculeatus C. ignobilis C. papuensis C. tille S. tol R. ocellatus A. guttata B. amboinensis P. orbicularis A. suluensis B. hongkongensis B. padangensis C. urolepis C. aurocingulus G. bicirrhosus O. oplopomus P. scapulopunctatus Y. nebulosus A. melanocephalus M. notospilus O. ophthalmonema
O. porocephala O. marmorata L. russullii M. cyprinioides M. argenteus M. cephalus S. argus H. spicifer M. brevidorsalis A. immaculatus C. leucas C. chanos C. dorab S. fijiense B. gonionotus B. sinensis O. margaritacea R. bikolanus P. argentineatus L. equulus L. subviridis P. reticulata A. australis A. megastoma M. salmoides C. idella B. butis T. baelama A. caninus B. fuscus S. sadanundio P. barbatus L. kaaea S. (c.f. juxtastiphodon) sp. 1N. genus n.species P. gibbosus G. minuta L. fasciatus L. harak M. abbreviata N. tuberculatus C. plicatilis C. macrolepis L. melinoptera L. vaigiensis V. buchanani U. sulphureus M. cinereus U. concolor P. mexicana X. hellerii D. zebra T. niger A. glossodonta A. amboinensis S. orbicularis R. aculeatus C. ignobilis C. papuensis C. tille S. tol
215
O. tentacularis R. roemoeri Redigobius sp. 1H. dussumieri L. lactarius L. splendens L. reticulatus L. fulviflamma L. gibbus L. johnii L. lunulatus L. rivulatus M. macrocephalus C. crenilabis V. seheli P. indicus G. favagineus G. pictus G. undulata L. bicolor P. cancrivorus Y. lumbricoides P. microstoma P. plebeius D. brachypterus Microphis sp. 1S. macrochir E. malabaricus E. lanceolatus H. cyanospilos L. lunaris T. lepturus A. bicolor bicolor
R. ocellatus D. liturosus A. guttata B. amboinensis S. indicus P. orbicularis G. longirostris A. suluensis B. hongkongensis B. padangensis C. urolepis C. aurocingulus G. bicirrhosus O. oplopomus P. scapulopunctatus Y. nebulosus A. melanocephalus M. notospilus O. ophthalmonema O. tentacularis R. roemoeri Redigobius sp. 1A. bicolor bicolor H. dussumieri L. lactarius L. splendens L. reticulatus L. fulviflamma L. gibbus L. johnii L. lunulatus L. rivulatus M. macrocephalus C. crenilabis V. cunnesius V. engeli V. seheli P. indicus G. favagineus G. pictus G. undulata L. bicolor P. cancrivorus Y. gjellerupi Y. lumbricoides P. microstoma P. plebeius D. brachypterus S. macrochir E. malabaricus E. lanceolatus S. obtusata H. cyanospilus M. argulus Microphis sp. 1L. lunaris T. lepturus
216
Appendix 7. Fishes categorised into different water habitats namely freshwater, freshwater/brackish, freshwater/brackish/marine and brackish/marine. Some lagoonal fishes that are found in any of the below categories during this survey or from previous studies are classified into those categories. This is done for this study only inorder to differenciate the fresh water fish from the estuarine and the marine species.
Freshwater Freshwater/Brackish Freshwater/Brackish/Marine Brackish/Marine Micropterus salmoides Apogon amboinensis Ambassis miops Albula glossodonta
Barbodes gonionotus Oreochromis mossambicus Anguilla australis Sphaeramia orbicularis
Ctenopharyngodon idellus Oreochromis niloticus Anguilla bicolor bicolor Rhinecanthus aculeatus
Rhodeus ocellatus Belobranchus belobranchus Anguilla marmorata Caranx ignobilis
Bunaka gyrinoides Oxyeleotris marmorata Anguilla megastoma Caranx papuensis
Hypseleotris guentheri Acentrogobius suluensis Anguilla obscura Caranx sexfasciatus
Redigobius leveri Glossogobius bicirrhosus Apogon lateralis Caranx tille
Redigobius sp. 1 Glossogobius sp. 1 Carcharhinus leucas Scomberoides tol Schismatogobius vitiensis Awaous melanocephalus Chanos chanos Chirocentrus dorab
Lamnostoma kampeni Stenogobius sp. 1 Bostrychus sinensis Sardinella fijiense
Yirrkala gjellerupi Stigmatogobius sadanundio Butis amboinensis Diodon liturosus
Microphis brevidorsalis Kuhlia munda Butis butis Amblyeleotris guttata
Microphis retzii Kuhlia rupestris Eleotris fusca Stolephorus indicus
Microphis sp.1 Cestraeus plicatilis Eleotris melanosoma Thryssa baelama Moringua macrocephalus Giurus hoedti Platax orbicularis
Gambusia affinis Giurus margaritacea Gerres longirostris
Poecilia mexicana Ophiocara porocephala Acentrogobius caninus
Poecilia reticulata Bathygobius fuscus Bathygobius hongkongensis
Xiphophorus helleri Yongeichthys nebulosus Bathygobius padangensis
Microphis leiaspis Awaous guamensis Caragobius urolepis
Awaous ocellaris Ctenogobiops aurocingulus
Mugilogobius notospilus Oplopomus oplopomus Redigobius bikolanus Palutrus scapulopunctatus
Redigobius roemeri Psammogobius biocellatus
Periophthalmodon barbarus Oxyurichthys ophthalmonema
Lentipes kaaea Oxyurichthys tentacularis
Sicyopterus lagocephalus Periophthalmus argentilineatus
Sicyopus zosterophorum Periophthalmus kalolo Sicyopus (cf Juxtastiphodon) sp. Plectorhinchus gibbosus
Stiphodon rutilaureus Hyporhamphus dussumieri
Stiphodon sp. 1 Lactarius lactarius
Stiphodon sp. 2 Gazza minuta
New genus, new species Leiognathus fasciatus
Zenarchopterus dispar Leiognathus splendens Kuhlia marginata Lethrinus harak
Leiognathus equulus Lethrinus reticulatus
Lutjanus fulvus Lutjanus argentimaculatus
Megalops cyprinoides Lutjanus fulviflamma
Monodactylus argenteus Lutjanus gibbus
217
Liza macrolepis Lutjanus johnii
Liza melinoptera Lutjanus lunulatus
Liza subviridis Lutjanus rivulatus
Mugil cephalus Lutjanus russellii
Valamugil buchanani Moringua abbreviata
Valamugil cunnesius Neoconger tuberculatus Muraenesox cinereus Crenimugil crenilabis
Gymnothorax polyuranodon Liza vaigiensis
Pisodonophis cancrivorus Valamugil engeli Scatophagus argus Valamugil seheli
Tetraroge niger Parupeneus indicus
Hippichthys cyanospilos Upeneus sulphureus
Microphis argulus Upeneus vittatus
Microphis brachyurus brachyurus Gymnothorax favagineus
Mesopristes kneri Gymnothorax pictus Terapon jarbua Gymnothorax undulata
Uropterygius concolor
Lamnostoma bicolor
Yirrkala lumbricoides
Polydactylus microstoma
Polydactylus plebeius Dendrochirus brachypterus
Dendrochirus zebra
Scorpaenopsis macrochir
Epinephelus lanceolatus
Epinephelus malabaricus
Siganus vermiculatus Sphyraena obtusata
Hippichthys spicifer
Arothron immaculatus
Arothron reticularis
Lagocephalus lunaris
Trichiurus lepturus
218
Appendix 8. Gazetteer of fish collections in Fiji from other sources. Coordinates were obtained by using the Fiji Map series (1:50, 000 & 1:250, 000). Note some localities are West longitude.
David Boseto's Collection locality Source Gazetteer East Gazetteer South
A. Site 1, Tamavua River system David Boseto 1780 26’.19” 180 07’.32” A. Site 2, Tamavua River system David Boseto 1780 26’.01” 180 06’.15” A. Site 3, Tamavua River system David Boseto 1780 26’.07” 180 06’.23” A. Site 4, Tamavua River system David Boseto 1780 26’.02” 180 06’.10” A. Site 5, Tamavua River system David Boseto 1780 27’.20” 180 06’.19” A. Site 6, Tamavua River system David Boseto 1780 25’.59” 180 05’.53” A. Site 7, Tamavua River system David Boseto 1780 26’.37” 180 05’.45” A. Site 8, Tamavua River system David Boseto 1780 26’.09” 180 05’.43” A. Site 9, Tamavua River system David Boseto 1780 26’.22” 180 05’.41” A. Site 10, Tamavua River system David Boseto 1780 26’.26” 180 05’.29” A. Site 11, Tamavua River system David Boseto 1780 26’.46” 180 05’.16” A. Site 12, Tamavua River system David Boseto 1780 26’.44” 180 05’.07” A. Site 13, Tamavua River system David Boseto 1780 26’.54” 180 05’.08” A. Site 14, Tamavua River system David Boseto 1780 26’.36” 180 04’.59” A. Site 15, Tamavua River system David Boseto 1780 26’.56” 180 06’.33” A. Site 16, Tamavua River system David Boseto 1780 26’.59” 180 05’.28” A. Site 17, Tamavua River system David Boseto 1780 26’.32” 180 04’.52” A. Site 18, Tamavua River system David Boseto 1780 27’.22” 180 04’.03” A. Site 19, Tamavua River system David Boseto 1780 26’.51” 180 05’.22” A. Site 20, Tamavua River system David Boseto 1780 26’.26” 180 04’.49” A. Site 21, Tamavua River system David Boseto 1780 26’.26” 180 04’.45” B. Site 43, Upper Navua River David Boseto 1770 57’.12” 180 07’.43” B. Site 44, Upper Navua River David Boseto 1770 57’.22” 180 07’.49” C. Site 45, Sovi River David Boseto 1780 15’.23” 170 55’.38” D. Site 46, Lower Wainadi Creek David Boseto 1780 26’.26” 180 04’.52” D. Site 47, Mid Wainadi Creek David Boseto 1780 26’.26” 180 04’.49” D. Site 52, Upper Wainadi Creek David Boseto 1780 14’.12” 170 56’.03” E. Site 48, Wainivobo River David Boseto 1780 13’.25” 170 33’.07” F. Site 49, Wainasa Creek David Boseto 1780 15’.24” 170 36’.03” G. Site 50, WanivaLau IslandRiver David Boseto 1780 13’.25” 170 54’.46” H. Site 52, Waibasaga Creek David Boseto 1780 26’.26” 180 04’.45” I. Site 53, Waiveikovi Creek David Boseto 1780 02’.13” 170 35’.13” J. Site 54, Wabu Creek David Boseto 1780 02’.16” 170 35’.27” K. Site 60, Wairoko Creek David Boseto 1780 24’.50” 170 45’.40” L. Site 61, Lower Wailotua River David Boseto 1780 24’.01” 170 45’.34” L. Site 62, Mid Wailotua Creek David Boseto 1780 24’.29” 170 45’.36” Q. Site 55, Wasali Creek David Boseto 1790 14’.13'' 160 33’.33''
Q. Site 56, Wasali Creek David Boseto 1790 14’.11'' 160 33’.33''
Q. Site 57, Wasali Creek David Boseto 1790 14’.06'' 160 33’.30''
Q. Site 58, Wasali Creek David Boseto 1790 13’.27'' 160 33’.24''
Q. Site 59, Wasali Creek David Boseto 1790 13’.20'' 160 33’.19''
R. Site 63, Upper Ba River David Boseto 1770 54’.31” 170 42’.53” S. Site 64, Nukunuku Creek David Boseto 1770 56’.30” 170 38’.36” T. Site 65, Nadala Creek David Boseto 1770 59’.57” 170 37’.13”
219
David Boseto's Collection Continued locality Source Gazetteer East Gazetteer South
U. Site 66, Qaliwana Creek David Boseto 1770 59’.58” 170 37’.13” West locality Source Gazetteer West Gazetteer South
M. Site 22, Tavoro Creek David Boseto 1790 52’.31'' 160 49’.50''
M. Site 23, Tavoro Creek David Boseto 1790 52’.28'' 160 49’.57''
M. Site 24, Tavoro Creek David Boseto 1790 52’.36'' 160 50’.00''
M. Site 25, Tavoro Creek David Boseto 1790 52’.38'' 160 49’.58''
M. Site 26, Tavoro Creek David Boseto 1790 52’.42'' 160 49’.56''
M. Site 27, Tavoro Creek David Boseto 1790 52’.44'' 160 49’.57''
M. Site 28, Tavoro Creek David Boseto 1790 52’.47'' 160 49’.57''
M. Site 29, Tavoro Creek David Boseto 1790 52’.51'' 160 49’.56''
M. Site 30, Tavoro Creek David Boseto 1790 52’.53'' 160 50’.00''
M. Site 31, Tavoro Creek David Boseto 1790 53’.01'' 160 50’.00''
M. Site 32, Tavoro Creek David Boseto 1790 53’.09'' 160 49’.59''
M. Site 33, Tavoro Creek David Boseto 1790 53’.11'' 160 49’.59''
M. Site 34, Tavoro Creek David Boseto 1790 53’.29'' 160 50’.02''
N. Site 35, Navaka Creek David Boseto 1790 53’.20'' 160 49’.46''
N. Site 36, Navaka Creek David Boseto 1790 53’.06'' 160 49’.43''
O. Site 37, Wailevu Creek David Boseto 1790 53’.06'' 160 51’.25''
O. Site 38, Wailevu Creek David Boseto 1790 53’.08'' 160 51’.09''
O. Site 39, Wailevu Creek David Boseto 1790 53’.39'' 160 51’.36''
O. Site 40, Wailevu Creek David Boseto 1790 53’.38'' 160 51’.35''
P. Site 42, Waitavala Creek David Boseto 1790 59’.46'' 160 48’.12''
P. Site 41, Waitavala Creek David Boseto 1790 59’.43'' 160 48’.17''
John Pogonowski's Collection Locality Source Gazetteer East Gazetteer South
Lower Sigatoka John Pogonowski 1770 31’.31'' 180 07’.48''
Upper Nadi, Vaturu dam John Pogonowski 1770 40’.23'' 170 45’.27'' Middle Ba River, Near Navala Village John Pogonowski 1770 49’.01'' 170 40’.32'' Upper Rewa River, Naqelewai Village John Pogonowski 1780 05’.13'' 170 43’.01'' Upper River, near Navai Village John Pogonowski 1770 59’.58'' 170 37’.13'' Upper Ba, near Koro Village John Pogonowski 1770 54’.31'' 170 42’.53''
Lower Nala River, Koroivonu River John Pogonowski 1790 52’.45'' 160 34’.03''
Lower Nala River, Koroivonu River John Pogonowski 1790 49’.29'' 160 34’.08''
Mid Buca River, Waidamudama Creek John Pogonowski 1790 49’.29'' 160 38’.50''
Mid Navonu River, Navakamotolu Creek John Pogonowski 1790 47’.26'' 160 41’.24'' Mid Nakawakawa River, near Nakawakawa Village
John Pogonowski 1790 20’.28'' 160 39’.48''
Mid Wainunu River, Davutu River John Pogonowski 1780 55’.16'' 160 49’.45'' Upper Dama River, near Driti Village John Pogonowski 1780 43’.28'' 160 53’.21'' Upper Lekutu River, near Kavula River John Pogonowski 1780 45’.21'' 160 44’.02'' Lower Nasavu River, near Vitina Village John Pogonowski 1790 42’.49'' 160 19’.28'' Lower Wainikoro River, near Nasasa Village
John Pogonowski 1790 34’.27'' 160 23’.12''
Upper Labasa River, near Sueni Village John Pogonowski 1790 21’.14'' 160 34’.38'' Upper Dreketi River, near Saivou Village John Pogonowski 1790 09’.03'' 160 36’.14''
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GAZETTEER OF FIJI FW/EST LOCALITIES
Locality Island group/area South East West
Ba River Viti Levu 170 42’.53” 1770 54’.31” Bouma Creek Taveuni 160 50’.00'' 1790 53’.02'' Buca River Natewa Penisular 160 38’.50'' 1790 49’.30'' Bureta River Ovalau Island 170 39’.20'' 1780 45’.14'' Dama River Vanua Levu 160 53’.21'' 1780 43’.28'' Dravo village, east of Nausori ('Daun') Viti Levu 180 01’.04'' 1780 03’.28'' Davutu River Vanua Levu 160 49’.45'' 1780 55’.16'' Dobuilevu River Viti Levu 170 36’.31'' 1780 14’.41'' Dreketi River Vanua Levu 160 36’.14'' 1790 09’.03'' Driti Village Vanua Levu 160 53’.21'' 1780 43’.28'' Duveita Bay (Not traceable from the map) Hippichthys
spicifer
Ellington Penang Viti Levu 170 21’.02'' 1780 12’.24'' Interior, 705 m not
traceable
Kabariki Village Kadavu 190 08’.44'' 1780 02’.00'' Kadavu Island Kadavu 180 51’.20'' 1770 56’.28'' Kanacea Island Lau 170 16’.02'' 1790 08’.00'' Kauvula River Vanua Levu 160 44’.03'' 1780 45’.21'' Kauvula Village Vanua Levu 160 44’.03'' 1780 45’.21'' Koro Village Viti Levu 170 42’.53'' 1770 54’.31'' Koroivonu River Vanua Levu 160 34’.03'' 1790 52’.45'' Korolevu Viti Levu 180 12’.36'' 1770 41’.24'' Kubuna Creek Viti Levu 180 00’.54'' 1770 20’.16'' Labasa River Vanua Levu 160 34’.38'' 1790 21’.14'' Lakeba Island Lau 180 56’.00'' 1780 44’.59'' Lekutu River Vanua Levu 160 44’.03'' 1780 45’.21'' Lami River Viti Levu 180 05’.27'' 1780 23’.46'' Lau Islands Lau 180 56’.00'' 1780 44’.59'' Laucala Bay, USP lower campus Viti Levu 180 07’.41'' 1780 29’.17'' Levuka Town Ovalau Island 170 33’.29'' 1780 46’.38'' Lokia Creek Viti Levu 180 06’.02'' 1780 32’.56'' Matuku Harbour Matuku Island 190 06’.30'' 1790 45’.00'' Monasavu Dam/Reservoir Viti Levu 170 44’.58'' 1780 04’.24'' Nabitu River Viti Levu 170 37’.51'' 1770 25’.31'' Nabukavesi Creek Viti Levu 180 10’.09'' 1780 14’.41'' Nadi River Viti Levu 170 45’.27'' 1770 40’.23'' Nadala Creek Viti Levu 170 37’.13” 1770 59’.57” Nadarivatu River Viti Levu 170 33’.00'' 1770 58’.24'' Nadarivatu station Viti Levu 170 33’.00'' 1770 58’.24'' Nadroga Province Viti Levu 180 13’.23'' 1770 47’.10''
221
Naduruloulou Station Viti Levu 170 58’.34'' 1780 30’.39'' Naikorokoro Creek Viti Levu 180 05’.00'' 1780 19’.00'' Nairai Island Nairai Island 170 48’.41'' 1790 24’.36'' Naivucini River Viti Levu 170 50’.17'' 1780 15’.41'' Nakabuka Creek Taveuni 160 49’.56'' 1790 52’.51'' Nakoronawa Creek Kadavu 190 12’.26'' 1780 23’.14'' Nakoronawa Village Kadavu 190 12’.26'' 1780 23’.14'' Nakavu Creek Viti Levu 180 11’.17'' 1780 06’.31'' Nala Village Vanua Levu 160 34’.03'' 1790 52’.45'' Nalase Creek Viti Levu 180 06’.41'' 1780 34’.36'' Namara Village Kadavu 190 02’.09'' 1780 13’.54'' Namoli Creek Viti Levu 170 36’.06'' 1770 27’.51'' Namosi Province Viti Levu 180 10’.32'' 1780 11’.54'' Naqalewai Village Viti Levu 170 43’.01'' 1780 05’.13'' Naqara Island Naqara Island 180 10’.44'' 1780 16’.12'' Narokorokoyawa River Viti Levu 180 51’.00'' 1780 06’.10'' Narokorokoyawa Village Viti Levu 180 51’.00'' 1780 06’.10'' Nakawakawa River Vanua Levu 160 39’.48'' 1790 20’.28'' Nakawakawa Village Vanua Levu 160 39’.48'' 1790 20’.28'' Nasasa Village Vanua Levu 160 23’.12'' 1790 34’.27'' Nasegai Village Kadavu 190 09’.00'' 1780 04’.41'' Nasova Creek Viti Levu 180 09’.26'' 1780 26’.00'' Nasavu River Vanua Levu 160 19’.28'' 1790 42’.49'' Natewa Penisular Vanua Levu 160 38’.50'' 1790 49’.29'' Naululumudulevu Creek Viti Levu 170 35’.59'' 1770 28’.32'' Nausori Town Viti Levu 180 01’.58'' 1780 31’.59'' Navaka Creek Taveuni 160 49’.43'' 1790 53’.06'' Navakamotolu Creek Vanua Levu 160 41’.24'' 1790 47’.26'' Navai Village Viti Levu 170 37’.13'' 1770 59’.58'' Navala Village Viti Levu 170 40’.31'' 1770 49’.01'' Naviti Resort Viti Levu 170 05’.00'' 1770 15’.00'' Navonu River Vanua Levu 160 41’.24'' 1790 47’.26'' Navua Gorge Viti Levu 180 07’.43” 1770 57’.12” Navua River Viti Levu 180 10’.32'' 1780 11’.54'' Navula Creek Kadavu 190 02’.09'' 1780 13’.54'' Navutu Settlement Viti Levu 180 07’.49” 1770 25’.50” Nayarabale River Vanua Levu 160 27’.09'' 1790 30’.27'' Nukulau Island Viti Levu 180 10’.28'' 1780 30’.48'' Nukunikula Creek in Korogaga Viti Levu 180 12’.02'' 1780 28’.58'' Nukunuku Creek on Lakeba Island Lau 180 56’.00'' 1780 44’.59'' Ono-I-lau Island Lau 200 36’.30'' 1780 42’.18'' Orchid Island Viti Levu 180 06’.43'' 1780 21’.44'' Ovalau Island Ovalau Island 170 33’.29'' 1780 45’.34'' Pacific Harbour Viti Levu 180 15’.38'' 1780 04’.01'' Qaliwana Creek Viti Levu 170 37’.13” 1770 59’.58” Qawa River Vanua Levu 160 27’.00'' 1790 24’.10''
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Rabi Island Rabi Island 160 29’.20'' 1790 57’.15'' Rakiraki V iti Levu 170 21’.02'' 1780 12’.24'' Rewa River Viti Levu 180 06’.10'' 1780 33’.22'' Rewa River mouth Viti Levu 180 08’.20'' 1780 31’.22'' Saivou Village Vanua Levu 160 36’.14'' 1790 09’.03'' Savuqoro Creek Vanua Levu 160 33’.19'' 1790 13’.20'' Savura Creek Viti Levu 180 05’.07” 1780 26’.44” Sawani area Viti Levu 180 01’.10'' 1780 29’.29'' Serua Harbour Viti Levu 180 13’.06'' 1780 11’.12'' Sigatoka River Viti Levu 180 07’.48'' 1770 31’.31'' South Draunibota Island Viti Levu 180 07’.26'' 1780 22’.37'' Sovi Basin Viti Levu 170 55’.38” 1780 15’.23” Sovi River Viti Levu 170 55’.38” 1780 15’.23” Suva City Viti Levu 180 08’.15'' 1780 25’.27'' Suva Harbour Viti Levu 180 06’.54'' 1780 25’.01'' Suva Point Viti Levu 180 09’.31'' 1780 25’.48'' Tailevu District Viti Levu 170 56’.14'' 1780 30’.07'' Tamavua River Viti Levu 180 06’.07'' 1780 26’.20'' Tavoro Creek Taveuni 160 49’.59'' 1790 53’.11'' Tavoro Fall Taveuni 160 50’.00'' 1790 53’.01'' Tavuki Creek Kadavu 190 05’.14'' 1780 06’.49'' Toberua Island Toberua Island 170 82’.15'' 1780 42’.17'' Tubou creek Lau 180 14’.00'' 1780 51’.38'' Totoya Island Totoya Island 180 10’.34'' 1790 50’.34'' Vatulele Island South west of
Kadavu 180 30’.55'' 1770 40’.23''
Vakano Creek on Lakeba Island Lau 180 14’.00'' 1780 52’.33'' Vanuakula Island Off Kadavu 190 44’.00'' 1780 30’.18'' Vago Creek Viti Levu 180 06’.33” 1780 26’.56” Vago Falls Viti Levu 180 05’.22” 1780 26’.51” Vaturu Dam Viti Levu 170 45’.27'' 1770 40’.23'' Vitina Village Vanua Levu 160 19’.28'' 1790 42’.49'' Vunimoli Creek Kadavu 190 08’.44'' 1780 02’.00'' Vutia Creek Viti Levu 180 07’.26'' 1780 32’.41'' Vutini Creek Viti Levu 160 19’.28'' 1790 42’.49'' Wabu Creek Viti Levu 170 35’.27” 1780 02’.16” Waibasaga Creek Viti Levu 180 04’.45” 1780 26’.26” Waibau Creek, Viti Levu Viti Levu 180 00’.56'' 1780 23’.54'' Waibau Creek, Taveuni Taveuni 170 42’.17'' 1790 54’.51'' Wailevu Creek Taveuni 160 51’.25'' 1790 53’.06'' Wailotua River Viti Levu 170 45’.36” 1780 24’.29” Waidamudama Creek Vanua Levu 160 38’.50'' 1790 49’.30'' Waimanu River Viti Levu 180 01’.10'' 1780 29’.29'' Waimilamila Creek Viti Levu 170 49’.14'' 1780 13’.20'' Wainadi Creek Viti Levu 180 04’.49” 1780 26’.26” Wainavobo River Viti Levu 170 33’.07” 1780 13’.25”
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Wainivalau River Viti Levu 170 54’.46” 1780 13’.25” Wainibau Creek Taveuni 160 51’.20'' 1790 55’.15'' Wainadoi River Viti Levu 180 09’.14'' 1780 15’.37'' Wainikai Creek Viti Levu 170 49’.53'' 1780 22’.46'' Wainikavika Creek Viti Levu 180 12’.15'' 1780 09’.09'' Wainikoro River Vanua Levu 160 23’.12'' 1790 34’.27'' Wainimala River Viti Levu 170 50’.50'' 1780 21’.12'' Wainimarovi Creek Kadavu 190 09’.00'' 1780 04’.41'' Wainasa Creek Viti Levu 170 36’.03” 1780 15’.24” Wainisavulevu River Viti Levu 170 48’.19'' 1780 06’.31'' Wainisusu River Viti Levu 180 11’.24'' 1780 07’.32'' Wainivesi River Viti Levu 180 06’.49'' 1780 27’.54'' Wainivodi River Viti Levu 170 48’.19'' 1780 06’.31'' Wainunu River Vanua Levu 160 49’.45'' 1780 55’.16'' Wairiki Creek Viti Levu 180 09’.00'' 1780 16’.37'' Wairoko Creek Viti Levu 170 45’.40” 1780 24’.50” Waisai Creek Viti Levu 170 26’.53'' 1770 56’.57'' Waisali Creek Viti Levu 160 33’.33'' 1790 14’.11'' Waisere Creek Viti Levu 170 56’.14'' 1780 30’.07'' Waitavala Creek Taveuni 160 48’.12'' 1790 59’.46'' Waivase River Viti Levu 180 06’.49'' 1780 27’.54'' Waivau Creek Viti Levu 180 08’.20'' 1780 31’.22'' Waiveikovi Creek Viti Levu 170 35’.13” 1780 02’.13” Yadua Island Yadua Island 160 50’.49'' 1780 16’.54'' Yanuyanusau Island Off Kadavu 190 46’.42'' 1780 30’.06''
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Appendix 9. Habitat type preferences of Fiji fish collected during this study. The x denotes fish
species collected from different habitat types during this survey. The letters of the alphabetical
represents a - mouth of creeks with sand substrates with coastal plants on the bank, b - mouth of
creeks with silt in substrate mangrove forest, c - midreach of river with muddy substrate and
riparian plants overhanging on the stream edge usually slow flowing and often dead logs and tree
roots in the creek, d - midreach of river with sand, gravel and boulders substrate with riparian
plants on banks usually fast flow and riffle, e - riffles, fast flowing water with fused rocks
substrate and rock wall sides and f - deep pools with sand and gravel substrate and riparian plants
on side.
Families/Species/Habitat types
a b c d e f
Ambassidae
Ambassis miops x x x
Anguillidae
Anguilla marmorata x x x x
Anguilla megastoma x
Apogonidae
Apogon amboinensis x
Apogon lateralis x
Carangidae
Caranx sexfasciatus x x
Cichlidae
Oreochromis mossambicus x x
Clupeidae
Sardinella fijiensis x
Cyprinidae
Barbonymus gonionotus x
Diodontidae
Diodon liturosus x
Eleotridae
Belobranchus belobranchus x x
Bostrychus sinensis x
Bunaka gyrinoides x
Eleotris fusca x x
Eleotris melanosoma x x
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Giurus hoedti x x
Hypseleotris guentheri x x
Giurus margaritacea x
Ophiocara porocephala x
Engraulidae
Stolephorus indicus x
Gerreidae
Gerres longirostris x
Gobiidae, Gobiinae
Psammogobius biocellatus x x
Gobiidae, Gobionellinae
Awaous guamensis x x
Awaous ocellaris x x
Glossogobius sp. 1 x
Redigobius bikolanus x
Redigobius leveri x x
Schismatogobius vitiensis x
Stenogobius sp. 1 x
Gobiidae, Oxudercinae
Periophthalmus kalolo x
Gobiidae, Sicydiinae
Lentipes kaaea x
Sicyopterus lagocephalus x x x x
Sicyopus zosterophorum x x
Sicyopus (c.f. Juxtastiphodon)
sp.
x
New genus, new species x
Stiphodon rutilaureus x x
Stiphodon sp. 1 x x
Stiphodon sp. 2 x x
Haemulidae
Plectorhinchus gibbosus x
Hemiramphidae
Zenarchopterus dispar x x
Kuhliidae
Kuhlia marginata x x
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Kuhlia munda x x x
Kuhlia rupestris x x
Leiognathidae
Gazza minuta x
Leiognathus equulus x x
Leiognathus fasciatus x
Leiognathus splendens x
Lutjanidae
Latjanus argentimaculatus x x
Lutjanus fulvus x
Lutjanus russellii x
Monodactylidae
Monodactylus argenteus x
Moringuidae
Moringua abbreviata x
Mugilidae
Liza macrolepis x
Liza subviridis x x
Valamugil bachanani x
Valamugil cunnesius x
Valamugil engeli x x
Mullidae
Upeneus sulphureus x
Upeneus vittatus x
Muraenidae
Gymnothorax polyuranodon x x
Ophichthidae
Lamnostoma kampeni x x
Yirrkala gjellerupi x x
Neoconger tuberculatus x
Poeciliidae
Gambusia affinis x x
Poecilia reticulata x x
Scatophagidae
Scatophagus argus x
Scorpaenidae
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Tetraroge niger x
Siganidae
Siganus vermiculatus x
Sphyraenidae
Sphyraena obtusata x
Syngnathidae
Microphis brachyurus
brachyurus
x
Microphis brevidorsalis x x
Microphis leiaspis x
Microphis retzii x x
Teraponidae
Mesopristes kneri x
Terapon jarbua x
Tetraodontidae
Arothron reticularis x
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Appendix 10. Some of the habit types surveyed during this study.
Plate 2. A. Tamavua River, Site 1, Viti Levu. (Photo- David Boseto)
Plate 3. A. Tamavua River, Site 4, Viti Levu. (Photo- David Boseto)
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Plate 4. A. Savura Creek, Site 7, Viti Levu. (Photo- David Boseto)
Plate 5. A. Vago Creek, Site 21, Viti Levu. (Photo- David Boseto) oto- David Boseto)
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Plate 6. G. Wainivalau River, Site 50, Viti Levu. (Photo- David Boseto)
Plate 7. J. Wabu Creek, Site 54, Viti Levu. (Photo- David Boseto)
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Plate 8. L. Lower Wailotua River, Site 61, Viti Levu. (Photo- David Boseto)
Plate 9. S. Nukunuku Creek, Site 64, Viti Levu. (Photo- David Boseto)
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Plate 10. M. Tavoro Fall, Site 33, Taveuni. (Photo- David Boseto)
Plate 11. O. Wailevu Creek, Site 38, Taveuni. (Photo-Clare Morrison)
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Plate 12. P. Waitavala Creek, Site 42, Taveuni. (Photo- Aaron Jenkins)
Plate 13. Q. Savuqoro Creek below the fall, Site 58, Vanua Levu. (Photo- David Boseto)
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Appendix 11. Some freshwater and estuarine fishes caught during this study. The fish presented in alphabetical order as in Appendix 5 except for the introduced species that are placed at the end.
Plate 14. Ambassis miops, 70.3 mm SL, Tamavua River, Viti Levu (Photo- David Boseto)
Plate 15. Anguilla marmorata, 814.3 mm SL, Savura Creek, Viti Levu (Photo- David Boseto)
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Plate 16. Anguilla megastoma, 420 mm SL, Savura Creek, Viti Levu. (Photo- David Boseto)
Plate 17. Apogon amboinensis, 67 mm SL, Savura Creek, Viti Levu (Photo- David Boseto)
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Plate 18. Sardinella fijiensis, 150.2 mm SL, Tamavua River, Viti Levu (Photo- David Boseto)
Plate 19. Belobranchus belobranchus, 87.7 mm SL, Tavoro Creek, Taveuni. (Photo- David Boseto)
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Plate 20. Eleotris fusca, 72.9 mm SL, Wailotua River, Viti Levu. (Photo- David Boseto)
Plate 21. Giurus hoedti, 65 mm SL, Tavoro Creek, Taveuni (Photo- Aaron Jenkins)
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Plate 22. Giurus margaritacea, 101.5 mm SL, Tavoro Creek, Taveuni (Photo- David Boseto)
Plate 23. Hypseleotris guentheri, 61 mm SL, Savura Creek, Viti Levu (Photo- Aaron Jenkins)
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Plate 24. Gerres longirostris, 12.7 mm SL, Tamavua River, Viti Levu (Photo- David Boseto)
Plate 25. Glossogobius sp. 1., 101.7 mm SL, Wailotua River, Viti Levu. (Photo- David Boseto)
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Plate 26. Awaous ocellaris, 99.3 mm SL, Wailotua River, Viti Levu. (Photo- David Boseto)
Plate 27. Redigobius leveri, 38.7 mm SL, Savura Creek, Viti Levu. (Photo-Aaron Jenkins).
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Plate 28. Schismatogobius Vitiensis, 34.5 mm SL, Nasekawa River, Vanua Levu (Photo- John
Pogonowski)
Plate 29. Stenogobius sp. 1, 74.8 mm SL, Savura Creek, Viti Levu. (Photo- David Boseto)
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Plate 30. Lentipes kaaea, 37.2 mm SL, Waitavala Creek, Taveuni. (Photo-Aaron Jenkins).
Plate 31. Sicyopterus lagocephalus, 106 mm SL, Tavoro Creek, Taveuni (Photo- David Boseto)
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Plate 32. Sicyopus zosterophorum, 85.4 mm SL, Wailevu Creek, Taveuni. (Photo-Aaron Jenkins).
Plate 33. Sicyopus (c.f. Juxtastiphodon) sp., 85.4 mm SL, Waitavala Creek, Taveuni. (Photo- Aaron Jenkins).
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Plate 34. Stiphodon rutilaureus, 31.8 mm SL, Tavoro Creek, Taveuni. (Photo-Aaron Jenkins).
Plate 35. Stiphodon sp. 1. 35.1 mm SL, Tavoro Creek, Taveuni. (Photo-Aaron Jenkins).
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Plate 36. Stiphodon sp. 2, 25.3 mm SL, Waitavala Creek, Taveuni. (Photo-Aaron Jenkins).
Plate 37. Zenarchopterus dispar, 68.3 mm SL, Tamavua River, Viti Levu (Photo- David Boseto)
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Plate 38. Kuhlia marginata, 98 mm SL, Savura Creek, Viti Levu (Photo- David Boseto)
Plate 39. Kuhlia munda, 67 mm SL, Tavoro Creek, Taveuni (Photo- David Boseto)
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Plate 40. Kuhlia rupestris, 135 mm SL, Savura Creek, Viti Levu (Photo- David Boseto)
Plate 41. Leiognathus equulus, 4.2 mm SL, Tamavua River, Viti Levu (Photo- David Boseto)
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Plate 42. Leiognathus fasciatus, 135 mm SL, Savura Creek, Viti Levu (Photo- David Boseto)
Plate 43. Lutjanus argentimaculatus, 225.3 mm SL, Savura Creek, Viti Levu. (Photo- David Boseto)
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Plate 44. Lutjanus fulvus, 12.6 mm SL, Tavoro Creek, Taveuni (Photo- David Boseto)
Plate 45. Lutjanus russellii, 12.6 mm SL, Tavoro Creek, Taveuni (Photo- David Boseto)
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Plate 46. Monodactylus argenteus, 5.3 mm SL, Tamavua River, Viti Levu (Photo- David Boseto)
Plate 47. Liza subviridis, 15.9 mm SL, Tavoro Creek, Taveuni (Photo- David Boseto)
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Plate 48. Upeneus sulphureus, 89.1 mm SL, Savura Creek, Viti Levu (Photo- David Boseto)
Plate 49. Upeneus vittatus, 15.5 mm SL, Tavoro Creek, Taveuni (Photo- David Boseto)
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Plate 50. Lamnostoma kampeni, 230 mm SL, Savura Creek, Viti Levu. (Photo- David Boseto)
Plate 51. Yirrkala gjellerupi, 150 mm SL, Savura Creek, Viti Levu. (Photo- David Boseto)
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Plate 52. Tetraroge niger, 4.4 mm SL, Tamavua River, Viti Levu (Photo- David Boseto)
Plate 53. Siganus vermiculatus, 13.2 mm SL, Tamavua River, Viti Levu (Photo- David Boseto)
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Plate 54. Sphyraena obtusata, 270.4 mm SL, Tamavua River, Viti Levu (Photo- David Boseto)
Plate 55. Microphis brachyurus brachyurus, 280 mm SL, Tavoro Creek, Taveuni. (Photo- David Boseto)
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Plate 56. Mesopristes kneri, 17.2 mm SL, Tavoro Creek, Taveuni (Photo- David Boseto)
Introduced Species
Plate 57. Oreochromis mossambicus, 140.5 mm SL, Wailotua River, Viti Levu (Photo- David Boseto)
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Plate 58. Barbonymus gonionotus, 88.6 mm SL, Wailotua River, Viti Levu (Photo- David Boseto)
Plate 59. Poecilia reticulata, 61.3 mm SL, Wailotua River, Viti Levu (Photo- David Boseto)