european conference on optical communication ; 28 … · 2008. 7. 15. · 28th european conference...

28th European Conference

on Optical

COMMUNICATION

IEEE Catalog Number: 02TH8640ISBN VOL 1 - 87-90974-63-8ISBN VOL 2 - 87-90974-64-6ISBN VOL 3 - 87-90974-65-4ISBN VOL 4 - 87-90974-66-2ISBN POST DEADLINE PAPERS:

87-90974-67-0

SEPTEMBER 8-12, 2002 • BELLA CENTER • COPENHAGEN • DENMARK

ORGANIZED BY COM CENTER • SUPPORTING ORGANISATIONS: IEEE / LEOS, EUREL

EDITOR: PER DANIELSEN, COM, TECHNICAL UNIVERSITY OF DENMARK

TIB/UB Hannover 89

128 007 605

VOLUME 3 • WEDNESDAY • SEPTEMBER 11 • 2002

nqs

Volume 3 - table of contents

Tutorial 6

CONTROL PLANE FOR OPTICAL NETWORKS: THE STATE OF

THE STANDARDS

Saha D. Tellium, USA

Symposium 3 - Raman AmplifiersChair: C Larsen

Symposium 3.01

UTLRA-WIDE BAND TELLURITE-BASED FIBRE RAMAN AM¬

PLIFIERS

MoriA, Masuda H, Shimizu M. NTT corporation, Japan

Symposium 3.02

ULTRABROADBAND FIBER RAMAN AMPLIFIERS

Emori Y. Furukawa Electric, Japan

Symposium 3.03

SCALING THE RAMAN GAIN COEFFICIENT OF OPTICAL

fIBERS '

RottwittK(l), Bromage J(2), Leng L(2). 1: OFS Fitel, Denmark, 2:

OIK Fitel, USA

Symposium 3.04 <

QUASI-CONSTANT SIGNAL POWER TRANSMISSION

Bouteiller J-Q Brar K, Headley C. OFS Laboratories, USA

Symposium 3.05 \^

DIRECT COMPARISON OF ELECTRICAL AND OPTICAL MEAS¬

UREMENTS OF DOUBLE RAYLEIGH SCATTER NOISE

Smokovdin V, Lewis S A E, Chernikov S V. IPF Technology, UK

6.1 Dispersion CompensationChair: E lannone

6.1.1

STATUS AND FUTURE PROMISES FOR DISPERSION COM¬

PENSATING FIBRES

GrQner-Nielsen L, Edvold B. OFS Fitel Denmark l/S, Danmark

6.1.2

ERROR-FREE TUNABLE DISPERSION SLOPE COMPENSATION

FOR 40-Gb/s WDM SYSTEMS USING NON-CHANNELI-ZED 3rd-

ORDER CHIRPED FIBER BRAGG GRATINGS

SongYW(1), Pan Z(1), Yu C(1), Wang Y(1), Popelek J(2), Li H(2),

Li Y(2), Willner A E( 1). 1: University of Southern California, USA.2:

Phaethon Communications, USA

6.1.3

AUTOMATIC DISPERSION COMPENSATION FOR WDM

SYSTEM BY MODE-SPLITTING OF TONE-MODULATED CS-RZ

SIGNAL

Kuwahara S, Hirano A, Miyamoto Y, Murata K. NTTCorporation,

Japan

6.1.4

SIGNED ONLINE CHROMATIC DISPERSION DETECTION AT

40Gb/s WITH ASUB-PS/NM DYNAMIC ACCURACY

Sandel D, Mirvoda V, WOst F, Noe R, Hinz SO). University

Paderborn, Germany. 1: Siemens AG, Germany

6.1.5

EVALUATION OF THIRD-ORDER DISPERSION COMPENSA¬

TION BY PHASE MODULATION FOR 160 Gb/s RZ DATA US¬

ING AN ALL-OPTICAL SAMPLING SYSTEM

Hellstrdm E, Westlund M, Sunnerud H, Karlsson M, Andrekson P

A*.Chalmers University of Technology, Sweden. *CENiX Inc., USA

6.1.6

DISPERSION MANAGEMENT OPTIMIZATION FOR 160Gb/s

TRANSMISSION SYSTEMS USING RZ OR CS-RZ MODULATION

FORMATS

Frignac Y, Bissessur H, Pecci P, Bigo, S. Alactel, Research and In¬

novation, France

6.2 Planar Lightwave Circuits III

Chair: M R Poulsen

6.2.1

MULTIMODE FIBER MATCHED ARRAYED WAVE-GUIDES

GRATING-BASED (DE-)MULTIPLEXER FOR SHORT-DISTAN-CE

COMMUNICATIONS

MusaS, Borreman A, Pandraud G(1), Knijn P, Sengo G, Diemeer

M B J, Driessen A. University of Twente, The Netherlands. 1:

OpsiTech, France

6.2.2

LOW-INSERTION LOSS ATHERMAL AWG MULTI/DEMULTI-

PLEXER BASED ON PERFLUORINATED POLYMERS

Gao Reny., Gao R, Takayama K, Yeniay A, Garito A F. Photon-X,

Inc., USA

6.2.3

CENTRAL WAVELENGTH TRIMMING OF ALL-POLYMER

ATHERMAL AWG MULTIPLEXER

KeilN, Yao H H, Zawadzki C, Garbe S, RadmerO. Heinrich-Hertz-

Institut, Germany

6.2.4

FABRICATION AND ANALYSIS OF LOW DISPERSION AR-

RAYED-WAVEGUIDE GRATINGS WITH NARROW CHANNEL

SPACING

Yan M, Cao D, McGreer K A, Lam J. Lightwave Microsystems

Corp, USA

6.2.5

NEW PHASE CHARACTERISATION METHOD OF AWG FROM

TRANSMISSION AND GROUP DELAY MEASUREMENTS

LAzaroJA, Koppenborg J. Alcatel R&l, Germany


6.2.6

64 x 64-CHANNEL UNIFORM-LOSS AND CYCLIC-FREQUEN¬

CY ARRAYED-WAVEGUIDE GRATING ROUTER MODULE

KameiS, Ishii M, Itoh M, ShibataT, KitagawaT. NTT Corporation,

Japan

6.2.7

SCALABLE 128 x 128 OPTICAL SWITCH SYSTEM COMPOSED

OF PLANAR LIGHTWAVE CIRCUIT AND FIBER SHEET FOR

OPTICAL CROSSCONNECT

Goh T, Takahashi H, WatanabeT, Kobayashi M, Shibata T, Ishii M,

Sohma S, Abe Y, Okuno M, Hibino Y. NTT Corporation, Japan

6.3 Ail-optical ProcessingChair: N Doran

6.3.1

OPTICAL SIGNAL PROCESSING USING NONLINEAR FIBERS

Watanabe S, Futami F. Fujitsu Laboratories Ltd., Japan

6.3.2

OPTICAL 3R REGENERATION WITH ALL-OPTICAL TIMING

EXTRACTION AND SIMULTANEOUS WAVELENGTH CONVER¬

SION USING ASINGLE ELECTRO-ABSORPTION MODULATOR

AwadES, ChoPS, Richardson C, MoultonN, GoldharJ. University

of Maryland

6.3.3

NOVEL 3R REGENERATOR ARCHITECTURE WITH WAVE¬

LENGTH FLEXIBLE OUTPUT

Sartorius B, Slovak J, Bornholdt C, Nolting H-P. Heinrich-Hertz-

Institut, Germany

6.3.4

BENEFIT OF SPM-BASED ALL-OPTICAL RESHAPER FOR

DWDM SYSTEM USING OTDM RECEIVER

Yoshikane N, Morita I, Edagawa N. KDDI R&D Laboratories Inc.,

Japan

6.3.5

ALL-OPTICAL FIBER SIGNAL PROCESSING BASED ON BAL¬

ANCED NOLM AND IM8ALANCED NOLM

ChiN, Oxenlawe L, Siahlo A, Jeppesen P. COM, Technical University

of Denmark

6.3.6

40 Gb/s OPTICAL NOISE SUPPRESSION AND WAVELENGTH

CONVERSION BY MQWSATURABLE ABSORBER INTEGRATED

IN A FABRY-PEROT CAVITY

PantouvakiM(1), Burr E(1), Feced R(2), Fice M{2), Gwilliam R(3),

Roberts J S(4), Seeds A J(1). 1: University College London, UK. 2:

Nortel Networks, UK. 3: University of Surrey, UK. 4: University of

Sheffield, UK

6.4 Transparant NetworkingChair: A Gladisch

6.4.1

TRANSPARENT OPTICAL NETWORKING TRANSMISSION AND

IMPAIRMENTS THROUGH 12 DISTINCT OPTICAL NODES

DownieJ D, Sauer M, Franzen A, Ricketts D, Fu X,

Hemenway R. Corning Incorporated, USA

6.4.2

AUTOMATICWAVELENGTH SERVICE DEMONSTRATION US¬

ING 38 WAVELENGTHS AND 10.66 Gb/s THROUGH 12 INDE¬

PENDENT TRANSPARENT WDM NODES FOR LONG-HAUL

NETWORKING

FuX, Sauer M, Franzen A, Webb D, Ricketts D, Kaliniouk V, Li M,

DownieJ, Ruffin B, Onuorah A, Grzybowski R, Flavin T(2), Atkins

P(2), Davey R(2), Wagner R E, Hemenway R. 1: Corning Incorpo¬

rated, USA. 2: BTexact, UK

6.4.3

TRANSPARENT FOUR-FIBER OPTICAL CHANNEL SHARED

PROTECTION RING WITH SPAN AND RING SWITCHING

UMJ, Lelic I, Onuorah A, Tebben D J, Soulliere M J, Hilbert S T,

Gray M W, Zhao M, Kaliniouk V, Guiziou L, JouannoJ-M, Killian

K, Shacklette L, Hemenway B R, Wagner R E. Corning Incorprated,

USA

6.4.4

EXPERIMENTAL VALIDATION OF A TRANSPARENT WAVE¬

BAND-BASED OPTICAL BACKBONE NETWORK

PenninckxD, Charlet G, Antona J-C, Noirie L. Alcatel R&l, France

6.4.5

POLARIZATION MULTIPLEXING IN A REMOTELY-CONFIGU¬

RABLE PHOTONIC NETWORK

Hecker-Denschlag N E, Schairer W, Fischler W, Richter A,

Auernhammer T, Lankl B. Siemens AG, Germany

6.4.6

8 CASCADED LINEAR OPTICAL AMPLIFIERS IN A 200km,

8x10-Gb/s, METRO WDM RING FEATURING STATIC AND

DYNAMIC SWITCHING OF CHANNELS

CrijnsJJJ(l), Spiekman L H(1),van den Hoven G N(1), Tangdiongga

E<2), de Waardt H(2). 1: Genoa Corporation. 2: Eindhoven Uni¬

versity, The Netherlands

6.4.7

TECHNIQUES FOR SUPPRESSION OF RAMAN AND EDFA GAIN

TRANSIENTS IN DYNAMICALLY SWITCHED TRANSPARENT

PHOTONIC NETWORKS

Goeger G, Lankl B. Siemens AG, Germany


Tutorial 7

WDM IN THE METRO

Berthold J CIENA, USA

Symposium 3 - Raman Amplifiers (cont.)Chair: C Larsen

Symposium 3.06

RAMAN AMPLIFICATION IN ULTRA LONG HAUL SYSTEMS

NissovM, Foursa D G, Kidorf H D, Pilipetskii A N.Tyco. Telecom¬

munications, USA

Symposium 3.07

LOW-COST, HIGH-CAPACITY ULTRA-LONG-HAUL WDM SYS¬

TEMS BASED ON WIDE-BAND RAMAN AMPLIFICATION

ChbatM W, Fevrier H A. Xtera Communications, Inc., USA

Symposium 3.08

ALL-RAMAN AMPLIFIED LINKS IN COMPARISON TO EDFA-

LINKS IN CASE OF SWITCHED TRAFFIC

SchulzeE, Malach M, Raub F. OFS, Germany

Symposium 3.09

IMPACT OF DISCRETE RAMAN AMPLIFIER ARCHITECTURE

ON NONLINEAR IMPAIRMENTS

Thiele HJ, Bromage J, Nelson L. OFS Laboratories, USA

Symposium 3.10

EXPERIMENTAL INVESTIGATION OF PERFORMANCE IM¬

PROVEMENT BY CO-PROPAGATING RAMAN AMPLIFICA¬

TION IN REPEATERLESS SYSTEMS

Davenet M, Manach L, Favre F, Merlaud F, Leguen D, Billes L,

Georges T. Corvis Algety, France

7.1 Polarisation Mode Dispersion 1

Chair: P Andrekson

7.1.1

MITIGATION OF HIGHER ORDER PMD BY DISTRIBUTING

PMD COMPENSATORS IN THE TRANSMISSION LINE

Xie C Lucent Technologies, USA

7.1.2

COMPARISON OF POWER PENALTIES DUE TO FIRST- AND

ALL-ORDER PMD DISTORTIONS

Lima A 0(1), Lima I T(1), Adali T(1), Menyuk C R(2).

1: University of Maryland, USA. 2: PhotonEx, USA

7.1.3

ADAPTIVE PMD COMPENSATION IN A 160 Gb/s RZ TRANS¬

MISSION SYSTEM USING EYE MONITOR FEEDBACK

Buchali F(1), BQlow H(1). Baumert W(1), Schmidt M(1), Schuh

K(1), Lach E(1), Corbel E(2), Berger J(3), Ludwig R(3), Schubert

C(3), Weber H G(3). 1: Alcatel, Germany. 2: Alcatel, France. 3:

HHI, Germany

7.1.4

PMD MITIGATION BY FREQUENCY DIVERSE DETECTION

RECEIVER EMPLOYING ERROR-CORRECTION FUNCTION

Tomizawa M, Kisaka Y, Hirano A, Miyamoto Y. NTT Corporation,

Japan

7.1.5

ADAPTIVE ELECTRONIC EQUALIZATION USING HIGHER-OR¬

DER STATISTICS FOR PMD COMPENSATION IN LONG-HAUL

FIBER-OPTIC SYSTEMS

Koc U-V, Tu K-Y, Kaneda N. Lucent Technologies, USA

7.1.6

HIGH SENSITIVITY PERFORMANCE MONITORING AND IM¬

PAIRMENT COMPENSATION VIA TWO-PHOTON ABSORP¬

TION IN A PHOTON-COUNTING SILICON AVALANCHE

PHOTODIODE

Roth J M(1), Moeller L(2), Xu C(2), Knox W H(3), Bergman K(4).

1: Princeton University, USA. 2: Lucent Technologies, USA.3:

University of Rochester, USA. 4; Columbia University, USA

7.1.7

80 GBIT/S PMD COMPENSATION USING A HYBRID INTE¬

GRATED ALL-OPTICAL EXOR CIRCUIT

/to X, Sato R, Kasahara R, Ogawa I, Kawaguchi Y, Shibata Y, Ohki

A, Inoue Y, Kondo Y, Tohmori Y, Suzuki Y. NTT Corporation, Ja¬

pan

7.2 Gratings And Filters

Chair: P Chavel

7.2.1

UV-CURABLE SILICONE WRITE-THROUGH COATINGS FOR

FIBER BRAGG GRATINGS

Walker CB, Paolucci D. 3M Company, USA

7.2.2

TEMPERATURE-COMPENSATION OF FIBER BRAGG GRATINGS

BY POLYETHYLENE FIBER REINFORCED PLATICS

Oe K(1), Hashimoto T(1), Yano H(1), Mikami 0(2) Kakinuma S(2),

Yamanaka A(3). 1: Kyoto Institute of Technology, Japan. 2: Tokai

University, Japan. 3: Toyobo Co., Ltd., Japan


7.2.3

BRAGG GRATING PACKAGE FOR SIMPLE BROAD-RANGE

TUNING

MokhtarMRO), Ibsen M(1,2), Butler S A(1), SetSY(3), Richardson

D J(1,2), Payne D N(1,2), 1: University of Southhampton, UK. 2:

Southhampton Photonics Incorporated, UK. 3: Micron Optics Inc.,

USA

7.2.4

EXTERNAL SURROUNDING INSENSITIVE LONG PERIOD FIBER

GRATING

Tsuda X(1), Uemura Y<1), Koyamada Y(2)._1: The Furukawa Elec¬

tric Co., LTD, Japan. 2: Ibaraki University, Japen

7.2.5

TWO-POINT SOURCE GRATING WRITING METHODS

Ashton BJ, Canning J. 2: University of Sydney, Australia

7.2.6

LOW TEMPERATURE-SENSITIVE SILICA-BASEDWAVEGUIDE

BRAGG GRATING ON CRYSTALLIZED GLASS SUBSTRATE

Kintaka K(1), Nishii J(1), Kawamoto Y(2), Sakamoto A(3).

1: National Institute of Advanced Industrial Science and Technolo¬

gy, Japan. 2: Moritex Co., Japan. 3: Nippon Electric Glass Co.,

Ltd., Japan

7.2.7

LOW-DISPERSION FIBRE BRAGG GRATINGSWRITTEN USING

THE POLARIZATION CONTROL METHOD

Deyerl H-J, Plougmann N, Jensen J B D, EI-BezJ, Sarensen H R,

Peucheret C, Kristensen M. COM, Technical University of Den¬

mark, Denmark

7.3 All-optical RegenerationChair: I Bennion

7.3.1

ALL-OPTICAL RESHAPING/RETIMING OPERATION OF

INTERSUBBAND ABSORPTION SWITCH USING InGaAs/AIAs/

AlAsSb COUPLED QUANTUM WELLS

Simoyama X, Akiyama T, Gopal A V, Yoshida H, Mozume T,

Ishikawa H. The Femtosecond Technology Research Association,

Japan

7.3.2

NOVEL, HIGH-STABILITY 3R ALL-OPTICAL REGENE-RATOR

BASED ON POLARIZATION SWITCHING IN A SEMICONDUC¬

TOR OPTICAL AMPLIFIER

Gavioli G, Bayvel P. University College London, UK

7.3.3

BIT-RATE TUNABLE ALL-OPTICAL REGENERATION BY SOA-

BASED POLARIZATION DISCRIMINATED SWITCH USING

VARIABLE DIFFERENTIAL GROUP DELAY GE-NERATOR

Tsurusawa M, Inohara R, Nishimura K, Usami M. KDDI R&D Labo¬

ratories Inc., Japan

7.3.4

POWER EQUALIZATION AND SIGNAL REGENERATION WITH

DELAY INTERFEROMETER ALL-OPTICAL WAVELENGTH CON¬

VERTERS

LeutholdJ, Kauer M, Duelk M. Lucent Technologies, USA

7.3.5

OPERATION MARGINS OF 40Gbit/s SOA-MZI USED IN DIF¬

FERENTIAL SCHEME FOR OPTICAL 3R REGENE-RATION

Lavigne B, Balmefrezol E, Brindel P, Dagens B, Pierre L, Pecci P,

Brenot R, Leclerc O. Alcatel CIT/R&I, France

7.3.6

EXPERIMENTAL DEMONSTRATION AT 10 Gbps OF 2R OPTI¬

CAL REGENERATION IN A FIBER-BASED MZI WITH LOAS

Zhao M, De Merlier J, Morthier G, Baets R. Ghent University-

IMEC, Belgium

7.3.7

SINGLE-STAGE ALL-OPTICAL 3R AT 40 Gb/s RETAINING IN¬

PUT WAVELENGTH USING SAGNAC INTERFE-ROMETER IN¬

TEGRATED WITH PARALLEL-AMPLIFIER STRUCTURE (SIPAS)

Shibata Y, Kikuchi N, Oku S, Ito T, Okamoto H, Kawaguchi Y,

Kondo Y, Suzuki Y, Tohmori Y. NTT Corporation, Japan

7.4 Network Management and control

Chair: G Junyent

7.4.1

PHOTONICS IN THE 6* EUROPEAN RESEARCH FRAMEWORK

PROGRAM

Kalbe G. European Commission, Directorate General Informa¬

tion Society,

7.4.2

DEMONSTRATION OF FAST RESTORATION FOR DISTRIBUTED

CONTROL PLANE ON PHOTONIC NETWORK

Shimano K, Sahara A, Koga M, Takigawa Y, Sato K-l. Nippon

Telegraph and Telephone, Japan

7.4.3

LINK-BASED PHOTONIC PATH PERFORMANCE PREDICTION

AND CONTROL

Friskney R, Warbrick K, Poliakoff S, Heath R. Nortel Networks,

UK


7.4.4

SPECTRAL MONITORING OF OSNR IN HIGH-SPEED NET¬

WORKS

KilperD C, Chandrasekhar S, Buhl L, Agarwal A, Maywar D. Lucent

Technologies, USA

7.4.5

OSNR MONITORING FOR FAULT MANAGEMENT IN HIGH

SPEED NETWORKS

Weingartner W, Kilper D C. Lucent Technologies, USA

7.4.6

AUTONOMOUS ABSOLUTE-WAVELENGTHCONTROL

Hashimoto E, Katagiri Y. Nippon Telegraph and Telephone

Corporation, Japan

Tutorial 8

NOISE IN OPTICAL AMPLIFIERS AND THE NOISE FIGURE

DEFINITION

HausA. H Massachusetts Institute of Technology, USA

8.1 40 Gb/s Based Transmission

Chair: G Hill

8.1.1

NETWORK SYSTEM ARCHITECTURE BASED ON 43 Gbit/s OTN

ITU-T STANDARD

Kataoka X, Tomizawa M, Tada Y. NTT Corporation, Japan

8.1.2

1.6 Tb/s (40 x 40 Gb/s) DPSK TRANSMISSION WITH DIRECT

DETECTION

BissessurH, Charlet G, Gohin E, Simonneau C, Pierre L, Idler W(1).

Alcatel R&l, France. 1: Alcatel, Germany

8.1.3

3.2 TB/S (40 X 80 GB/S) STRAIGHT-LINE TRANSMISSION OVER

735 KM OF NDSF WITH 0.8 bit/s/Hz SPECTRAL EFFICIENCY

Duffy SM, Verghese S, Henion S, Romkey B, Rao H G, Weldon K

R. PhotonEx Corporation, USA

8.1.4

40 Gbit/s x 4 CHANNEL, ALL-OPTICAL MULTI-CHANNEL

LIMITER BASED ON SPECTRALLY FILTERED OPTICAL

SOLITONS

Ohara X, Takara H, Hirano A, Mori K, Kawanishi S. NTT Corpora¬

tion, Japan

8.1.S

0.8bit/S/Hz OF INFORMATION SPECTRAL DENSITY BY VES¬

TIGIAL SIDEBAND FILTERING OF 42.66 Gb/s NRZ

Idler W, Charlet G\ Dischler R, Frignac Y*, Bigo S*.AIcatel R&l,

Germany. * Alcatel, France

8.1.6

INVESTIGATION OF INTRA-CHANNEL NONLINEAR DISTOR¬

TION IN 40GBIT/S TRANSMISSION OVER NON-ZERO DISPER¬

SION SHIFTED FIBRE

Mikhailov V, Appathurai S, Killey R I, Bayvel P. University College

London,UK

8.2 Metropolitan Network TechniquesChair: P Gambini

8.2.1

STUDY ON FULL SPECTRUM DIRECTLY MODULATED CWDM

TRANSMISSION OF 10 Gb/s PER CHANNEL OVER WATER-

PEAK-SUPPRESSED NON-ZERO DISPERSION SHIFTED FIBER

Sogawa /, Kaida N, Iwai K, Takagi T, Nakabayashi T, Sasaki G.

Sumitomo Electric Industries, Ltd., Japan

8.2.2

ULTRA-HIGH CAPACITY TRANSMISSION OVER 3 KM OF LE¬

GACY 50um MULTIMODE-FIBRE USING C-BAND HDWDM

AND QUADRATURE-SUBCARRIER MULTIPLEXING

RochatE(l), Kourtessis P(1>, Webster M(2), Quinlan T(1), Dudley

S<1), Walker S D(1), Penty R V(2), Parker M C(3), White I H(2).

1: University of Essex, UK. 2: Cambridge University, UK 3: FujitsuNetwork Communications Inc., UK

8.2.3

PHOTONIC PARALLEL-TO-SERIAL CONVERTER USING MSM-

PDs FOR BYPASS/DROP SELF-ROUTING

Xakahata K, Nakahara T, Takenouchi H, Takahashi R, Suzuki H.

NTT Corporation, Japan.

8.2.4

DWDM DEMULTIPLEXING WITH 25-GHZ CHANNEL SPACING

FOR 60-GHZ BAND RADIO-ON-FIBER SYSTEMS

Toda H(1), Yamashita T(1), Kitayama K-i(1), Kuri T(2).1: Osaka

University, Japan 2: Communications Research Laboratory, Japan

8.2.5

10-GBIT/S BURST-MODE CLOCK AND DATA RECOVE-RY

UNITS FOR OPTICAL PACKET-BASED SYSTEMS

Kimura 5, Okada A, Endo J, Tanobe H, Suzuki Y, Matsuoka M.

NTT Photonics Laboratories, Japan

8.2.6

RAMAN AMPLIFIED METRO MULTIPLE RING NETWORKS

WITH PUMP POWER DISTRIBUTION NODE

Aoki Y, Kinoshita S. Fujitsu Network Communications, Inc., USA

8.2.7

40 dB MODULATION DEPTH ENHANCEMENT OF OPTICALLY

CARRIED MICROWAVE SIGNALS, BYSTIMULATED BRILLOUIN

SCATTERING IN OPTICAL FIBRES

Norcia 5, Tonda-Goldstein S, Dolfi D, Huignard J-P. Thales Re¬

search and Technology-France, France


8.3 Sources/Fiber Lasers

Chair: J T Kringlebotn

8.3.1

NOVEL 40GHz PULSE SOURCE WITH <350 FEMTO-SECOND

TIMING JITTER

Weingarten K J, SpOhler G J, Dymott M, Klimov I, Luntz G, Baraldi

L, Kilburn I, Crosby P, Thomas S, Zehnder O, Teisset C Y, Brownell

M, Dangel R(1), Offreln B J(1), Bona G L(1), Buccafusca 0(2), Kaneko

Y(2), Krainer L(4), Paschotta R(3), Keller U(3). GigaTera Inc., Swit¬

zerland. 1: IBM Research, Switzer-land. 2: Agilent Technologies,

USA. 3: Swiss Federal Institute of Technology, Switzerland

8.3.2

MULTI-WAVELENGTH, TUNABLE, HIGH-POWER RZ PULSE

SOURCE FOR WDM SYSTEMS BASED ON OPTICAL PARAMET¬

RIC AMPLIFICATION

7broi/n/d/s7'Sunnerud H.Hedekvist P-O, Andrekson P A*. Chalmers

University, Sweden. 2: *Cenix Inc., USA

8.3.3

GENERATION OF ULTRAHIGH REPETITION RATE PULSE

BURSTS USING SUPERIMPOSED FIBER BRAGG GRATINGS

Azafta J(1), Slavik R(2), Kockaert P(2,3), Chen L R(1), La Rochelle

5(2). 1: McGill University, Canada. 2: Universite Laval, Canada. 3:

Universite libre de Bruxelles, Belgium

8.3.4

NOVEL METHOD TO INCREASE PULSE REPETITION FRE¬

QUENCY IN FIBRE RING LASERS

Gupta K K(1), Onodera N(2), Hyodo M(1), Abedin K S(1),

Watanabe M(1), Ravikumar J(3). 1: Communications Research

Laboratory, Japan. 2: National Defense Academy, Japan 3: MSI

Marcony Company, Singapore

8.3.5

AN 8-CHANNEL FIBRE-DFB LASER WDM-TRANSMITTER

PUMPED WITH A SINGLE 1.2W Yb-FIBRE LASER OPERATED

AT977nm

Fu L B(1), Selvas R(1), Ibsen M(1,2), Sahu J K(1), Alam S-U(2),

Nilsson J(1,2), Richarsdon D J(1,2), Payne D N(1,2). Codemard

C(2), Goncharov S(3), Zalevsky l(3), Grudinin A B(2). 1: University

of Southampton, UK. 2: Southampton Photonics Inc., UK. 3: Milon

Laser, Russia

8.3.6

ALL-OPTICAL PULSE-RATE MULTIPLICATION USING FRAC¬

TIONAL TALBOT EFFECT AND FIELD TO INTENSITY CONVER¬

SION BY CROSS GAIN MODULATION

Atkins S, Dahan D, Fischer B. Institute of Technology, Israel

8.3.7

IMPROVED PERFORMANCE OF A160 Gb/s FIBRE BASED ALL-

OPTICAL SWITCH USING RECTANGULAR GATING PULSES

Schubert C, Ludwig R, Watanabe S(1), Futami F(1), Ferber S, Berger

J, Schmidt C, Weber H G. Heinrich-Hertz-lnstitut, Germany.1:

Fujitsu Lab. Ltd., Japan

8.4 All-optical DemulitiplexingChair: K White

8.4.1

320-Gbit/s DEMULTIPLEXING WITH MONOLITHIC PD-EAM

OPTICAL GATE

Kodama 5, Yoshimatsu T, Ito H. NTT Corporation, Japan

8.4.2

ULTRAFAST OPERATION OF OPTICAL TIME-DIVISION

DEMULTIPLEXER USING QUASI-PHASE MATCHED LiNb03

DEVICE

Klkuchl K(1), Fukuchi Y(1), Suzuki A(2), Kunimatsu D(2), Ito H(3).

1: University of Tokyo, Japan. 2: Femtosecond Technology Re¬

search Association, Japan. 3: Tohoku University, Japan

8.4.3

160-Gbit/s DEMULTIPLEXING TO BASE RATES OF 10 AND 40

Gbit/s WITH A MONOLITHICALLY INTEGRATED SOA-MACH-

ZEHNDER INTERFEROMETER

HeidM(l), Jansen S L(2), Spalter S(1), Meissner E(1), Vogt W(3),

Melchior, H(3). 1: SIEMENS AG, Germany. 2: Eindhoven University

of Technology, The Netherlands. 3: Swiss Federal Institute ofTech¬

nology, Switzerland.

8.4.4

40-GHz OPTICAL CLOCK RECOVERY FROM A 160-Gbit/s

OPTICAL DATA STREAM USING A REGENE-RATIVELY MODE-

LOCKED SEMICONDUCTOR LASER

Ohno X, Sato K, Shimizu T/Furuta T, Ito H. NTT Corporation, Ja¬

pan

8.4.5

FAST CLOCKED DECISION - A NOVEL ULTRA HIGH SPEED

SWITCHING TECHNIQUE

Nolting H-P, Sartorius B, Heinrich Hertz-lnstitut, Germany

8.4.6

STANDING-WAVE ENHANCED ELECTROABSORPTION MO¬

DULATOR FOR 80Gb/s TO 10Gb/s OTDM DEMULTIPLEXING

Chou H-F, Chiu Y-J, Bowers J, Rau L, Rangarajan S, Blumenthal D

J. University of California, Santa Barbara, USA


8.4.7

INTERSUBBAND TRANSITIONS WITH VERY LOW (FJ/um2)

SWITCHING ENERGY FOR ALL-OPTIC SWITCHES: DESIGN

AND REALIZATION

Gopal A V, Simoyama T, Yoshida H, Muzume T, Ishikawa H.

Femtosecond Technology Research Association, Japan

8.5 Optical Packet SwitchingChair: G Mogensen

8.5.1

OPTICAL PACKET SWITCHED METRO NETWORKS

Le Sauze N(1), Dotaro E(1), Ciavaglia L(1), Dupas A(1), Chiaroni

D(1), Ge A(2), Sridhar K(2), Dembeck L(3), Koerber W(3), Wolde

J(3). 1: Alcatel, France. 2: Alcatel, USA 3: Alcatel, Germany

8.5.2

COMPOSITE PACKET SWITCHED WDM NETWORK

BoroditskyMO), Lam C F(2), SmiljanicAO), Frigo NJ(1), Dreyer K

F(3), Ackerman D A(4), Johnson J E(4), Ketelsen L J P(4), Chen

A(4). 1: AT&T Labs-Research. 2: OpVista. 3: Lucent Technologies.4: Agere Systems, USA

8.5.3

A PACKET SCHEDULING ALGORITHM FORTHE 2x2 PHOTO¬

NIC PACKET SWITCH WITH FDL BUFFERS

Baba K-i, Takemori R, Murata M, Kitayama K-i. Osaka University,

Japan

8.5.4

CHOOSING AN APPROPRIATE BUFFER STRATEGY FOR AN

OPTICAL PACKET SWITCH WITH A FEED-BACK FDL BUFFER

Develder C, Pickavet M, Demeester P. Ghent University - IMEC,

Belgium

8.5.5

SIZE AND CASCADABILITY LIMITS OF SOA BASED BURST

SWITCHING NODES

Feng H, Patzak E, Saniter J. Heinrich-Hertz-lnstitut, Germany

8.5.6

DATA REWRITE OF WAVELENGTH CHANNEL USING SATU¬

RATED SOA MODULATOR FOR WDM METRO/ACCESS NET¬

WORKS WITH CENTRALIZED LIGHT SOURCES

Xakesue H, Sugie T. NTT Access Network, Japan

Fibers and waveguide components

P1.1

DISCRETE RAMAN AMPLIFIERS WITH PUMP REFLECTORS

FOR INCREASED GAIN AND EFFICIENCY

Nicholson J. OFS Laboratories, USA

P1.2

ALL-OPTICAL SWITCHING BY OPTICAL FIBERGRATING COU¬

PLER

Sasaki Y(1), MineoH(1),Yokota H<1), Shiojiri Y(2). KanbeH(2). 1:

Ibaraki University, Japan.2: Kochi University of Technology, Japan

P1.3

JITTER CHARACTERISTICS OF A FOUR-WAVE-MIXING BASED

CLOCK EXTRACTOR

Bilenca A, Dahan D, Lasri J, Eisenstein G.Technion, Israel

P1.4

ALL-SILICA DOUBLE-CLAD HEXAGONAL YB:ER FIBERS

CroteauA, Le Foulgoc K, Meneghini C, Ptneau t, Lauzon J. INO,

Canada

P1.5

EFFECT OF GAIN DISTRIBUTION AND PUMP NOISE TRANS¬

FER ON NOISE GENERATION IN RAMAN AMPLIFIERS

Dallot V, Gallion P, Bridoux E. Ecole Nationale SupeYieure des

Telecommunications, France

P1.6

WAVELENGTH SENSITIVITY OF POLARIZATION DEPENDENT

LOSS MEASUREMENTS IN SWEPT LASER SYSTEMS

Anderson D. Tektronix, USA

P1.7

NONLINEAR COEFFICIENT MEASUREMENf METHOD FOR

OPTICAL FIBERS BASED ON FREQUENCY RESPONSE OF IN¬

TENSITY MODULATION

Mori X, Furukawa H. Anritsu Corporation, Japan

P1.8

ACCURATE TUNING OF THE HIGHLY-NEGATIVE-CHROMATIC-

DISPERSION WAVELENGTH IN DUAL CONCENTRIC CORE FI¬

BRE BY MACRO-BENDING

FGvrierS, Auguste J-L, Blondy J-M, Peyrilloux A, Roy P, Pagnoux

D. IRCOM, France

P1.9

FLUORINATED POLYIMIDE WAVEGUIDE FABRICATED USING

REPLICATION PROCESS WITH ANTISTICKING LAYER

Shioda T. Mitsui Chemicals, Inc., Japan

P1.10

NONLINEAR PHOTOSENSITIVITY COMPENSATION FOR FLAT

DISPERSION BRAGG GRATING FABRICATION

Besley J A, Reekie L, Weeks C, Bolger J A. JDS Uniphase, Aus¬

tralia

P1.11

GRADED-INDEX PLASTIC OPTICAL FIBERS EXCEEDING

Ishigure X Koike Y. Keio University, Japan


P1.12

THE NEW OPTICAL COUPLING WITH THE SUPER WIDE

RANGE AR BY THE GRIN-COAT

Anzaki X Mori K, Kunisada T, Nakama K, Nakamura K, Honda M,

Enjoji K, Oikawa M, Fukuzawa T. Nippon Sheet Glass, Japan

P1.13

RAMAN NOISE FIGURE IN DISPERSION-MANAGED FIBERS

Kobyakov A, Vasilyev M, Tsuda S, Giudice G, Ten S,

Corning Inc., USA

P1.14

DESIGN OF CLADDING PUMPED EDFAS USING A SPATIALLY

RESOLVED NUMERICAL MODEL

Sf'monneau C, Provost L, Bousselet P, Leplingard F, Moreau C,

Gasca L, Bayart D. Alcatel Research & Innovation, France.

PI.15

NOVEL ALL-FIBER BANDPASS FILTER BASED ON HOLLOW

OPTICAL FIBER

Choi S, Eom T J, Yu J W, Lee B H, Oh K. Institute of Science and

Technology, Korea

P1.16

1545NM-PUMPED LONG-WAVELENGH-BAND ERBIUM-

DOPED FIBER AMPLIFIER WITH ENHANCED POWER CON¬

VERSION EFFICIENCY

Choi B-H(l), Chu M-J(2), Park H-H(1). 1: The University of Mel¬

bourne, Australia. 2: Optical Link Technology Team, ETRI, Korea

PI.17

ADJUSTABLE DISPERSION COMPENSATORS WITH WAVE¬

LENGTH TUNABILITY BASED ON ENHANCED THERMAL

CHIRPING OF FIBER BRAGG GRATINGS

Dabarsyah B, Goh C S, Khijwania S K, Set S Y, Katoh K, Kikuchi K.

The University of Tokyo, Japan

P1.18

NOISE SUPPRESSION IN A HARMONICALLY MODE-LOCKED

FIBRE RING LASER

Zhao DO), Lai Y(1), Shu X(2), Zhang W(2), Zhang L(1), Bennion

1(1). 1: Aston University, UK. 2: Indigo Photonics Ltd. UK

P1.19

LOW POWER CONSUMPTION SILICA-BASED MULTI-CHAN¬

NEL VARIABLE OPTICAL ATTENUATOR USING PLANAR

LIGHTWAVE CIRCUITTECHNOLOGY FOR MULTIFUNCTIONAL

APPLICATION

Hatayama H, Shiozaki M, Hirose C, Saitoh T, Komiya T, Semura S,

Katsuyama T, Yamabayashi N, Sumitomo Electric Industries, Ltd.,

Japan

"\

P1.20

PASSBAND FLATTENING AND REJECTION BAND BROADEN¬

ING OF A PERIODIC MACH-ZEHNDER WAVELENGTH FlbTER

BY ADDING A TUNED RING RESONATOR ,'^

Roeloffzen C, de Ridder R M, Sengo G, Worhoff K, Drie'ssen A.'

University of Twente, The Netherlands •'

P1.21

HIGH-POWER STABLE MACH-ZEHNDER-INTERFE-ROMETER-

TYPE 15-WAVELENGTH MULTIPLEXER FOR 1480NM BAND

PUMPING

Seo K, Iwaya M, Shiino M, Tanaka K, Hideshima Y. The Furukawa

Electric Co., Ltd., Japan

P1.22

BACKWARD AND FORWARD FOUR WAVE MIXING WITH

NONLINEAR FIBER INCREASED IN BRILLOUIN GAIN BAND¬

WIDTH BY ACOUSTIC BEAT

Oh I. Mokpo National University, Korea

P1.23

RELATIONSHIP BETWEEN RELATIVE DISPERSION SLOPE OF

A TRANSMISSION FIBER AND THE USABLE BANDWIDTH

AFTER DISPERSION COMPENSATING

RathjeJ, Gruner-Nielsen L OFS Fitel Denmark, Denmark

P1.24

BROADBAND HIGH POWER FIBER VARIABLE OPTICAL

ATTENUATOR FOR GAIN CONTROL OF RAMAN AMPLIFIER

Shin W, Jeong Y, Oh K.Kwangju Institute of Science and Technol¬

ogy, Korea

P1.25

A +24 dBm TWO STAGE HYBRID ER DOPED - Er/Yb CO-

DOPED DOUBLE CLAD FIBER AMPLIFIER FOR THE C BAND

EvenP, Tallaron N, Monteville A, Metayer B, Ossikovski R, Pureur

D. HighWave Optical Technologies, France

P1.26

BANDWITH AND CHIRP CHARACTERISATION OF WA¬

VELENGTH CONVERSION BASED ON ELECTROAB-SORPTION

MODULATORS

Xu L, Oxenlawe L K, Chi N, Romstad F P, Yvind K, M0rk J, Jeppesen

P, Hoppe K, Hanberg J(1).COM, Technical University of Denmark,

Denmark.(1) Giga-An Intel Company

P1.27

MEMS VOA WITH POLYMERIC THERMAL MICRO-ACTUA¬

TORS

Diemeer M, Dekker R(1). University of Twente, The Netherlands.

(1) JDS Uniphase Corporation, Ottawa


P1.28

ALTERNATE WAVELENGTH-SWITCHING IN A DUAL-WAVE¬

LENGTH MODE-LOCKED FIBER LASER

Chen L R(1), Pudo D(1), Lim K L(1), Zhang L(2), Bennion l(2).1: McGill University, Canada. 2: Aston University, UK

P1.29

LIMITATIONS OF LOW PDL ALL-FIBER LARGE BAND FABRY-

PEROT FILTERS

Slavik R, LaRocheile S, Doucet S. Universite Laval, Canada

P1.30

BACKSCATTERING RECAPTURE FACTOR MEASURE-MENTS

USING OPTICAL CONTINUOUS WAVE

REFLECTOMETRY

ArtigJia M, Locaputo M, Ruocchio C. Pirelli Cables & Systems

Telecom, Italy

P1.31

HIGH REFRACTIVE INDEX CONTRAST TRANSMISSION GRAT¬

ING FOR INTEGRATED OPTICAL WAVELENGTH DIVISION

MULTIPLEXING

Wiechmann S, Heider H J, Muller J.Technical University of

Hamburg-Harburg, Germany

P1.32

SPATIAL CHARACTERIZATION OF FBG'S USING LAYER PEEL¬

ING

Waagaard O H, R0nnekleiv E, Kringlebotn J T.Optoplan AS, Nor¬

way

P1.33

BROADBAND PMD EQUALIZATION

Eyal AO), Yariv A(2). 1: Tel-Aviv University, Israel. 2: California

Institute of Technology, USA

P1.34

MULTIPLE SPAN DISPERSION COMPENSATION USING ALL-

FIBER HIGHER-ORDER-MODE DISPERSION COMPENSATORS

Ghalmi S, Ramachandran S, Monberg E, Wang Z, Yan M,

Dimarcello F, Reed W, Wisk P, Fleming J. OFS Laboratories, USA

P1.35

WIDE-BAND HIGH NEGATIVE DISPERSION-FLATTENED FIBER

Jeon J U, Seo H K, Lee YT. Operations Support System Laboratory,

Korea

P1.36

IMPROVING EFFICIENCY OF SUPERCONTINUUM GENERA¬

TION IN PHOTONIC CRYSTAL FIBERS BY DIRECT DEGENER¬

ATE FOUR-WAVE-MIXING

NikolovN1(1,2), BangOO), BjarklevAO). 1: Technical University

of Denmark. 2: Ris0 National Laboratory, Denmark

P1.37

EFFICIENT HIGH-CONCENTRATION Er:Yb DOPED LINEAR

WAVEGUIDE AMPLIFIERS

XaccheoSO), Jose G(1), Sorbelio G(1), Osellame R(1), Migliorati

D(1), Laporta P(1), Foglietti V(2), Cienci E(2), Jiang 5(3),

Peyghambarian N(3). 1: Politecnico di Milano, Italy. 2: IESS-CNR,'

Italy. 3: Tucson University, Tucson, AZ

P1.38

OPTICAL LOSS ANALYSIS OF SILICON RICH NITRIDE

WAVEGUIDES

Martens H, Andersen K N, Svendsen W £. COM, Technical Uni¬

versity of Denmark, Denmark

Optoelectronics and semiconductor integratedDevices

P2.1

NEW HIGH POWER RIDGE-WAVEGUIDE 980 NM LASER DI¬

ODES

KawasakiK, Shigihara K, Yoshida Y, Yamamura S-i, Yagi T, Mitsui

Y. Mitsubishi Electric Corporation, Japan

P2.2

40 GHz HYBRID MODE-LOCKED LASER DIODE WITH IMPED¬

ANCE-MATCHING CIRCUIT

Arahira S, Mineo N, Tachibana K, Ogawa Y. Oki Electric Industry

Co., Ltd. Japan

P2.3

ELECTRO-THERMALLYTUNABLEDIELECTRICMIRROR MEM¬

BRANES FOR OPTICAL FILTERS AND VCSELS

RiemenschneiderF(1), Halbritter H(1), Hess GO), Jacquet J(2), Plais

A(2), Sigmund J(1), Meissner P(1). 1: Technische UniversitSt

Darmstadt, Germany. 2: OPTO+, Alcatel Research & Innovation,

France

P2.4

MODE CONTROL OF WIDELY-TUNABLE SG-DBR LASERS

Larson M, Bai M, Bingo D, Ramdas N, Penniman S, Fish G A,

Coldren L D. Agility Communications, USA

P2.5

PHOTONIC BANDGAP EFFECT IN DISORDERED ARRAYS OF

SCATTERERS: IMPLICATIONS TO BROADBAND, LOW-LOSS

WAVEGUIDING

Leosson K(1), Bozhevolnyi S(2), Volkov V(2), Boltasseva A(3). 1:

Micro Managed Photons A/S, Denmark. 2: Aalborg University,

Denmark. 3: COM, Technical University of Denmark, Danmark

P2.6

ALL-OPTICAL WAVELENGTH CONVERSION WITH NRZ-RZ

FORMAT CONVERSION

Chow C W, Wong C S, Tsang H K. 1: The Chinese University of

Hong Kong.


P2.7

HIGHLY RELIABLE 40mW, 25GHz X 20 CH THERMALLY TUN¬

ABLE DFB LASER MODULE INTEGRATED WITH WAVE¬

LENGTH MONITOR

Mukaihara TO), Nasu H(1), Kimoto T(1), Tamura S(1), Nomura

T(1), Shinagawa TO), Kasukawa A(1), Oike M(2) Matsuura H(2),

Shiba T(2). 1: Yokohama R&D Labs. Japan. 2: Fitel Photonics Lab.,

Japan

P2.8

OUTPUT POWER CONTROL AND WAVELENGTH MONITOR¬

ING IN WIDELY TUNABLE SAMPLED-GRATING DBR LASERS

USING INTEGRATED SEMICONDUCTOR OPTICAL AMPLIFIERS

MajewskiMLO), RakicADO), Coldren LA(2,3), Akulova Y(3). 1:

University of Queensland, Australia. 2: University of California at

Santa Barbara, USA. 3: Agility Communications Inc. USA

P2.9

WAVELENGTH CONVERSION EXPERIMENTS BY FOUR-WAVE

MIXING IN A MODE-LOCKED DBR LASER DIODE

Arahira S, Ogawa Y. Oki Electric Industry Co., Ltd., Japan

P2.10

ENGINEERING COUPLED DEFECTS FOR PHOTONIC CRYSTAL-

BASED OPTICAL DELAY LINES. ALL-OPTICAL SWITCHESAND

WAVEGUIDE INTERSECTIONS

Lan S, Kanamoto K, Nishikawa S, Sugimoto Y, Ikeda N, Yang T,

Asakawa K, Ishikawa H. The Femtosecond Technology Reseach

Association, Japan

P2.11

A PACKAGED 40Gb/s X-CUT LiNb03 MODULATOR WITH 3V-

DRIVE-VOLTAGE AND SUPPRESSED DC-DRIFT

Kondo JO), Kondo A(1), Aoki K(1), Mori T(1), Mizuno Y(1),

Takatsuji SO), Mitomi 0(1), Imaeda M(1), Kozuka Y(1), Minakata

M(2). 1: NGK Insulators, Ltd., Japan. 2: Shizuoka University, Ja¬

pan

P2.12

IMPROVEMENT OF SINGLE-MODE OPERATING RANGE IN

TUNABLE EXTENDED-CAVITY LASERS WITH INTRA-CAVITY

DYNAMIC HOLOGRAPHY

Godard A0,2), Pauliat G(1), Roosen G(1), Graindorge P(2).1:

Laboratoire Charles Fabry de I'lnstitut d'Optique, France. 2:

NetTest, Photonics Division, France

P2.13

CHARACTERIZATION AND DEVELOPMENT OF MICRO-MA¬

CHINED VARIABLE OPTICAL ATTENUATOR

DaiX, Zhao X, Cai B, Li W. Shanghai Jiaotong University, China

P2.14

ALL-OPTICAL WAVELENGTH CONVERTER BASED ON CROSS-

POLARIZATION MODULATION IN A SINGLE SEMICONDUC¬

TOR OPTICAL AMPLIFIER

Liu Y, Hill M T, Tangdiongga E, de Waardt H, Calabretta N, Khoe

G D, Dorren HJ S. Eindhoven University of Technology, The Neth¬

erlands

P2.15

A NOVEL RECEPTACLE-TYPE SMALL-FORM UN-COOLED DFB-

LASER MODULE WITH AN LD DRIVER IC FOR 10Gb/s

ETHERNET APPLICATION

Xakagi X, Fukushima N, Sato M, Kihara T, Nakabayashi T, Go H.

Sumitomo Electric Industries, Ltd., Japan

P2.17

80 Gb/s CLOCK RECOVERY USING A TWO-SECTION GAIN-

COUPLED DFB LASER

Li Y, Li G. University of Central Florida, USA

P2.18

2.5Gbit/s 85°C FLOOR-FREE OPERATION OF 1.3pm DFB LA¬

SERS UNDER EXTERNAL OPTICAL FEEDBACK FOR DIFFER¬

ENT REFLECTION DISTANCES

GrillotFO), Thedrez B(1), Gauthier-Lafaye 0(1), PyJ(1), Martineau

M F(1), Lafragette J L(1), Gentner J L(1), Silvestre L(2). 1: Alcatel

R&l, France. 2: Alcatel Optronics, France

P2.19

DESIGN AND FABRICATION OF HIGHLY EFFICIENT NON-LIN¬

EAR OPTICAL DEVICES FOR IMPLEMENTING HIGH-SPEED

OPTICAL PROCESSING

Barry L P(1), Krug T(2), Folliot H(2), Lynch M(2), Bradley A L(2),

Donegan J F(2), Roberts J S(3), Hill G(3). 1: Dublin City University,

Ireland. 2: Trinity College, Ireland. 3: University of Sheffield, UK

P2.20

A COMPACT(7cc), 8-CHANNEL-INTEGRATED PLC-BASED

OPTICAL MODULE WITH AUTOMATIC TUNABLE FILTER FOR

MULTI-RATE APPLICATIONS

Kimura H, Yoshida T, Kumozaki K, Nakamura M. NTT Corpora¬

tion, Japan

P2.21

MONOLITHICALLY INTEGRATED InP-BASED DYNAMIC

CHANNEL EQUALIZER USING WAVEGUIDE ELECTRO-AB¬

SORPTIVE ATTENUATORS - PHOTODE-TECTORS

Xolstikhin VI, Densmore A, Laframboise S, Noel J-P. Pimenov K.

MetroPhotonics Inc., Canada

P2.22

5W IN A MULTI-MODE FIBER FROM OF A SINGLE 980-nm-

EMITTING LASER DIODE

Deichsel E, J3ger R, Unger P. University of Ulm, Germany


P2.23

SOA CHARACTERISTICS FOR L-BAND SYSTEM APPLICATIONS

Xurukhin A, Lunardi L, Gonzales E, Vreeburg K(1). JDS Uniphase

Corporation, USA (1: The Netherlands)

P2.24

EXTERNAL CAVITY DIODE LASERS FOR NETWORK APPLICA¬

TIONS

Anthon D, Berger J D, Cheung K, Drake J, Dutta S, Fennema A,

Grade J D, Hrinya S, llkov F, Jerman H, King D, Lee H, Tselikov A,

Yasumura K. lolon, Inc., USA

P2.25

SHORT PULSE ABSORPTION DYNAMICS IN A P-l-N InGaAsP

MQW WAVEGUIDE SATURABLE ABSORBER

RomstadF(1), Ohman F(1), Mark J(1), Yvind K(1), Hvam J M(1),

Hanberg J(2). 1: COM, Technical University of Denmark, Den¬

mark. 2: Giga ApS-An Intel Company.

P2.26

MIRRORS WITH INTEGRATED POSITION SENSE ELECTRON¬

ICS FOR OPTICAL SWITCHING APPLICATIONS

Roessig XArakelian A, Brosnihan T, Clark B, Han D, Judy M, Juneau

T, Lemkin M, Sherman S(1), Swift J(1>. Analog Devices, USA.

(DAnalog Devices, UK

P2.27

METROTRANSMISSION PERFORMANCE OF UNCOOLED 1.55-

MICRON DFB LASERS OPERATING UP TO 85°C

ThieleHJ(1), Yatsu R(2), Morshed M(2), Funabashi M(2).

1: OFS, USA. 2: The Furukawa Electric Co., Japan

P2.28

SIMPLE MEASUREMENT OF THE CHIRP PARAMETER OF OP¬

TICAL MODULATORS USING PARTIAL OPTICAL FILTERING

Yan L-S, Yu Q, Willner A E.University of Southern California, USA

P2.29

LONG-TERM RELIABLE TAPERED 3-SECTION DBR WITH

20mW- 15.5nm FAST TUNING

Debr6geas-S/llardH, Plais A, David J, Vuong A, Le Gouezigou O,

Decobert J, Herrati D, Houe F, Serrano C, Doussiere P, Jacquet J.

Alcatel, France

P2.30

EXTREMELY BROADBAND TUNABLE SEMICONDUCTOR LA¬

SERS FOR OPTICAL COMMUNICATION

Lin C-F, Su Y-S, Chen C-H. National Taiwan University, Taiwan

P2.31

43 Gb/s MODULATOR DRIVER INTEGRATED CIRCUITWITH 6

VPP OUTPUT VOLTAGE FOR LONG HAUL TRANSMISSION

SYSTEMS WITH FEC

Karstensen H, Rozmann M, Bonthron A, Albers J. Multilink

Technology GmbH, Germany.

P2.32

4:1 MULTIPLEXER AND 1:4 DEMULTIPLEXER CHIPSET FOR

DATA RATES UP TO 50 Gb/s IN SiGe

TECHNOLOGY

Adamczyk O H, Woyciehowsky S P, Binkley J M, Otero A E,

Rozmann M, Albers J IM. Multilink Technology Corporation, USA

Systems technologies

P3.1

MODIFIED DUOBINARY SIGNAL GENERATION IN A MACH-

ZEHNDER MODULATOR WITH COUNTER-PROPAGATING OP¬

TICAL AND ELECTRICAL FIELDS

Enning B, Jagst V P. University of Applied Sciences, Germany

P3.2

ULTRA LOW TIMING JITTER OPTICAL SAMPLING SYSTEM

USING PASSIVELY MODE-LOCKED FIBER LASER

Yamada N, Ohta H, Nogiwa S. ANDO Electric Co. Ltd., Japan

P3.3

FIELD TRIAL OF OPTICAL DUOBINARY TRANSMISSION OVER

1720km At lOGb/s

Kaiser WO), Ehrhardt A(2), Rosenkranz W(1), Hanik N(2).

1: University of Kiel, Germany. 2: T-Systems Nova GmbH, Germany

P3.4

THE IMPACT OF POLARIZATION MODE DISPERSION (PMD)

ON OPTICAL DUOBINARY TRANSMISSION

Carena A, Curri V, Gaudino R, Poggiolini P. Dipartimento di

Elettronica, Politecnico di Torino, Italy

P3.5

OPTIMIZED POLARIZATION SCRAMBLERS FOR PMD DETEC¬

TION

Mirvoda V, Sandel D, Wust F, No6 R. University Paderbom, Ger¬

many

P3.6

PERIODIC POLARIZATION SCRAMBLING WITH UNIFORMLY

DISTRIBUTED SOPS ON THE POINCARE SPHERE

Yan L-S, Yu Q, Willner A E.University of Southern California, USA

P3.7

ON THE USE OF NRZ, RZAND CSRZ MODULATION FORMATS

FOR ULTRA-DENSEWDM AT 40 GBIT/S

Bosco G, Carena A, Curri V, Gaudino R, Poggiolini P. Diparimento

di Elettronica, Politecnico di Torino, Italy


P3.8

OPTIMUM SPLITTING RATIO FOR AMPLIFIER NOISE REDUC¬

TION BY AN ASYMMETRIC NONLINEAR OPTICAL LOOP MIR¬

ROR

Meissner M(1), Rdsch M(1), Korolkova N(1), Sizmann A(2),

Schmauss B(1), Leuchs G(1).1: Friedrich Alexander University,

Germany. 2: Innovance Networks, Canada

P3.9

lOGbit/sWAVELENGTHCONVERTER-RESHAPERBASEDON

MULTI-WAVELENGTHS SPECTRAL COMPONENTS GENERA¬

TION IN OPTICAL FIBRE

Tosi-Beleffi G M, Curti F, Matera F. Fondazione Ugo Bordoni, Italy

P3.10

DETERMINING AND MINIMISING PMD-INDUCED IMPAIR¬

MENTS IN WDM SYSTEMS WITH POLARISATION INTERLEAV¬

ING

Ciaramella E. CNIT, Italy

P3.11

OPTIMISATION OF A POLARISATION MULTIPLEXED SCHE¬

ME AT 1.28bit/s/Hz INFORMATION SPECTRAL DENSITY

Lanne S, Frignac Y, Charlet G, Idler W(1), Bigo S, Alcatel R&l,

France. (1) Alcatel R&l, Germany

P3.12

ALL-OPTICAL PASSIVE 2R REGENERATION FOR NX40 GBIT/S

WDM TRANSMISSION USING NOLM AND NOVEL FILTERING

TECHNIQUE

Boscolo S, Turitsyn S K, Blow K J. Aston University, UK

P3.13

MONITORING OF TRANSMISSION IMPAIRMENTS IN LONG-

HAUL TRANSMISSION SYSTEMS USING THE NOVEL DIGITAL

CONTROL MODULATION TECHNIQUE

Rohde M, Bachus E-J, Raub F. Heinrich-Hertz-lnstitut, Germany

P3.14

OPTICAL REGENERATION OF 40 Gb/s TRANSMISSION OVER

SMF USING PERIODIC BANDWIDTH MANAGEMENT OF DM

SOLITONS

WaiyapotS, Mezentsev V K, Turitsyn S K. Aston University, UK

P3.15

SHORT PERIOD DISPERSION MANAGEMENT OF 160 GB/S

SINGLE CHANNEL FIBER SYSTEM

XuZO), PeucheretCO), Le Q(2), Jeppesen P(1). 1: COM, Techni¬

cal University of Denmark. 2: OFS Fitel Denmark l/S, Denmark

P3.16

INTERPLAY OF FIBER NON-LINEARITY AND OPTICAL FILTER¬

ING IN ULTRA-DENSE WDM

Lyubomirsky I, Qiu T, Roman J, Nayfeh M, Frankel M, Taylor M G.

CIENA Corporation, USA

P3.17

NOVEL DISPERSION-BASED OPTICAL DELAY LINE USING

ARRAYED WAVEGUIDE GRATING FOR ANTENNA

BEAMFORMING APPLICATIONS

Vidal B, Madrid D, Corral J L, Polo V, Marti J. Polytechnic Univer¬

sity of Valencia, Spain

P3.18

BENEFITS OF BIT-TO-BIT POLARISATION INTERLEAVING FOR

NX40GBIT/S ALL-DISTRIBUTED RAMAN AMPLIFIED SUBMA¬

RINE TRANSMISSION

Le Meur G, Corbel E. Alcatel R&l, France

P3.19

ADAPTIVE CODE LENGTH FEC FOR UNCOMPENSATED MET¬

ROPOLITAN 320 GB/S DWDM NETWORKS

Lee H, Kim C, Kim Y, Park S, Kim B, Koh J, Hwang S,

Oh Y, Kang B. Samsung Electronics, Korea

P3.20

PRODUCT CODES FOR OPTICAL COMMUNICATION

Andersen J D. COM Technical University of Denmark, Denmark

P3.21

NOVEL SLOPE COMPENSATED DCF FOR NZDSF PERMITS

BROAD CAPACITY INCREASE FOR FUTURE PROOF ULTRA-

LONG HAULWDM SYSTEMS

Caspar C(1), Raub F(1), Bachus E-J(1), Breuer D(2), Hanik N(2),

McLeod S(3), Edwards M(3).1: Heinrich Hertz Institut, Germany.

2: T-Systems Nova, Germany. 2: Corning Optical Fiber, UK

P3.22

MODULATION FORMAT COMPARISON BETWEEN CHIRPED-

RZ AND CHIRPED-NRZ IN 37.5GHz SPACED 32 X 11.4Gbit/s

LONG-HAUL TRANSMISSION USING NON-ZERO DISPERSION

SHIFTED FIBRE SPAN

Yamauchi H, Shibano E, Taga H, Goto K. KDDI Submarine Cable

System Inc., Japan

P3.23

ENABLING C AND L BAND ULH TRANSMISSION BY MITIGAT¬

ING RAMAN PUMP FWM

Gertsvolf M, Pourbahri B, Harvey H J, Robinson A M, Luo B S,

Parent A. Ceyba Inc., Canada

P3.24

PERFORMANCE COMPARISON OF 4Nx40 Gb/s AND Nx160

Gb/s TRANSMISSION SYSTEMS

HodzicA, Konrad B, Randel S, Petermann K. Technical University

of Berlin, Germany


P3.25

DETAILED MODELING AND EXPERIMENTAL INVESTI-GATION

OF40 Gb/s MULTI-SPAN TRANSMISSION SYSTEMS IN STAND¬

ARD SMF FOR NRZ AND RZ MODULATION

BuxensA, Olesen D, Ellegaard L(1), Birk M, Brodsky M, Frigo N,

(2), Jeppesen P(3). 1: Tellabs Denmark, Denmark. 2: AT&T Labs-

Research, USA. 3: COM,Technical University of Denmark, Den¬

mark

P3.26

IMPACT OF SIGNAL DISTORTIONS ON SYSTEMS USING FEC

RethertJd), de Arruda Mello D A(2), FOrst C(1).1: Siemens AG,

Germany. 2: Munich University, Germany

P3.27

LDPC CODES FOR LONG HAUL OPTICAL COMMUNICATIONS

VasicB, Djordjevic I B. University of Arizona, USA

P3.28

WDM-TRANSMISSION OVER MIXED FIBER INFRASTRUC¬

TURES

BreuerDO), Hanik N<1), Caspar C(2), Raub F(2), Bramann G(2),

Rohde M(2), Bachus E-J(2), McLeod S(3), Edwards M(3). 1: T-Sys-

tems Nova, Germany. 2: Heinrich Hertz Institute, Germany.

3: Corning Optical, Fiber, UK.

P3.29

NONLINEAR PENALTY REDUCTION OF RZ-DBPSK VERSUS RZ-

OOK MODULATION FORMAT IN FIBER COMMUNICATIONS

Grigoryan VS, Cho P S, Shpantzer I, CeLight Inc., USA

P3.30

ANALYSIS OF BI-DIRECTIONAL AND SECOND-ORDER PUMP¬

ING IN LONG-HAUL SYSTEMS WITH DISTRIBUTED RAMAN

AMPLIFICATION

Martinelli C, Mongardien D, Antona J C, Simonneau C, Bayart D.

Alcatel R&l, France

P3.31

INFLUENCE OF BITWISE PHASE CHANGES ON THE PERFORM¬

ANCE OF 160 Gbit/s TRANSMISSION SYSTEMS

RandelS, Konrad B, HodzicA, Petermann K.Technical University

Berlin, Germany

P3.32

REDUCTION OF CHROMATIC DISPERSION EFFECTS AND

LINEARIZATION OF DUAL-DRIVE MACH-ZEHNDER MODU¬

LATOR BY USING SEMICONDUCTOR OPTICAL AMPLIFIER IN

ANALOG OPTICAL LINKS

Lee S-Y, Koo B-J, Jung H-D, Han S-K. Yonsei University, Korea

P3.33

BIDIRECTIONAL TRANSMISSION OF 32-QAM RADIO OVER

A SINGLE MULTIMODE FIBRE USING 850-nm VERTICAL-CAV¬

ITY HALF-DUPLEX TRANSCEIVERS

InghamJD(l). Webster M(1), Wake D(2), SeedsAJ(2), Penty R

V(1), White I H(1). 1: University of Cambridge, UK. 2: University

College London, UK

Networks and switching

P4.1

A NOVEL LABEL ERASER BASED ON LYOT-SAGNAC FILTER

Jia Z, Chen M, Xie S. Tsinghua University, China

P4.2

ASTUDY OF GAIN DYNAMICS OF ERBIUM-DOPED FIBER AM¬

PLIFIERS FOR BURST OPTICAL SIGNALS

ShiozakiX Fuse M, Morikura S. Matsushita Electric Industrial Co,

Ltd., Japan

P4.3

TOWARDS ALL-OPTICAL LOGICS OPERATING AT 1Tbit/s US¬

ING A SEMICONDUCTOR OPTICAL AMPLIFIER

YangX(1), Lenstra D(1,2), Dorren H J S(1). 1: Eindhoven Univer¬

sity of Technology, The Netherlands.2: Vrije University, The Neth¬

erlands

P4.4

A NEW ALL OPTICAL LABEL SWAPPING METHOD BASED ON

OPTICAL FSK HEADER ENCODING ON THE INTENSITY

MODULATED PAYLOAD

Lallas E, Skarmoutsos N, Syvridis D. University of Athens, Greece

P4.5

ULTRAFAST OPTICAL-DOMAIN PATH SETUP FOR OPTICAL

BURST SWITCHING USING OPTICAL-CODE BASED HEADER

PROCESSING

Kitayama K, Arakawa S, Murata M. Osaka University, Japan

P4.6

OPTICAL PACKET SWITCH MODELLING AND ITS

TRAFFIC SHAPING EFFECTS

Lam C, Simeonidou D. University of Essex, UK

P4.7

A SCALABLE OPTICAL PACKET SWITCH FOR VARIABLE

LENGTH PACKETS EMPLOYING SHARED ELECTRONIC BUFF¬

ERING

Bjeirnstad S, Hjelme D R, Stol N. Norwegian University of Science

and Technology, Norway


P4.8

ALL OPTICAL N-BIT XOR GATE WITH FEEDBACK FOR OPTI¬

CAL PACKET HEADER PROCESSING

MartinezJ M, Ramos F, Marti J, Herrera J, Llorente R. Universidad

Politecnica de Valencia, Spain

P4.9

A MINIMUM INTERFERENCE ROUTING ALGORITHM FOR

MULTI-PERIOD PLANNING OFWDM LIGHTPATH NETWORKS

WITHOUT TRAFFIC PREDICTION

Fukushima Y(1), Harai H(2), Arakawa S-i(1), Murata M(1).Miyahara

H(1). 1: Osaka University, Japan. 2: Communacations Research

Laboratory, Japan

P4.10

ALL-OPTICAL ADDRESS AND DATA SEPARATION FOR 10 Gb/

s PACKETS

PlerosNO), Bintjas C(1), Yiannopoulos K(1), Theophilopoulos G(1),

Kalyvas M(1), Vyrsokinos K(1), Avramopoulos H,(1), Guekos G(2).

1: National Technical University of Athens, Greece. 2: Swiss Fed¬

eral Institute of Tecnology, Switzerland

P4.11

PROTOCOL INTERWORKING IN THE CONTROL PLANE OF

TRANSPARENT ASONs

BuchwieserA, Goeger G, Fischler W, Haebel U, Nathansen M,

Schluter P, Stilling B. Siemens AG, Germany

P4.12

BPR ARCHITECTURE FOR DWDM/SCM FIBER-WIRELESS AC¬

CESS NETWORKS

Lin W-PO), Chi S(2). 1: Chien-Kuo Institute of Technology, Taiwan.

2: National Chiao-Tung University, Taiwan

P4.13

ARCHITECTING SELF-TUNING OPTICAL NETWORKS

Acharya S, Chang Y-J, Gupta B, Risbood P, Srivastava A. Lucent

Technologies Inc., USA

P4.14

FAST WAVELENGTH SELECTIVE ELECTROHOLOGRA-PHIC

SWITCHING FOR BURST SWITCHING APPLICATIONS

AgranatA JO,2), Secundo L(2), Bartal G(2). 1: Trellis Photonics

Ltd., Israel.2: The Hebrew University of Jerusalem, Israel

P4.15

FIELD DEMONSTRATION OF A SIMPLE & LOW-COST METRO

AREA NETWORK INTERCONNECTION USING AGBICTRANS-

CEIVER WITH A DIRECTLY MODULATED LASER OVER

1700KM DWDM LINK

Braun R-P, Ehrhardt A, Szuppa S, Haase R, Gladisch A. T-SystemsNova GmbH, Germany

P4.16

ROUTING AND WAVELENGTH ASSIGNMENT WITH QUAL-

ITY-OF-SIGNAL CONSTRAINTS IN WDM NETWORKS

Huang Y G, Gengata A, Heritage J P, Mukherjee B. University of

California, USA

P4.17

OPTIMAL CONFIGURATION OF OPTICAL LINE SYSTEMS UN¬

DER VARIOUS CONSTRAINTS

Alicherry M, Gogate S, Nagesh H, Poosala V. Lucent Technolo¬

gies, USA

P4.18

PROTECTING IP BACKBONE: MPLS VS. OPTICAL MESH RE¬

STORATION

Sengupta S, Sana D, Bontu S. Srinivas Bontu Tellium Inc., USA

P4.19

CATZ (CAPACITY ALLOCATION WITH TIME ZONES): A METH¬

ODOLOGY FOR COST-EFFICIENT BANDWIDTH ALLOCATION

AND RECONFIGURATION IN A WORLD-WIDE WDM NET¬

WORK

Gencata A(1,2), Mukherjee B(1). 1: University of California, USA.

2: Istanbul Technical University

P4.20

HELIOS: AN ALL-OPTICAL BROADCAST LAN ARCHITECTURE

Jackson L E, Baldine I. MCNC, USA

P3.16

INTERPLAY OF FIBER NON-LINEARITY AND OPTICAL FILTER¬

ING IN ULTRA-DENSE WDM

Lyubomirsky I, Qiu T, Roman J, Nayfeh M, Frankel M, Taylor M G.

CIENA Corporation, USA

P3.17

NOVEL DISPERSION-BASED OPTICAL DELAY LINE USING

ARRAYED WAVEGUIDE GRATING FOR ANTENNA BEAM-

FORMING APPLICATIONS

VidalB, Madrid D, Corral J L, Polo V, Martf J.Polytechnic Univer¬

sity of Valencia, Spain

P3.18

BENEFITS OF BIT-TO-BIT POLARISATION INTERLEAVING FOR

NX40GBIT/S ALL-DISTRIBUTED RAMAN AMPLIFIED SUBMA¬

RINE TRANSMISSION

Le Meur G, Corbel E. Alcatel R&l, France

P3.19

ADAPTIVE CODE LENGTH FEC FOR UNCOMPENSATED MET¬

ROPOLITAN 320 GB/S DWDM NETWORKS

Lee H, Kim C, Kim Y, Park S, Kim B, Koh J, Hwang S, Oh Y, Kang

B, Samsung Electronics, Korea


P3.20

PRODUCT CODES FOR OPTICAL COMMUNICATION

Andersen J D. COM Technical University of Denmark, Denmark

P3.21

NOVEL SLOPE COMPENSATED DCF FOR NZDSF PERMITS

BROAD CAPACITY INCREASE FOR FUTURE PROOF ULTRA-

LONG HAULWDM SYSTEMS

Caspar CO), Raub F(1), Bachus E-J(1), Breuer D(2), Hanik N(2),

McLeod S(3), Edwards M(3). 1: Heinrich Hertz Institut, Germany.

2: T-Systems Nova, Germany. 2: Corning Optical Fiber, UK

P3.22

MODULATION FORMAT COMPARISON BETWEEN CHIRPED-

RZ AND CHIRPED-NRZ IN 37.5GHz SPACED 32 X 11.4Gbit/s

LONG-HAULTRANSMISSION USING NON-ZERO DISPERSION

SHIFTED FIBRE SPAN

YamauchiH, Shibano E, Taga H, Goto K.KDDI Submarine Cable

System Inc., Japan

P3.23

ENABLING C AND L BAND ULH TRANSMISSION BY MITIGAT¬

ING RAMAN PUMP FWM

Gertsvolf M, Pourbahri B, Harvey H J, Robinson A M, Luo B S,

Parent A. Ceyba Inc., Canada

P3.24

PERFORMANCE COMPARISON OF 4Nx40 Gb/s AND Nx160

Gb/s TRANSMISSION SYSTEMS

HodzicA, Konrad B, Randel S, Petermann K.Technical University

of Berlin, Germany

P3.25

DETAILED MODELING AND EXPERIMENTAL INVESTI-GATION

OF 40 Gb/s MULTI-SPAN TRANSMISSION SYSTEMS IN STAND¬

ARD SMF FOR NRZ AND RZ MODULATION

BuxensA, Olesen D, Ellegaard L(1), Birk M, Brodsky M, Frigo N,

(2), Jeppesen P(3).1: Tellabs Denmark, Denmark. 2: AT&T Labs-

Research, USA. 3: COM,Technical University of Denmark, Den¬

mark

P3.26

IMPACT OF SIGNAL DISTORTIONS ON SYSTEMS

USING FEC

ReichertJ(l), de Arruda Mello D A(2), FQrst C(1). 1: Siemens AG,

Germany. 2: Munich University, Germany

P3.27

LDPC CODES FOR LONG HAUL OPTICAL COMMUNICATIONS

Vasic B, Djordjevic I B. University of Arizona, USA

P3.28

WDM-TRANSMISSION OVER MIXED FIBER INFRASTRUC¬

TURES

BreuerD(1), Hanik NO), Caspar C(2), Raub F(2), Bramann G(2),

Rohde M(2), Bachus E-J(2), McLeod S(3), Edwards M(3). 1: T-Sys-tems Nova, Germany. 2: Heinrich Hertz Institute, Germany.

3: Corning Optical, Fiber, UK.

P3.29

NONLINEAR PENALTY REDUCTION OF RZ-DBPSK VERSUS RZ-

OOK MODULATION FORMAT IN FIBER COMMUNICATIONS

Grigoryan VS, Cho P S, Shpantzer I. CeLight Inc., USA

P3.30

ANALYSIS OF BI-DIRECTIONAL AND SECOND-ORDER PUMP¬

ING IN LONG-HAUL SYSTEMS WITH DISTRIBUTED RAMAN

AMPLIFICATION

Martinelli C, Mongardien D, Antona J C, Simonneau C, Bayart D.

Alcatel R&l, France

P3.31

INFLUENCE OF BITWISE PHASE CHANGES ON THE PERFORM¬

ANCE OF 160 Gbit/s TRANSMISSION SYSTEMS

RandelS, Konrad B, HodzicA, Petermann K.Technical University

Berlin, Germany

P3.32

REDUCTION OF CHROMATIC DISPERSION EFFECTS AND

LINEARIZATION OF DUAL-DRIVE MACH-ZEHNDER MODU¬

LATOR BY USING SEMICONDUCTOR OPTICAL AMPLIFIER IN

ANALOG OPTICAL LINKS

Lee S-Y, Koo B-J, Jung H-D, Han S-K. Yonsei University, Korea

P3.33

BIDIRECTIONAL TRANSMISSION OF 32-QAM RADIO OVER

A SINGLE MULTIMODE FIBRE USING 850-nm VERTICAL-CAV¬

ITY HALF-DUPLEX TRANSCEIVERS

Ingham J DO), Webster M(1), Wake D(2), Seeds A J(2>, Penty R

V(1), White I H(1). 1: University of Cambridge, UK. 2: University

College London, UK

Networks and switching

P4.1

A NOVEL LABEL ERASER BASED ON LYOT-SAGNAC FILTER

JiaZ, Chen M, Xie S. Tsinghua University, China

P4.2

ASTUDY OF GAIN DYNAMICS OF ERBIUM-DOPED FIBER AM¬

PLIFIERS FOR BURST OPTICAL SIGNALS

Shiozaki X, Fuse M, Morikura S.Matsushita Electric Industrial Co.

Ltd., Japan


P4.3

TOWARDS ALL-OPTICAL LOGICS OPERATING AT 1Tbit/s US¬

ING A SEMICONDUCTOR OPTICAL AMPLIFIER

YangXO), Lenstra D(1,2), Dorren H J SO). 1: Eindhoven Univer¬

sity of Technology, The Netherlands. 2: Vrije University, The Neth¬

erlands

P4.4

A NEW ALL OPTICAL LABEL SWAPPING METHOD BASED ON

OPTICAL FSK HEADER ENCODING ON THE INTENSITY MO¬

DULATED PAYLOAD

Laltas E, Skarmoutsos N, Syvridis D, University of Athens, Greece

P4.5

ULTRAFAST OPTICAL-DOMAIN PATH SETUP FOR OPTICAL

BURST SWITCHING USING OPTICAL-CODE BASED HEADER

PROCESSING

Kitayama K, Arakawa S, Murata M. Osaka University, Japan

P4.6

.

OPTICAL PACKET SWITCH MODELLING AND ITS TRAFFIC

SHAPING EFFECTS

Lam C, Simeonidou D. University of Essex, UK

P4.7

A SCALABLE OPTICAL PACKET SWITCH FOR VARIABLE

LENGTH PACKETS EMPLOYING SHARED ELECTRONIC BUFF¬

ERING

BjornstadS, Hjelme D R, Stol N. Norwegian University of Science

and Technology, Norway

P4.8

ALL OPTICAL N-BIT XOR GATE WITH FEEDBACK FOR OPTI¬

CAL PACKET HEADER PROCESSING

MartinezJ M, Ramos F, Marti J, Herrera J, Llorente R. Universidad

Politecnica de Valencia, Spain

P4.9

A MINIMUM INTERFERENCE ROUTING ALGORITHM FOR

MULTI-PERIOD PLANNING OFWDM LIGHTPATH NETWORKS

WITHOUT TRAFFIC PREDICTION

Fukushima YO), Harai H(2), Arakawa S-i(1), Murata M(1).Miyahara

H(1). 1: Osaka University, Japan. 2: Communacatlons Research

Laboratory, Japan

P4.10

ALL-OPTICAL ADDRESS AND DATA SEPARATION FOR 10G/S

PACKETS

PlerosNO), BintjasCO), YiannopoulosK(1),TheophilopoulosG(1),

Kalyvas M(1), Vyrsokinos K(1), Avramopoulos H,(1), Guekos G(2).

1: National Technical University of Athens, Greece. 2: Swiss Fed¬

eral Institute of Tecnology, Switzerland

P4.11

PROTOCOL INTERWORKING IN THE CONTROL PLANE OF

TRANSPARENT ASONs

BuchwieserA, Goeger G, Fischler W, Haebel U, Nathansen M,

Schiuter P, Stilling B. Siemens AG, Germany

P4.12

BPR ARCHITECTURE FOR DWDM/SCM FIBER-WIRELESS AC¬

CESS NETWORKS

Lin W-P(1), Chi S(2). 1: Chien-Kuo Institute of Technology, Taiwan.

2: National Chiao-Tung University, Taiwan

P4.13

ARCHITECTING SELF-TUNING OPTICAL NETWORKS

Acharya S, Chang Y-J, Gupta B, Risbood P, Srivastava A.

Lucent Technologies Inc., USA

P4.14

FAST WAVELENGTH SELECTIVE ELECTROHOLOGRA-PHIC

SWITCHING FOR BURST SWITCHING

APPLICATIONS

Agranat A JO,2), Secundo L(2), Bartai G(2). 1: Trellis Photonics

Ltd., Israel. 2: The Hebrew University of Jerusalem, Israel

P4.15

FIELD DEMONSTRATION OF A SIMPLE & LOW-COST METRO

AREA NETWORK INTERCONNECTION USING A GBIC TRANS¬

CEIVER WITH A DIRECTLY MODULATED LASER OVER

1700KM DWDM LINK

Braun R-P, Ehrhardt A, Szuppa S, Haase R, Gladisch A. T-SystemsNova GmbH, Germany

P4.16

ROUTING AND WAVELENGTH ASSIGNMENT WITH QUAL-

ITY-OF-SIGNAL CONSTRAINTS IN WDM NETWORKS

Huang YG, Gengata A, Heritage J P, Mukherjee B. University of

California, USA

P4.17

OPTIMAL CONFIGURATION OF OPTICAL LINE SYSTEMS UN¬

DER VARIOUS CONSTRAINTS

Alicherry M, Gogate S, Nagesh H, Poosala V, Lucent Technolo¬

gies, USA

P4.18

PROTECTING IP BACKBONE: MPLS VS. OPTICAL MESH RES¬

TORATION

Sengupta S, Saha D, Bontu S. Srinivas Bontu Tellium Inc., USA


P4.19

CATZ (CAPACITY ALLOCATION WITH TIME ZONES): A METH¬

ODOLOGY FOR COST-EFFICIENT BANDWIDTH ALLOCATION

AND RECONFIGURATION IN A WORLD-WIDE WDM NET¬

WORK

Gencata A0,2), Mukherjee B(1). 1: University of California, USA.

2: Istanbul Technical University

P4.20

HELIOS: AN ALL-OPTICAL BROADCAST LAN ARCHITECTURE

Jackson L E, Baldine I. MCNC, USA

european conference on optical communication ; 28 … · 2008. 7. 15. · 28th european conference...

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