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    G.H. RAISONI COLLEGE OF ENGINEERING, NAGPUR.(An Autonomous Institute under UGC Act 1956)

    DEPARTMENT OF CIVIL ENGINEERING

    TEACHING PLANName of Subject Teacher: Mr. K.R.Dabhekar Name of Subject: STRUCTURAL ANALYSIS -III

    Semester/Year: SEVENTH/FINAL Academic Year: 2012-13No. of Hours as per University Curriculum:Theory - 48 Practical- --

    LectNo

    Portion of Syllabus to be covered

    1 Unit-1Introduction and necessity as well as application of subject ,Basic concept, Degree of Freedoms,.

    2 Basic concept of Direct Stiffness Method, Formulation of elemental stiffness matrix for plain truss.

    3 Numerical on Formulation of elemental stiffness matrix for plain truss.

    4 Numerical on Formulation of elemental stiffness matrix for plain truss.

    5 Local stiffness matrix and global stiffness matrix for plain truss.

    6 Transformation Matrix, Assembly of Global stiffness matrix for plain truss. Structure load matrix

    7 Numerical on Transformation Matrix, Assembly of Global stiffness matrix for plain truss. Structure load ma8 Numerical on truss Structure stiffness matrix up to (8X8). Member load matrix, Assembly of Global stiffnes

    9 Numerical on truss Structure stiffness matrix up to (8X8). Member load matrix, Assembly of Global stiffnes

    matrix

    10 Unit-2 Formulation of elemental / local stiffness matrix and global stiffness matrix for Beam members (withaxial deformation)

    11 Numerical on elemental / local stiffness matrix and global stiffness matrix for Beam members (without deformation)

    12 Formulation elemental / local stiffness matrix and global stiffness matrix for continuous beams, (without axdeformation)

    13 Numerical on elemental / local stiffness matrix and global stiffness matrix for continuous Beam members

    14 Transformation matrix Assembly of global/Structure stiffness matrix, freedom four. for continuous B

    members

    15 Numerical on Transformation matrix Assembly of global/Structure stiffness matrix, freedom four

    continuous Beam members

    16 Member load matrix due to concentrated load, Uniformly distributed load,

    17 Numerical on Member load matrix due to concentrated load, Uniformly distributed load,

    18 Numerical on Moment assembly of global/ structure load matrix up to(8X8)Solution to problem with maxidegree of

    19 Unit-3 Formulation of elemental /local stiffness matrix and global stiffness matrix for Plane Frame member

    (With axial deformation),

    20 Numerical on elemental /local stiffness matrix and global stiffness matrix for Plane Frame member (With

    deformation),

    21 Transformation matrix, Assembly of global / Structure stiffness matrix,

    22 Numerical on Transformation matrix, Assembly of global / Structure stiffness matrix,

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    PRACTICAL: Minimum Eight Problems, on complete syllabus with hand calculations using scientific

    calculators and also solution to same problems by using available readymade software. (Solution is restricted

    to four degree of freedom problems and assembly restricted to eight degree of freedom problems.

    Prof. K.R.Dabhekar

    (Subject Teacher)

    23 Member load matrix due to concentrated loads, Uniformly distributed loads, moments, Assembly of Global

    /Structure load matrix.

    24 Numerical on Member load matrix due to concentrated loads, Uniformly distributed loads, moments, Assem

    of Global /Structure load matrix.

    25 Solution to plane frame problems with maximum degree of freedom six, Inclined member problem

    26 Numerical on Solution to plane frame problems with maximum degree of freedom six, Inclined me

    problem

    27 Unit -4 Formulations of element / local stiffness matrix and global stiffness matrix for plane Grid

    28 Numerical on element / local stiffness matrix and global stiffness matrix for plane Grid

    29 Transformation Matrix for plane Grid, Assembly of global/ structure stiffness matrix,

    30 Numerical on Transformation Matrix for plane Grid, Assembly of global/ structure stiffness matrix,

    31 Member load matrix due to concentrated loads uniformly distributed Loads, Moments,

    32 Numerical on Member load matrix due to concentrated loads uniformly distributed Loads, Moments,

    33 Assembly of global/ structure load matrix. Solution to problem with maximum degree of freedom six.

    34 Numerical on Assembly of global/ structure load matrix. Solution to problem with maximum degree of free

    six.

    35 Unit-5. Analysis of Member for temperature loading

    36 Numerical on Analysis of Member for temperature loading

    37 Initial joint displacement (sinking of support), lack of fit in trusses,

    38 Numerical on Initial joint displacement (sinking of support), lack of fit in trusses,

    39 Trusses with inclined roller, storing of global/ structure stiffness Matrix,

    40 Numerical on Trusses with inclined roller, storing of global/ structure stiffness Matrix,

    41 Full storage, banded storage, band Minimization.

    42 Unit-6 Introduction to finite Element method , basic concept,

    43 Discretisation of structure, Rayleigh Ritz member for bar elements (prismatic / Non prismatic)

    44 Numerical on Discretisation of structure, Rayleigh Ritz member for bar elements (prismatic / Non prismatic

    45 Displacement based Bar elements (prismatic / non prismatic) and Bean elements (prismatic)

    46 Numerical on Displacement based Bar elements (prismatic / non prismatic) and Bean elements (prismatic)

    47 Load Matrix for body forces

    48 Numerical on Load Matrix for body forces

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    G.H. RAI SONI COLLEGE OF ENGI NEERI NG, NAGPUR.

    DEPARTMENT OF CIVIL ENGINEERINGName of Subject Teacher: Mr. V. K. GajghateName of Subject: ADVANCED CONCRETE STRUCTURESSemester/Year: SEVENTH SEMISTERSection: ANo. of Theory Hours to be engaged: 45

    [Academic Session (Odd Semester) 11th

    June 2012 to 25th

    Sept. 2012]

    Lecture

    No.

    Portion of Syllabus to be covered

    1. Introduction to Advance Concrete Structures and their wide applications and

    Objectives of Subject.

    2. Unit I : Chapter I : Limit States of collapse and flexure

    Introduction, Analysis of T- Beam.

    3. Analysis of L- Beam.

    4. Design of T Beam with problems

    5. Design of L Beam with Problems

    6. Design of L Beam with Problems

    7. Unit I : Chapter II : Limit States of collapse in torsion

    Introduction to torsion, Concept of interaction of torsion

    8. Shear and fleaxure.

    9. Analysis and design of rectangular section for torsion, shear and flexure.10. Unit I : Chapter III : Limit States of serviceability

    Introduction

    11. Deflection calculation of beams.

    12. Deflection calculation of one way Slab.

    13. Unit II : Chapter IV : Column

    Introduction to bi axial bending, bi axial moment

    14. Analysis of column subjected to bi axial moment.

    15. Design of column subjected to bi axial moment.

    16. Design of long column with problem

    17. Unit II : Chapter V : Footings

    Introduction, Design of isolated footing for square column

    18. Design of isolated footing for rectangular column

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    19. Design of isolated footing for circular column

    20. Unit III : Chapter VI : Moment Redistribution

    Introduction, Analysis of fixed beam.

    21. Design of fixed beam with redistributed moment

    22. Design of proped cantilever beam with redistributed moment

    23. Design of two span symmetric continuous beam with redistributed moment.

    24. Unit IV : Chapter VII : Portal Frames

    Introduction, Analysis of single bay single storey portal frames with hinged or fixed

    base.

    25. Design of single bay single storey portal frames with hinged or fixed base.

    26. Design of single bay single storey portal frames with hinged or fixed base.

    27. Design of Hinge with foundation

    28. Design of Hinge with foundation

    29. Unit IV : Chapter VIII : Combined footings

    Introduction to rectangular combined footing, strap beam footing, trapezoidalfooting, raft footing.

    30. Design of rectangular footing with problem.

    31. Design of rectangular footing with problem.

    32. Design of strap beam footing with problem.

    33. Design of strap beam footing with problem.

    34. Unit IV : Chapter IX : Two way slab.

    Introduction to 2 Way slab with their end conditions.

    35. Design of RCC 2 Way slab with simply supported end condition for single panel

    using IS 456 2000 coefficients.

    36. Design of RCC 2 Way slab with simply supported end condition for single panel

    using IS 456 2000 coefficients.

    37. Design of RCC 2 Way slab with simply supported end condition for continues

    edge using IS 456 2000 coefficients.

    38. Design of RCC 2 Way slab with simply supported end condition for continues

    edge using IS 456 2000 coefficients.

    39. Unit IV : Chapter X : Retaining Wall

    Introduction to retaining wall with their verious types.

    40. Design of RCC cantilever retaining wall with nproblem

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    41. Design of RCC cantilever retaining wall with problem

    42. Design of RCC cantilever retaining wall with problem

    43. Design of counterfort retaining wall with problem.

    44. Design of counterfort retaining wall with problem.

    45. Revision of All Topics

    Prof . V. K. Gajghat e

    Subject Teacher

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    G.H. RAI SONI COLLEGE OF ENGI NEERI NG, NAGPUR.

    DEPARTMENT OF CIVIL ENGINEERINGName of Subject Teacher: Mr. P. B. PATIL1Name of Subject: ADVANCED CONCRETE STRUCTURESSemester/Year: SEVENTH SEMISTERSection: BNo. of Theory Hours to be engaged: 45

    [Academic Session (Odd Semester) 11th

    June 2012 to 25th

    Sept. 2012]

    Lecture

    No.

    Portion of Syllabus to be covered

    1. Introduction to Advance Concrete Structures and their wide applications and

    Objectives of Subject.

    2. Unit I : Chapter I : Limit States of collapse and flexure

    Introduction, Analysis of T- Beam.

    3. Analysis of L- Beam.

    4. Design of T Beam with problems

    5. Design of L Beam with Problems

    6. Design of L Beam with Problems

    7. Unit I : Chapter II : Limit States of collapse in torsion

    Introduction to torsion, Concept of interaction of torsion

    8. Shear and fleaxure.

    9. Analysis and design of rectangular section for torsion, shear and flexure.10. Unit I : Chapter III : Limit States of serviceability

    Introduction

    11. Deflection calculation of beams.

    12. Deflection calculation of one way Slab.

    13. Unit II : Chapter IV : Column

    Introduction to bi axial bending, bi axial moment

    14. Analysis of column subjected to bi axial moment.

    15. Design of column subjected to bi axial moment.

    16. Design of long column with problem

    17. Unit II : Chapter V : Footings

    Introduction, Design of isolated footing for square column

    18. Design of isolated footing for rectangular column

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    19. Design of isolated footing for circular column

    20. Unit III : Chapter VI : Moment Redistribution

    Introduction, Analysis of fixed beam.

    21. Design of fixed beam with redistributed moment

    22. Design of proped cantilever beam with redistributed moment

    23. Design of two span symmetric continuous beam with redistributed moment.

    24. Unit IV : Chapter VII : Portal Frames

    Introduction, Analysis of single bay single storey portal frames with hinged or fixed

    base.

    25. Design of single bay single storey portal frames with hinged or fixed base.

    26. Design of single bay single storey portal frames with hinged or fixed base.

    27. Design of Hinge with foundation

    28. Design of Hinge with foundation

    29. Unit IV : Chapter VIII : Combined footings

    Introduction to rectangular combined footing, strap beam footing, trapezoidalfooting, raft footing.

    30. Design of rectangular footing with problem.

    31. Design of rectangular footing with problem.

    32. Design of strap beam footing with problem.

    33. Design of strap beam footing with problem.

    34. Unit IV : Chapter IX : Two way slab.

    Introduction to 2 Way slab with their end conditions.

    35. Design of RCC 2 Way slab with simply supported end condition for single panel

    using IS 456 2000 coefficients.

    36. Design of RCC 2 Way slab with simply supported end condition for single panel

    using IS 456 2000 coefficients.

    37. Design of RCC 2 Way slab with simply supported end condition for continues

    edge using IS 456 2000 coefficients.

    38. Design of RCC 2 Way slab with simply supported end condition for continues

    edge using IS 456 2000 coefficients.

    39. Unit IV : Chapter X : Retaining Wall

    Introduction to retaining wall with their verious types.

    40. Design of RCC cantilever retaining wall with nproblem

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    41. Design of RCC cantilever retaining wall with problem

    42. Design of RCC cantilever retaining wall with problem

    43. Design of counterfort retaining wall with problem.

    44. Design of counterfort retaining wall with problem.

    45. Revision of All Topics

    Prof . P. B. Pat il

    Subject Teacher

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    Acadmeic Year : 2012-2013

    Section :- A

    Lectures

    No.Date Unit

    1

    2

    3

    4

    5

    6

    7

    8

    9

    10

    11

    12

    13

    14

    15

    16

    17

    18

    19

    20

    DEPARTMENT OF CIVIL ENGINEERING

    TEACHING PLAN

    Name of Subject Teacher :- Isha P. Khedikar

    Name of Subject:- Air Pollution and Solid Waste Management

    VI

    G.H. RAISONI COLLEGE OF ENGINEERING, NAGPUR

    Semester/ Year : VII

    transfer stations

    Solid waste processing : methods of processing,

    No. of Hours as per University Curriculum: Theory - 40

    Portion of Syllabus which will be covered

    Introduction to solid waste management

    Sources of solid waste

    classification and components of solid wasteIV

    V

    choice of methods

    merits and demerits of various methods.

    physical and chemical characteristics

    Compositionofwastemethodofcomposting

    factorsaffectingcompostingSanitarylandfilling

    methodofcomposting

    per capita contribution, sampling and analysis.

    Collection and transportation of solid waste:Method of collection

    equipment used for collection and transportation,

    typesofincinerators,advantagesanddisadvantages.

    Siterequirements,methods,leachatemangement,Inceneration: Principlesofincineration

    typesofincinerators,advantagesanddisadvantages.

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    21

    22

    23

    24

    25

    26

    27

    28

    29

    30

    31

    32

    33

    34

    35

    36

    37

    38

    39

    40

    Subject Teacher

    I

    II

    PrincipleofcontrolmethodsgaseouspollutantsIII

    Isha P. Khedikar

    Introductiontoairpollution,Definition,

    Airpollutioncontrolmethodsandequipments

    Effectsofairpollutantsonman,plantsanimal&materialsEffectsofairpollutantsonman,plantsanimal&materialsMeteorologyandairpollution:Primaryandsecondaryparametersatmosphericstability,

    airpollutionepisodesatmosphere anditszones.Classificationandsourcesofairpollutants

    plumebehaviorAirsamplingandmeasurement:ambientairsamplingandstacksampling

    collectionofparticulatesandgaseouspollutants,methodsofestimation.

    Automobileexhaust:Pollutionduetodiselandpetrolenginesexhaust treatmentandabatement.NoisePollution:Sources,,illeffects,controlmeasures

    NoisePollution:Sources,,illeffects,controlmeasures

    Principleofcontrolmethods for particulates

    gravitysettlers,electrostatic precipitatorsbag filterscyclones,wetscrubbers

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    G.H. RAI SONI COLLEGE OF ENGI NEERI NG, NAGPUR.

    DEPARTMENT OF CIVIL ENGINEERING

    Name of Subject Teacher: Prof.P.Y.PawadeName of Subject: ADVANCED RCC DESIGN (Elective-I)Semester/Year: Seventh Semester

    No. of Theory Hours to be engaged: 40

    [Academic Session (Odd Semester) 11th June2012 to 25th Sept. 2013]

    Lecture No. Portion of Syllabus to be covered

    1. Introduction to Advanced RCC Design and their wide applications

    2. Introduction to IRC Loading

    3. Introduction to IRC Loading

    4.

    UNIT-IAnalysis and Design of overhead Circular rservoirs

    5. Analysis and Design of overhead Circular rservoirs

    6. Analysis and Design of overhead Circular rservoirs

    7. Analysis and Design for earthquake as per I.S. code

    8. Analysis and Design for earthquake as per I.S. code.

    9. Analysis and Design for earthquake as per I.S. code

    10. Design of Annular raft Foundation

    11. Design of Annular raft Foundation

    12. Design of Annular raft Foundation

    13. UNIT II Design of Highway Bridge with IRC loading Class A

    14. Design of Highway Bridge with IRC loading Class A

    15. Design of Highway Bridge with IRC loading Class A

    16. Design of Highway Bridge with IRC loading, UDL slab type

    17. Design of Highway Bridge with IRC loading, UDL slab type

    18. Design of Highway Bridge with IRC loading, UDL slab type19. Design of Highway Bridge with IRC loading Class B

    20. Design of Highway Bridge with IRC loading Class B

    21. Design of Highway Bridge with IRC loading Class B

    22. Design of Highway Bridge with IRC loading Class C

    23. Design of Highway Bridge with IRC loading Class C

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    24. Design of Highway Bridge with IRC loading Class C

    25. UNIT III Design of building frames upto two/two story, Using Limit

    State Method

    26. Design of building frames upto two/two story, Using Limit State Method

    (HINGE)27. Design of building frames upto two/two story, Using Limit State Method

    (HINGE)

    28. Design of building frames upto two/two story, Using Limit State Method

    (HINGE)

    29. Design of building frames upto two/two story, Using Limit State Method

    (FIXED)

    30. Design of building frames upto two/two story, Using Limit State Method

    (FIXED)

    31. Design of building frames upto two/two story, Using Limit State Method

    (FIXED).

    32. Unit IV Theory of of cylindercal shells

    33. Cylinderical Shell by beam theory, Advantages, assomptions.

    34. Design of Cylinderical Shell by beam theory.

    35. Design of Cylinderical Shell by beam theory (With edge beam)

    36. Design of Cylinderical Shell by beam theory (With edge beam)

    37. Design of Cylinderical Shell by beam theory (With edge beam)

    38. Design of Cylinderical Shell by beam theory (Without edge beam)

    39. Design of Cylinderical Shell by beam theory (Without edge beam)

    40. Design of Cylinderical Shell by beam theory (Without edge beam)

    Prof.P.Y.Pawade

    Subject Teacher

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    G.H. RAISONI COLLEGE OF ENGINEERING, NAGPUR.

    DEPARTMENT OF CIVIL ENGINEERING

    TEACHING PLAN

    Name of Subject Teacher: Miss. V. D. Mude

    Name of Subject: IRRIGATION ENGINEERING

    Semester/Year: SEVENTH Academic Year: 2012-13

    Section: B Academic Year: 2012-13

    No. of Hours as per University Curriculum:Theory - 45

    Lecture

    no.

    Unit Syllabus

    1

    UNIT 1

    GENERAL

    Necessity and importance of irrigation Engineering; Benefits& ill effects of irrigation; Classification of irrigation

    2

    General principles of flow, lift, perennial, inundation

    irrigation systems ; Comparative study of sprinkler and drip

    irrigation systems.

    3

    Suitability of soils for Irrigation ; Standards of irrigation

    water; PET-R method of crop water requirements

    4

    Depth & frequency of irrigation ; definitions of field capacity,

    wilting point, available moisture, duty, delta, GCA,CCA,

    5

    kor depth , base period , outlet factor, capacity factor , timefactor, root zone depth

    6

    Relation between duty & delta ; Factors affecting duty;

    Principal crops in India

    7

    Crop rotation ; Methods of assessment of irrigation water.

    8Selection of site for Reservoirs: Engineering surveys,

    Geological and Hydrological investigations

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    9

    UNIT 2

    RESERVOIR

    PLANNING:

    Fixing of LWL, FTL, HFL, TBL; Different storage zones, in

    reservoirs

    10

    Determination of storage capacity by mass curve method;

    Reservoir sedimentation

    11

    life estimation of reservoir by Brunes method; Organization &Administration of irrigation projects.

    12

    Classification of Dams as per use

    13

    hydraulic design and materials; Factors governing selection of

    type of Dams.

    14

    15

    UNIT III

    GRAVITY

    DAM

    Definition; forces acting on gravity dam; stability

    requirements

    16

    Theoretical & practical profile of gravity dam

    17Low & High dam; Galleries.

    18

    Types of earthen dam; Description of component parts of

    earthen dams foundation

    19

    cut of trench, rock toe, hearting, central impervious core,pitching and chipping turning

    20

    Seepage through body of earthen dam and drainage

    arrangements

    21Failure of earthen dams, plotting of phreatic line for

    homogeneous earthen dams with horizontal filters

    22

    Stability of foundation against shear.

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    23

    UNIT- IVSPILLWAYS

    Types of spillway with there working operations; General

    principles of design of ogee spillway

    24

    Spillway gates Vertical lift, radial, rolling and drum;

    25Energy dissipation methods d/s of spillways.

    26

    Component parts of diversion headworks Fish ladder, guide

    wall, devide all, silt excluder and silt ejector

    27

    Causes of failure of weirs on permeable foundation; BlighsCreep theory

    28

    dr. khoslas theory for design of wiers on permeablefoundations.

    29

    UNIT V

    CANALS

    Types of canal; Alignment of canal

    30Cross section of irrigation canals; balancing depth;

    31

    Schedule of area statistics; Losses in canals

    32

    Kennedys silt theory Design procedure

    33

    silt supporting capacity , drawbacks; Laceys silt theory-Definition of initial final and permanent regime channels

    34

    Laceys Regime equation, channel design procedure,

    drawbacks

    35

    Garrets diagram for channel design.

    36LINED CANALS- Design procedure; Types of lining

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    37

    relative merits and demerits of canal lining; Economics of

    canal lining

    38

    UNIT 6CANALSTRUCTURES

    Only theoretical aspects of location, objects, classification

    39components and schematic section of Head Regulator, Cross

    regulators, canal escapes, Canal falls and canal outlets

    40

    Only theoretical aspects of location, objects, classification,components and schematic section of aqueducts

    41

    siphon aqueducts, super passage, canal siphon, inlets outlets

    and level crossings.

    42

    Causes, effects, preventive measures of water logging, Typesof drains

    43

    Layout of tile drains systems; flow of groundwater to drains.

    44

    RIVER TRAINING WORKS- Definition; Classification;theoretical aspects of river training works like as

    Guide banks

    45

    Groynes and Spurs, Bank protection

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    G.H. RAISONI COLLEGE OF ENGINEERING, NAGPUR.

    DEPARTMENT OF CIVIL ENGINEERING

    TEACHING PLAN

    Name of Subject Teacher: Miss. P. P. Bodkhe

    Name of Subject: IRRIGATION ENGINEERING

    Semester/Year: SEVENTH Academic Year: 2012-13

    Section: A Academic Year: 2012-13

    No. of Hours as per University Curriculum:Theory - 45

    Lecture

    no.

    Unit Syllabus

    1

    UNIT 1

    GENERAL

    Necessity and importance of irrigation Engineering; Benefits& ill effects of irrigation; Classification of irrigation

    2

    General principles of flow, lift, perennial, inundation

    irrigation systems ; Comparative study of sprinkler and drip

    irrigation systems.

    3

    Suitability of soils for Irrigation ; Standards of irrigation

    water; PET-R method of crop water requirements

    4

    Depth & frequency of irrigation ; definitions of field capacity,

    wilting point, available moisture, duty, delta, GCA,CCA,

    5

    kor depth , base period , outlet factor, capacity factor , timefactor, root zone depth

    6

    Relation between duty & delta ; Factors affecting duty;

    Principal crops in India

    7

    Crop rotation ; Methods of assessment of irrigation water.

    8Selection of site for Reservoirs: Engineering surveys,

    Geological and Hydrological investigations

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    9

    UNIT 2

    RESERVOIR

    PLANNING:

    Fixing of LWL, FTL, HFL, TBL; Different storage zones, in

    reservoirs

    10

    Determination of storage capacity by mass curve method;

    Reservoir sedimentation

    11

    life estimation of reservoir by Brunes method; Organization &Administration of irrigation projects.

    12

    Classification of Dams as per use

    13

    hydraulic design and materials; Factors governing selection of

    type of Dams.

    14

    15

    UNIT III

    GRAVITY

    DAM

    Definition; forces acting on gravity dam; stability

    requirements

    16

    Theoretical & practical profile of gravity dam

    17Low & High dam; Galleries.

    18

    Types of earthen dam; Description of component parts of

    earthen dams foundation

    19

    cut of trench, rock toe, hearting, central impervious core,pitching and chipping turning

    20

    Seepage through body of earthen dam and drainage

    arrangements

    21Failure of earthen dams, plotting of phreatic line for

    homogeneous earthen dams with horizontal filters

    22

    Stability of foundation against shear.

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    23

    UNIT- IVSPILLWAYS

    Types of spillway with there working operations; General

    principles of design of ogee spillway

    24

    Spillway gates Vertical lift, radial, rolling and drum;

    25Energy dissipation methods d/s of spillways.

    26

    Component parts of diversion headworks Fish ladder, guide

    wall, devide all, silt excluder and silt ejector

    27

    Causes of failure of weirs on permeable foundation; BlighsCreep theory

    28

    dr. khoslas theory for design of wiers on permeablefoundations.

    29

    UNIT V

    CANALS

    Types of canal; Alignment of canal

    30Cross section of irrigation canals; balancing depth;

    31

    Schedule of area statistics; Losses in canals

    32

    Kennedys silt theory Design procedure

    33

    silt supporting capacity , drawbacks; Laceys silt theory-Definition of initial final and permanent regime channels

    34

    Laceys Regime equation, channel design procedure,

    drawbacks

    35

    Garrets diagram for channel design.

    36LINED CANALS- Design procedure; Types of lining

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    37

    relative merits and demerits of canal lining; Economics of

    canal lining

    38

    UNIT 6CANALSTRUCTURES

    Only theoretical aspects of location, objects, classification

    39components and schematic section of Head Regulator, Cross

    regulators, canal escapes, Canal falls and canal outlets

    40

    Only theoretical aspects of location, objects, classification,components and schematic section of aqueducts

    41

    siphon aqueducts, super passage, canal siphon, inlets outlets

    and level crossings.

    42

    Causes, effects, preventive measures of water logging, Typesof drains

    43

    Layout of tile drains systems; flow of groundwater to drains.

    44

    RIVER TRAINING WORKS- Definition; Classification;theoretical aspects of river training works like as

    Guide banks

    45

    Groynes and Spurs, Bank protection

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    G.H. RAI SONI COLLEGE OF ENGI NEERI NG, NAGPUR.(An Autonomous Institute under UGC Act 1956)

    DEPARTMENT OF CI VI L ENGI NEERI NG

    TEACHI NG PLAN

    Name of Subject Teacher: Mr. __________________________

    Name of Subject: MAINTENANCE & REHABLITATION OF CIVILENGINEERING STRUCTURES (MRCES)

    Semester/Year: SEVENTH/FINAL Section: AAcademic Year: 2012-13No. of Hours as per University Curriculum:Theory - 45 Practical- --

    LectureNo

    Portion of Syllabus to be covered

    1Unit-1

    Introduction2

    Deterioration of structures. Definition of Maintenance, Need for maintenance of different

    civil engineering structures.

    3Maintenance characteristics that influence needs. A study of the causes of neglect and poormaintenance of structure. Measure of maintenance.

    4Classification of Maintenance work:- Servicing, rectification, replacement, planned,unplanned, preventive, corrective, predictable, and avoidable maintenance works.

    Renovation and Rehabilitation.

    5Common Maintenance Problems- Relating to various Civil Engineering Structures and

    systems. Technology of Maintenance. Area Prone to Frequent Maintenance.

    6 Causes that aggravate Maintenance work like High Rise Buildings.

    7 Special Construction Methods, new materials, different accessibility, Environments etc.

    8Unit-2

    Factors Affecting Incidence and Magnitude Maintenance Work introduction

    9

    Over loading, movement of grounds, temperature variations, moisture leakages and

    dampness, Chemical actions and corrosion, growth of trees, earthquake, flood and fire, riotsand vandalism

    10

    Over loading, movement of grounds, temperature variations, moisture leakages and

    dampness, Chemical actions and corrosion, growth of trees, earthquake, flood and fire, riots

    and vandalism

    11Design defects, defects in construction and use of materials, choice of materials for

    durability and maintainability.

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    12 Design, expose and other factors effecting durability, precautions to increase durability.

    13 Inspection, Identification, & Diagnosis of Common defects

    14Inspection, identification and diagnosis of common defects and failures with possible causesin buildings, roads , Bridges, Railway tracks, Canals and C.D.works, Tunnels and special

    structures like Service reservoirs, water supply, Sewerage, Storm water Drains.

    15

    Inspection, identification and diagnosis of common defects and failures with possible causes

    in buildings, roads , Bridges, Railway tracks, Canals and C.D.works, Tunnels and specialstructures like Service reservoirs, water supply, Sewerage, Storm water Drains.

    16Unit-3

    Preventive Maintenance introduction

    17 General Site Selection, Choice of structural Systems and Materials, Specifications and detailing.

    18Building Special attention to foundations, Walls, Roofs, Terraces, Floors, Doors and Windows, Plinth,Compound Walls, Expansion Joints, Stair Cases to improve maintainability.

    19Plumbing and Sanitary works. Termite Control. External Finishes. Roads Stabilization Techniques,Compaction and Drainage, Slope Protection, Joints in C.C. Pavements, Routine and ServiceMaintenance.

    20 Bridges and C.D. Works Repairs, Strengthening and Rehabilitation.

    21Service Life and expected load carrying capacity, Service and stability requirements.

    22 Future service requirements loads, fatigue creep.

    23Unit -4Materials and Techniques for Maintenance Introduction

    24Materials for repairs like cement, cement grouts, epoxy grouts, mortars and coatings,polymer concrete composites, Sealants, membrane overlays, fiber reinforcement concrete,

    Resin based compounds, emulsions and paints, Geotextiles25

    Techniques like stiffening, linings, Guniting, Protection systems, Prestressing, Post-tensioning and base isolation Technology.

    26 Temporary Supporting systems for Structures like timbering, Shoring etc.

    27 Economics of Maintenance introduction

    28 The burden of maintenance work, Complexity of the work and the conflicting interestsinvolved.

    29Various economic factors that affect maintenance work. Initial and user costs. Impact of

    Inflation on maintenance.

    30Life cycle of structures. Structural life and economical life. Basics of life cycle costing

    techniques.

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    Mr. _______________

    (Subject Teacher)

    31Unit-5.

    Maintenance planning introduction

    32The deeper significance of maintenance as opposed to cosmetic treatments. Broad action

    planning, Budgeting and controlling the cost of maintenance work.

    33Policy formation, standards of maintenance, controlling cost. Planned maintenance. Inspection

    cycles and condition surveys.

    34

    Investigations for assessing condition of structure including non-destructive evaluation

    techniques like proof load test, photogrammetic analysis, assets and opt electric motion analysis,

    bovescoes, fiber-optic probes, chain dragging, acoustic emission and ultrasonic techniques,

    infrared thermograph.

    35High speed non contact sensors, sonar and sound penetrating radar techniques, Reliability rating,

    maintenance cost records, maintenance manuals, their function, contents and types.

    36 Difficulties in the way of planned maintenance.

    37

    Unit-6

    Introduction of Maintenance Oriented design

    38Design and its relation of maintenance. Relation ship between initial maintenance and

    running costs. Cost appraisal techniques

    39Consideration of maintenance at design stage. Design needs. Importance of feed-back. Feed

    back systems, Information gathering, the design data communication.

    40Interaction amongst designer, contractors. Users maintenance and researchers.

    Maintainability, role of design professionals.

    41Maintenance Management: - Need for data. Data relationship of the database system to

    management process.

    42Cost database and management Users of database. Problems in data collection and use.

    Setting criteria from data collected, operational assessment

    43Research into Maintenance: - Importance of research. Areas of research includingmaterials, techniques, ,

    44 field equipment and tools for investigation

    45 repairs and monitoring non-destructive evaluation techniques

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    G.H. RAI SONI COLLEGE OF ENGI NEERI NG, NAGPUR.(An Autonomous Institute under UGC Act 1956)

    DEPARTMENT OF CI VI L ENGI NEERI NG

    TEACHI NG PLAN

    Name of Subject Teacher: Mr. V.K.GAJGHATE

    Name of Subject: MAINTENANCE & REHABLITATION OF CIVILENGINEERING STRUCTURES (MRCES)

    Semester/Year: SEVENTH/FINAL Section: BAcademic Year: 2012-13No. of Hours as per University Curriculum:Theory - 45 Practical- --

    LectureNo

    Portion of Syllabus to be covered

    1Unit-1

    Introduction2

    Deterioration of structures. Definition of Maintenance, Need for maintenance of different

    civil engineering structures.

    3Maintenance characteristics that influence needs. A study of the causes of neglect and poormaintenance of structure. Measure of maintenance.

    4Classification of Maintenance work:- Servicing, rectification, replacement, planned,unplanned, preventive, corrective, predictable, and avoidable maintenance works.

    Renovation and Rehabilitation.

    5Common Maintenance Problems- Relating to various Civil Engineering Structures and

    systems. Technology of Maintenance. Area Prone to Frequent Maintenance.

    6 Causes that aggravate Maintenance work like High Rise Buildings.

    7 Special Construction Methods, new materials, different accessibility, Environments etc.

    8Unit-2

    Factors Affecting Incidence and Magnitude Maintenance Work introduction

    9

    Over loading, movement of grounds, temperature variations, moisture leakages and

    dampness, Chemical actions and corrosion, growth of trees, earthquake, flood and fire, riotsand vandalism

    10

    Over loading, movement of grounds, temperature variations, moisture leakages and

    dampness, Chemical actions and corrosion, growth of trees, earthquake, flood and fire, riots

    and vandalism

    11Design defects, defects in construction and use of materials, choice of materials for

    durability and maintainability.

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    12 Design, expose and other factors effecting durability, precautions to increase durability.

    13 Inspection, Identification, & Diagnosis of Common defects

    14Inspection, identification and diagnosis of common defects and failures with possible causesin buildings, roads , Bridges, Railway tracks, Canals and C.D.works, Tunnels and special

    structures like Service reservoirs, water supply, Sewerage, Storm water Drains.

    15

    Inspection, identification and diagnosis of common defects and failures with possible causes

    in buildings, roads , Bridges, Railway tracks, Canals and C.D.works, Tunnels and specialstructures like Service reservoirs, water supply, Sewerage, Storm water Drains.

    16Unit-3

    Preventive Maintenance introduction

    17 General Site Selection, Choice of structural Systems and Materials, Specifications and detailing.

    18Building Special attention to foundations, Walls, Roofs, Terraces, Floors, Doors and Windows, Plinth,Compound Walls, Expansion Joints, Stair Cases to improve maintainability.

    19Plumbing and Sanitary works. Termite Control. External Finishes. Roads Stabilization Techniques,Compaction and Drainage, Slope Protection, Joints in C.C. Pavements, Routine and ServiceMaintenance.

    20 Bridges and C.D. Works Repairs, Strengthening and Rehabilitation.

    21Service Life and expected load carrying capacity, Service and stability requirements.

    22 Future service requirements loads, fatigue creep.

    23Unit -4Materials and Techniques for Maintenance Introduction

    24Materials for repairs like cement, cement grouts, epoxy grouts, mortars and coatings,polymer concrete composites, Sealants, membrane overlays, fiber reinforcement concrete,

    Resin based compounds, emulsions and paints, Geotextiles25

    Techniques like stiffening, linings, Guniting, Protection systems, Prestressing, Post-tensioning and base isolation Technology.

    26 Temporary Supporting systems for Structures like timbering, Shoring etc.

    27 Economics of Maintenance introduction

    28 The burden of maintenance work, Complexity of the work and the conflicting interestsinvolved.

    29Various economic factors that affect maintenance work. Initial and user costs. Impact of

    Inflation on maintenance.

    30Life cycle of structures. Structural life and economical life. Basics of life cycle costing

    techniques.

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    Mr. V.K.GAJGHATE

    (Subject Teacher)

    31Unit-5.

    Maintenance planning introduction

    32The deeper significance of maintenance as opposed to cosmetic treatments. Broad action

    planning, Budgeting and controlling the cost of maintenance work.

    33Policy formation, standards of maintenance, controlling cost. Planned maintenance. Inspection

    cycles and condition surveys.

    34

    Investigations for assessing condition of structure including non-destructive evaluation

    techniques like proof load test, photogrammetic analysis, assets and opt electric motion analysis,

    bovescoes, fiber-optic probes, chain dragging, acoustic emission and ultrasonic techniques,

    infrared thermograph.

    35High speed non contact sensors, sonar and sound penetrating radar techniques, Reliability rating,

    maintenance cost records, maintenance manuals, their function, contents and types.

    36 Difficulties in the way of planned maintenance.

    37

    Unit-6

    Introduction of Maintenance Oriented design

    38Design and its relation of maintenance. Relation ship between initial maintenance and

    running costs. Cost appraisal techniques

    39Consideration of maintenance at design stage. Design needs. Importance of feed-back. Feed

    back systems, Information gathering, the design data communication.

    40Interaction amongst designer, contractors. Users maintenance and researchers.

    Maintainability, role of design professionals.

    41Maintenance Management: - Need for data. Data relationship of the database system to

    management process.

    42Cost database and management Users of database. Problems in data collection and use.

    Setting criteria from data collected, operational assessment

    43Research into Maintenance: - Importance of research. Areas of research includingmaterials, techniques, ,

    44 field equipment and tools for investigation

    45 repairs and monitoring non-destructive evaluation techniques

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    G.H. RAISONI COLLEGE OF ENGINEERING, NAGPUR.(An Autonomous Institute under UGC Act 1956)

    DEPARTMENT OF CIVIL ENGINEERING

    TEACHING PLAN

    Name of Subject Teacher: Ms.P.S.Bhandari

    Name of Subject:STRUCTURAL ANALYSIS -IIISemester/Year: SEVENTH SEM. (Section B) / FINAL YEARAcademic Year: 2012-13

    No. of Hours as per University Curriculum:Theory - 50

    Lect

    .NoPortion of Syllabus which will be covered

    1

    Unit-1

    Introduction and necessity as well as application of subjectBasic concept, Degree of Freedoms,.

    2 Basic concept of Direct Stiffness Method, Formulation of elemental stiffness matrix for plain truss.

    3 Numerical on Formulation of elemental stiffness matrix for plain truss.

    4 Numerical on Formulation of elemental stiffness matrix for plain truss.

    5 Local stiffness matrix and global stiffness matrix for plain truss.

    6 Transformation Matrix, Assembly of Global stiffness matrix for plain truss. Structure load matrix

    7 Numerical on Transformation Matrix, Assembly of Global stiffness matrix for plain truss. Structure

    8 Numerical on truss Structure stiffness matrix up to (8X8). Member load matrix, Assembly of

    Global stiffness matrix

    9Numerical on truss Structure stiffness matrix up to (8X8). Member load matrix, Assembly ofGlobal stiffness matrix

    10 Unit-2 Formulation of elemental / local stiffness matrix and global stiffness matrix for Beammembers (without axial deformation)

    11Numerical on elemental / local stiffness matrix and global stiffness matrix for Beam members

    (without axial deformation)

    12 Formulation elemental / local stiffness matrix and global stiffness matrix for continuous beams,(without axial deformation)

    13 Numerical on elemental / local stiffness matrix and global stiffness matrix for continuous Beam

    14Transformation matrix Assembly of global/Structure stiffness matrix, freedom four. for continuous

    Beam members

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    15Numerical on Transformation matrix Assembly of global/Structure stiffness matrix, freedom four.

    for continuous Beam members

    16 Member load matrix due to concentrated load, Uniformly distributed load,

    17 Numerical on Member load matrix due to concentrated load, Uniformly distributed load,

    18Numerical on Moment assembly of global/ structure load matrix up to(8X8)Solution to problem

    with maximum degree of

    19Unit-3 Formulation of elemental /local stiffness matrix and global stiffness matrix for PlaneFrame member (With axial deformation),

    20Numerical on elemental /local stiffness matrix and global stiffness matrix for Plane Frame member(With axial deformation),

    21 Transformation matrix, Assembly of global / Structure stiffness matrix,

    22 Numerical on Transformation matrix, Assembly of global / Structure stiffness matrix,

    23Member load matrix due to concentrated loads, Uniformly distributed loads, moments, Assembly

    of Global /Structure load matrix.

    24Numerical on Member load matrix due to concentrated loads, Uniformly distributed loads,moments, Assembly of Global /Structure load matrix.

    25 Solution to plane frame problems with maximum degree of freedom six, Inclined member problem

    26Numerical on Solution to plane frame problems with maximum degree of freedom six, Inclined

    member problem

    27 Unit -4 Formulations of element / local stiffness matrix and global stiffness matrix for plane Grid

    28 Numerical on element / local stiffness matrix and global stiffness matrix for plane Grid

    29 Transformation Matrix for plane Grid, Assembly of global/ structure stiffness matrix,

    30 Numerical on Transformation Matrix for plane Grid, Assembly of global/ structure stiffness matrix,

    31 Member load matrix due to concentrated loads uniformly distributed Loads, Moments,

    32 Numerical on Member load matrix due to concentrated loads uniformly distributed Loads,

    33Assembly of global/ structure load matrix. Solution to problem with maximum degree of freedom

    six.

    34Numerical on Assembly of global/ structure load matrix. Solution to problem with maximum

    degree of freedom six.

    35 Unit-5. Analysis of Member for temperature loading

    36 Numerical on Analysis of Member for temperature loading

    37 Initial joint displacement (sinking of support), lack of fit in trusses,

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    Ms. P. S. Bhandari

    (Subject Teacher)

    38 Numerical on Initial joint displacement (sinking of support), lack of fit in trusses,

    39 Trusses with inclined roller, storing of global/ structure stiffness Matrix,

    40 Numerical on Trusses with inclined roller, storing of global/ structure stiffness Matrix,

    41 Full storage, banded storage, band Minimization.

    42 Unit-6 Introduction to finite Element method , basic concept,

    43 Discretisation of structure, Rayleigh Ritz member for bar elements (prismatic / Non prismatic)

    44Numerical on Discretisation of structure, Rayleigh Ritz member for bar elements (prismatic / Nonprismatic)

    45 Displacement based Bar elements (prismatic / non prismatic) and Bean elements (prismatic)

    46

    Numerical on Displacement based Bar elements (prismatic / non prismatic) and Bean elements

    (prismatic)

    47 Load Matrix for body forces

    48 Numerical on Load Matrix for body forces

    49 Revision

    50 Revision