Pune University | Civil Engineering | First Year<\/p>\n
207001 ENGINEERING MATHEMATICS \u2013 III (2008 Course)<\/strong><\/p>\n Teaching Scheme: Examination Scheme:<\/p>\n Lectures: 4 hrs.\/week Paper: 100 marks<\/p>\n Duration: 3 hrs.<\/p>\n SECTION I<\/strong><\/p>\n Unit I: <\/strong>Linear Differential Equations (LDE<\/strong>) (09 Hours)<\/p>\n Solution of nth order LDE with Constant Coefficients, Method of Variation of Parameters, Cauchy\u2019s &<\/p>\n Legendre\u2019s DE, Solution of Simultaneous & Symmetric Simultaneous DE.<\/p>\n Unit II: <\/strong>Applications of DE <\/strong>(09 Hours)<\/p>\n Modeling of problems on bending of beams, whirling of shafts and mass spring systems.<\/p>\n Solution of Partial Differential Equations (PDE<\/strong>):<\/p>\n (i) ?u \/ ?t = a2 (?2u \/ ?x2) (ii) ?2u \/ ?t2 = a2 (?2u \/ ?x2) (iii) (?2u\/?x2) + (?2u\/?y2) = 0 by separating variables only.<\/p>\n Applications of PDE to problems of Civil and allied engineering.<\/p>\n Unit III: <\/strong>Numerical Methods (09 Hours)<\/p>\n Numerical solutions of (i) System of Linear Equations by Gauss Elimination, Cholesky and Gauss-Seidel<\/p>\n methods (ii) Ordinary Differential Equations by Euler\u2019s, Modified Euler\u2019s, Runge-Kutta 4th order and Predictor-<\/p>\n Corrector methods.<\/p>\n SECTION II<\/strong><\/p>\n Unit IV: <\/strong>Statistics and Probability (09 Hours)<\/p>\n Measures of Central Tendency, Standard Deviation, Coefficient of Variation, Moments, Skewness and Kurtosis,<\/p>\n Correlation and Regression, Reliability of Regression Estimates.<\/p>\n Theorems and Properties of Probability, Probability Density Function, Probability Distributions: Binomial,<\/p>\n Poisson, Normal and Hypergometric; Test of Hypothesis: Chi-Square test.<\/p>\n Unit V: <\/strong>Vector Differential Calculus (09 Hours)<\/p>\n Physical Interpretation of Vector Differentiation, Vector Differential Operator, Gradient, Divergence and Curl,<\/p>\n Directional Derivative, Solenoidal, Irrotational and Conservative Fields, Scalar Potential, Vector Identities<\/p>\n Unit VI: <\/strong>Vector Integral Calculus (09 Hours)<\/p>\n Line, Surface and Volume integrals, Work-done, Green\u2019s Lemma, Gauss\u2019s Divergence Theorem, Stoke\u2019s<\/p>\n Theorem. Applications to problems in Fluid Mechanics, Continuity equations, Stream lines, Equations of<\/p>\n motion, Bernoulli\u2019s equations.<\/p>\n Text Books:<\/strong><\/p>\n 1. Advanced Engineering Mathematics by Peter V. O’Neil (Cengage Learning).<\/p>\n 2. Advanced Engineering Mathematics by Erwin Kreyszig (Wiley Eastern Ltd.).<\/p>\n Reference Books:<\/strong><\/p>\n 1. Engineering Mathematics by B.V. Raman (Tata McGraw-Hill).<\/p>\n 2. Advanced Engineering Mathematics, 2e, by M. D. Greenberg (Pearson Education).<\/p>\n 3. Advanced Engineering Mathematics, Wylie C.R. & Barrett L.C. (McGraw-Hill, Inc.)<\/p>\n 4. Higher Engineering Mathematics by B. S. Grewal (Khanna Publication, Delhi).<\/p>\n 5. Applied Mathematics (Volumes I and II) by P. N. Wartikar & J. N. Wartikar<\/p>\n (Pune Vidyarthi Griha Prakashan, Pune).<\/p>\n 6. Advanced Engineering Mathematics with MATLAB, 2e, by Thomas L. Harman, James Dabney and<\/p>\n Norman Richert (Brooks\/Cole, Thomson Learning).<\/p>\n 3<\/p>\n 201001: Building Materials and Construction<\/strong><\/p>\n Teaching Scheme Examination Scheme<\/strong><\/p>\n Lectures: 04 hours \/week Paper : 100 marks<\/p>\n Practical: 04 hours \/week Term work: 25 marks<\/p>\n Oral : 50 marks<\/p>\n SECTION I<\/strong><\/p>\n Unit 1: Introduction to Building Construction and Masonry.<\/strong><\/p>\n a) <\/strong>Introduction to building construction- definition, types of building as per national building<\/p>\n code. Substructure – shallow & deep foundation and their suitability. failure of foundation and<\/p>\n its causes & setting out, layout of foundation in black cotton soil, damp proof course,<\/p>\n basement construction, its repair and maintenance, plinth filling & soling, underpinning.<\/p>\n b) <\/strong>Masonry- Stone masonry- Principal terms, types of stone masonry, pointing- purpose &<\/p>\n types. Brick masonry- characteristics of good building bricks, IS specification & tests,<\/p>\n classification of bricks-silica, refractory, fire and fly ash bricks. Brick work<\/p>\n types of bonds- English, Flemish, Header, Stretcher, construction procedure, supervision,<\/p>\n opening in walls, mortar preparation. (08 hours)<\/strong><\/p>\n Unit 2: Block Masonry and Form work.<\/strong><\/p>\n a) <\/strong>Block masonry: hollow, solid and cavity wall construction and dry wall. Reinforced brick<\/p>\n masonry: applications, advantages, materials required and construction procedure. Composite<\/p>\n masonry- types, advantages, applications, materials required and construction procedure.<\/p>\n b) <\/strong>Form work and casting procedure for reinforced concrete columns, R.C.C. beams and<\/p>\n girders, R.C.C. slabs, curing methods, precast concrete construction and joints in concrete<\/p>\n work. (08 hours)<\/strong><\/p>\n Unit 3: Flooring and Roofing Materials.<\/strong><\/p>\n a) <\/strong>Flooring materials \u2013 materials, tests and IS Specifications, ground and upper floors,<\/p>\n functional requirement of flooring, varieties of floor finishes and their suitability, construction<\/p>\n details for concrete, tiles and stone flooring. Types of flooring: timber flooring, cement<\/p>\n concrete flooring, mosaic flooring ceramic flooring, terrazzo flooring or cast in situ terrazzo<\/p>\n flooring, tiled flooring, rubber flooring, cork flooring, epoxy asphalt flooring or mosaic<\/p>\n asphalt flooring, filler joist floor, jack arch floor, hollow block and rib floors.<\/p>\n b) <\/strong>Roofing materials: galvanized iron pre-coated aluminum sheets, fiber sheets, and<\/p>\n Mangalore tiles. Roof construction: types and their suitability, method of construction, types<\/p>\n of trusses, types of shell structure, space and frame structure, fixing details of roof covering.<\/p>\n (08 hours)<\/strong><\/p>\n SECTION II<\/strong><\/p>\n Unit 4: Doors, Windows, Arches and Lintels.<\/strong><\/p>\n a) <\/strong>Doors and windows: definition of technical terms, installation of doors and window frames<\/p>\n and their size specifications, fixtures and fastenings. Types of doors: glazed or sash doors,<\/p>\n plastic doors, flush doors, louvered doors, collapsible doors, revolving doors, rolling steel<\/p>\n doors, sliding doors, swing doors, folding doors. Types of windows: casement window,<\/p>\n double hung window, pivoted window, sliding windows, louvered or Venetian window, metal<\/p>\n window, sash or glazed window, bay window, corner window, dormer window, gable<\/p>\n window, skylight window, circular window, mosquito proof window, curtain wall window.<\/p>\n Ventilators: purpose and types.<\/p>\n 4<\/p>\n b) <\/strong>Arches and lintels: principle of arch action, types of arches, method of arch construction,<\/p>\n centrifugal and renewal. Lintels: necessity and types, chajja or weather shade- necessity and<\/p>\n types. Protective coatings: plastering types (lime plaster, cement plaster, gypsum plaster used<\/p>\n in spray fire proofing, plaster of Paris) and application, mortar painting and varnishing, types<\/p>\n and application, white washing, distempering, oil paints. Scaffolding- Purpose, types,<\/p>\n suitability. Wall cladding: materials, method, wall papering and glazing work. (08 hours)<\/strong><\/p>\n Unit 5: Vertical Circulation and Safety in Construction.<\/strong><\/p>\n a) <\/strong>Vertical circulation: consideration in planning, design and construction, staircase: types,<\/p>\n materials, fire resisting materials, design of stair, and details of ramps. Ladders, lifts, and<\/p>\n escalator. Types of staircase: straight stairs open well stairs, quarter turn stairs, half turn stairs,<\/p>\n turning stairs, dog-legged stairs, circular stairs, geometrical stairs, bifurcated stairs, and spiral<\/p>\n stairs<\/p>\n b) <\/strong>Safety in construction: safety on site, storage of materials, construction safety, prevention<\/p>\n of accidents, fire proof construction. Repairs and maintenance: addition, and alteration,<\/p>\n strutting and shoring. (08 hours)<\/strong><\/p>\n Unit 6: Miscellaneous Materials.<\/strong><\/p>\n a) <\/strong>Miscellaneous materials: properties, types and uses of following materials, lime, polymers,<\/p>\n plastic types, mastic, gypsum, ferro-crete, clay tiles and glazed wares, artificial stones.<\/p>\n Timber: types and properties, seasoning, testing, aluminum and alloys.<\/p>\n b) <\/strong>Glass: uses, types and properties, application and ingredients, manufacturing process and<\/p>\n market forms, Glass claddings, Aluminum composite panel cladding. Ceramic product:<\/p>\n ceramic sanitary application, water closet, urinals, tabs, washes basins, their common sizes,<\/p>\n pipes and fitting. Eco-friendly materials: eco-friendly decorating materials, eco-friendly<\/p>\n flooring, thatch, bamboo, linoleum, cork etc. (08 hours)<\/strong><\/p>\n Term Work<\/strong><\/p>\n It shall consist of the following exercises and seminar.<\/strong><\/p>\n A) Development of a given line plan of a residential building.<\/strong><\/p>\n Draw to a scale of 1: 50<\/p>\n 1. Detailed Plan.<\/p>\n 2. Elevation.<\/p>\n 3. Section.<\/p>\n 4. Following Sketches pertaining to the above plan.<\/p>\n a. Door<\/p>\n b. Window<\/p>\n c. Stair<\/p>\n d. Masonry<\/p>\n e. Lintel<\/p>\n B) Draw sketches using computer software of the following:<\/strong><\/p>\n 1. <\/strong>Foundations- two plates<\/p>\n a) Line sketches of shallow and deep footing.<\/p>\n b) Details of any one of the shallow footings.<\/p>\n 2. <\/strong>Arches- two plates.<\/p>\n a) Different types of arches<\/p>\n b) Details of arch showing different components<\/p>\n 3. <\/strong>Trusses- one plate. (Showing different components)<\/p>\n 5<\/p>\n C) <\/strong>One seminar report and presentation based on various aspects of construction and<\/p>\n materials.<\/p>\n D) <\/strong>Site visit and technical report about the visit (Minimum Two).<\/p>\n E) <\/strong>Collection of advertisements of construction materials and equipments and other literature.<\/p>\n Reference Books:<\/strong><\/p>\n 1. Building Construction by B.C. Punmia.<\/p>\n 2. Building Construction by S.C. Rangwala<\/p>\n 3. Building Construction by Bindra and Arora.<\/p>\n 4. Building Construction and Materials by Sushil Kumar.<\/p>\n 5. Doors and Windows, Stairs by R. Barry.<\/p>\n 6. Materials of construction by Ghosh, Tata McGraw Hill.<\/p>\n 7. Building Materials Technology by Branyly, Tata McGraw Hill.<\/p>\n 8. Properties of concrete by a M Neville.<\/p>\n 9. Properties Evaluation and Control of Engineering, Tata McGraw Hill.<\/p>\n 10. Building Construction by Mitchell.<\/p>\n 11. National Building Code.<\/p>\n 6<\/p>\n 201002: Strength of Materials<\/strong><\/p>\n Teaching Scheme Examination Scheme<\/strong><\/p>\n Lectures : 04 hours\/week Theory paper : 100 mark (03 hours)<\/p>\n Practicals: 02 hours\/week Oral Examination: 50 marks<\/p>\n Term work : 25 marks<\/p>\n SECTION I<\/strong><\/p>\n Unit 1: Stresses and Strains.<\/strong><\/p>\n a) <\/strong>Concept of stress and strain (linear, lateral, shear and volumetric), Hook\u2019s law, elastic<\/p>\n constants and their relationship, stress-strain diagrams for brittle, elastic and plastic materials,<\/p>\n factor of safety and working stresses, generalized Hook\u2019s law.<\/p>\n b) <\/strong>Axial force diagram. Stresses, strains and deformations in determinate and indeterminate<\/p>\n structures for homogenous and composite structures under concentrated loads, self-weight and<\/p>\n temperature changes. (08 hours)<\/strong><\/p>\n Unit 2: Shear Force and Bending Moment Diagram.<\/strong><\/p>\n a) <\/strong>Concept of shear force and bending moment. Relation between shear force, bending<\/p>\n moment and intensity of loading. Shear force and bending moment diagrams for cantilevers,<\/p>\n simple and compound beams due to concentrated, uniformly distributed, uniformly varying<\/p>\n loads and couples in determinate beams<\/p>\n b) <\/strong>Bending moment and loading diagram from given shear force diagram. Shear force and<\/p>\n loading diagram from given bending moment diagram. (08 hours)<\/strong><\/p>\n Unit 3: Bending and Shear Stresses.<\/strong><\/p>\n a) <\/strong>Stresses due to bending: theory of simple or pure bending, concept and determination of<\/p>\n moment of inertia for various cross-sections. Assumptions, derivation of flexure formula,<\/p>\n bending stress distribution diagrams, Moment of Resistance of cross-section. Flitched beams.<\/p>\n b) <\/strong>Shear stresses in beams: concept of shear, complimentary shear, derivation of shear stress<\/p>\n formula, shear stress distribution for various cross sections, maximum and average shear<\/p>\n stress for circular and rectangular sections. Shear connectors. (08 hours)<\/strong><\/p>\n SECTION II<\/strong><\/p>\n Unit 4: Torsion and Strain Energy.<\/strong><\/p>\n a) <\/strong>Torsion of circular shafts: theory of torsion, assumptions, derivation of torsion formula.<\/p>\n Stresses, strains and deformations in determinate and indeterminate shafts of hollow, solid,<\/p>\n homogenous and composite cross-sections subjected to twisting moments. Power transmitted<\/p>\n by shafts, twisting moment diagrams,<\/p>\n b) <\/strong>Strain energy and impact: concept of strain energy, expression of strain energy for axially<\/p>\n loaded member under gradual, sudden and impact loads. Strain energy due to self weight,<\/p>\n bending and torsion. (08 hours)<\/strong><\/p>\n Unit 5: Principal Stresses and Strains.<\/strong><\/p>\n a) <\/strong>Principal stresses and strains: concept of principal planes and principal stresses, normal and<\/p>\n shear stresses on an oblique plane, magnitude and orientation of principal stresses and<\/p>\n maximum shear stress. Mohr’s circle for plane stresses.<\/p>\n b) <\/strong>Combined effect of axial stress, bending moment, shear and torsional moments. Theories<\/p>\n of failure: maximum normal stress, maximum shear stress and maximum strain theory.<\/p>\n (08 hours)<\/strong><\/p>\n 7<\/p>\n Unit 6: Axially and Eccentrically Loaded Columns.<\/strong><\/p>\n a) <\/strong>Axially loaded columns: concept of critical load and buckling, derivation of Euler’s<\/p>\n formula for buckling load with hinged ends, concept of equivalent length for various end<\/p>\n conditions, Rankine\u2019s formula, safe load on column and limitations of Euler’s formula.<\/p>\n b) <\/strong>Direct and bending stresses for eccentrically loaded short column and other structural<\/p>\n components such as retaining walls, dams, chimney’s etc. Effect of lateral force and selfweight.<\/p>\n Resultant stress diagrams due to axial loads, uni-axial, and biaxial bending. Concept<\/p>\n of core of section for rectangular and circular sections. (08 hours)<\/strong><\/p>\n Term Work<\/strong><\/p>\n It shall consist of the following experiments and assignments.<\/p>\n a) Any eight experiments from the following.<\/strong><\/p>\n 1. Tension test on mild and TMT steel.<\/p>\n 2. Shear test on mild and TMT steel.<\/p>\n 3. Torsion test on mild steel and aluminum.<\/p>\n 4. Impact test on mild steel, aluminum, brass.<\/p>\n 5. Hardness test on mild steel, copper, aluminum, brass.<\/p>\n 6. Bending test on timber and plywood.<\/p>\n 7. Compression test on timber.<\/p>\n 8. Compressive strength, water absorption and efflorescence test on bricks.<\/p>\n 9. Flexural strength of flooring and roofing tiles.<\/p>\n 10. Abrasion test of flooring tiles: marble and mosaic tiles.<\/p>\n b) Assignment<\/strong>:<\/p>\n At least one problem on each unit to be solved using either computer programming language<\/p>\n or spreadsheets or solvers or any other similar tool.<\/p>\n Oral examination will be based on the term work.<\/strong><\/p>\n Reference Books<\/strong><\/p>\n 1) Strength of Material – F. L. Singer and Andrew Pytel, Harper and Row publication<\/p>\n 2) Strength of Materials \u2013 R Subramanian, Oxford University Press.<\/p>\n 3. Elements of Strength of Materials by Timoshenko and Young, East-West Press Ltd.<\/p>\n 4. Mechanics of Materials – Gere and Timoshenko, CHS publishers<\/p>\n 5. Mechanics of Material – Beer and .Johnston, McGraw Hill publication<\/p>\n 6. Mechanics of Materials – Andrew Pytel, Jaan Kiualaas, Thomson Learning<\/p>\n 7. Introduction to Mechanics of Solids- E.P. Popov, Prentice Hal1 publication.<\/p>\n 8. Strength of materials by S S Ratan, Tata McGraw Hill.<\/p>\n 9. Strength of materials by D S Prakash Rao, University Press.<\/p>\n 8<\/p>\n 207009: Engineering Geology<\/strong><\/p>\n Teaching scheme Examination scheme<\/strong><\/p>\n Lectures: 04 hour\/week Paper: 100 marks (03 hours)<\/p>\n Practicals: 02 hour\/week Term work: 25 marks<\/p>\n SECTION I<\/strong><\/p>\n Unit 1: Mineralogy, Petrology and General Geology.<\/strong><\/p>\n a) <\/strong>Introduction to the subject, object, scope and sub divisions. Introduction to mineralogy,<\/p>\n rock forming minerals and their properties, silicate and non silicate minerals, primary and<\/p>\n secondary minerals, felsic and mafic minerals, essentials and accessories minerals.<\/p>\n Introduction to petrology: rock cycle, main divisions of rocks. Igneous rocks: mineral<\/p>\n composition, textures, reasons of textural variation, textures of plutonic, hypabyssal and<\/p>\n volcanic rocks. Classification of igneous rocks, study of common rock types prescribed in<\/p>\n practical work and their engineering applications. (04 hours)<\/strong><\/p>\n b) <\/strong>Secondary rocks: rock weathering, decomposition and disintegration, classification and<\/p>\n grain size classification, textures of secondary rocks, features of shallow water depositions,<\/p>\n study of common rock and engineering applications. Metamorphic rocks: agents and types of<\/p>\n metamorphism, metamorphic textures and structures, study of common rock types prescribed<\/p>\n in practical work and their engineering applications. (04 hours)<\/strong><\/p>\n Unit 2: Geomorphology and Historical Geology.<\/strong><\/p>\n a) <\/strong>Geomorphology: geological action of river, rejuvenation, land forms resulted due to river<\/p>\n erosion, deposition and rejuvenation. (04 hours)<\/strong><\/p>\n b) <\/strong>Historical geology: general principles of stratigraphy, age of the earth, geological time<\/p>\n scale, physiographic divisions of India, significance of their structural characters in major<\/p>\n civil engineering activities. (04 hours)<\/strong><\/p>\n Unit 3: Structural Geology and Plate Tectonics.<\/strong><\/p>\n a) <\/strong>Structural geology: out crop, dip and strike, conformable series, unconformity and over lap,<\/p>\n faults and their types, folds and their types, inliers and outlier. (04 hours)<\/strong><\/p>\n b) <\/strong>Structural features resulted due to igneous intrusions, concordant and discordant igneous<\/p>\n intrusions, joints and their types, stratification and lamination, mountain building activity and<\/p>\n introduction to plate tectonics. (04 hours)<\/strong><\/p>\n SECTION II<\/strong><\/p>\n Unit 4: Preliminary Geological Studies and Remote Sensing.<\/strong><\/p>\n a) <\/strong>Preliminary geological explorations: surface survey, reconnaissance survey, subsurface<\/p>\n survey, test pits, trenches, exploratory tunnels, shafts, adits, drifts, drill holes, preservation of<\/p>\n cores. Compilation and interpretation of information obtained from these, comparative<\/p>\n reliability of data obtained by drilling and excavation. (04 hours)<\/strong><\/p>\n b) <\/strong>Correlation of surface data with results of subsurface exploration, limitations of drilling,<\/p>\n engineering significance of geological structures i.e. stratification, dips, folds, faults, joints,<\/p>\n fractures, crush zones, fault zones, dykes, and case studies. Remote sensing and geographical<\/p>\n information system, application of remote sensing and geographical information system in<\/p>\n Civil Engineering. (04 hours)<\/strong><\/p>\n Unit 5: Geological Hazards, Ground Water and Building Stones.<\/strong><\/p>\n a) <\/strong>Geological hazards: interior of the earth, volcanism, earthquakes, earthquake zones,<\/p>\n geological considerations for choosing sites of building in seismic area and slides and stability<\/p>\n 9<\/p>\n of hill slopes, its causes, role of water, stability of slopes in consolidated material, influence of<\/p>\n dip and slope, safe and unsafe slopes, prevention of landslides, keeping slopes free from<\/p>\n water, retaining walls vegetation, slope treatment, precautions to be taken while aligning<\/p>\n roads across the slopes of the hills and making cuts in hill slides and case studies. (03 hours)<\/strong><\/p>\n b) <\/strong>Groundwater: types of ground water, water table and depth zones of saturation, relation<\/p>\n between surface relief and water table, influence of textures and structures of rocks on<\/p>\n groundwater storage and movement, pervious and impervious rocks, geological work of<\/p>\n groundwater, effects of solution and deposition, geological conditions favorable for natural<\/p>\n springs and seepages, depression and contact springs, hot springs and geysers, wells and drill<\/p>\n holes, fluctuations in water table levels, effects of dams and canals, effect of pumping, cone of<\/p>\n depression, circle of influence, conservation of groundwater, role of geology in watershed<\/p>\n development, artesian wells, geological conditions that produce artesian pressure, water<\/p>\n bearing capacity of common rocks, locating groundwater supplies. (04 hours)<\/strong><\/p>\n c) <\/strong>Building stones: requirements of good building stone, dependence of strength, durability,<\/p>\n ease of dressing, availability of blocks of suitable size and appearance on mineral<\/p>\n composition textures and field structures, suitability of common rocks as building stone.<\/p>\n (01 hour)<\/strong><\/p>\n Unit 6: Role of Engineering Geology in Reservoirs, Dams and Tunneling.<\/strong><\/p>\n a) <\/strong>Geology of dam site: dependence of strength, stability and water tightness of foundation<\/p>\n rocks and their physical characters and geological structures, influence of geological<\/p>\n condition on the choice of type and design of dams, preliminary geological work on dam sites,<\/p>\n favorable and unsuitable geological conditions for locating a dam, precaution to be taken to<\/p>\n counteract unsuitable condition, treatment of leaky rocks faults, dykes, crush zones, joints,<\/p>\n fractures, unfavorable dips, etc., earth quakes in regions of dams and case studies. (03 hours)<\/strong><\/p>\n b) <\/strong>Geology of reservoir sites: dependence of water tightness on physical properties and<\/p>\n structure of rocks, geological conditions suitable and unsuitable for reservoir sites, conditions<\/p>\n likely to cause leakage through reservoir rims, importance of ground water studies and effects<\/p>\n of rising of the water table and case studies. (02 hours)<\/strong><\/p>\n c) <\/strong>Tunneling: influence of geological conditions on design and construction methods,<\/p>\n preliminary geological investigations for tunnels, important geological considerations while<\/p>\n choosing alignment, difficulties during tunneling as related with litho logy, nature and<\/p>\n structures of material to be excavated, role of groundwater, geological conditions likely to be<\/p>\n troublesome, suitability of common rock types for excavation and tunneling, unlined tunnels<\/p>\n and case studies. (04 hours)<\/strong><\/p>\n Term Work<\/strong><\/p>\n Following experiments are to be performed. Term work shall consist of journal giving details<\/p>\n of the experiments performed.<\/p>\n 1. Identification of the following minerals in hand specimens.<\/p>\n 2. Physical properties of minerals.<\/p>\n 3. Study of different mineral families.<\/p>\n 4. Identification of the different rock types in hand specimens.<\/p>\n 5. Construction of geological sections from contoured geological maps.<\/p>\n 6. Interpreting geological features without drawing section.<\/p>\n 7. Solution of engineering geological problems such as alignment of dams, tunnels,<\/p>\n roads, canals, bridges, etc. based on geological maps.<\/p>\n 8. Logging of drill core and interpretation of drilling data with graphical representation<\/p>\n of core log.<\/p>\n 9. One site visit is desirable to study geology and its engineering applications.<\/p>\n 10<\/p>\n Text\/Reference Books<\/strong><\/p>\n 1. A Text Book of Engineering Geology by R.B. Gupte -P.V.G. Publications, Pune.<\/p>\n 2. A Text Book of Remote Sensing and Geographical Information Systems by M.<\/p>\n Anji Reddy- 2nd Edition B S Publication.<\/p>\n 3. A Text Book of Engineering Geology by N. Chenna Kesavulu.<\/p>\n 4. Principles of Remote Sensing by S.K.Garg.<\/p>\n 5. Principles of Engineering Geology by S.K.Garg.<\/p>\n 6. Geology and Engineering by R.Legget- McGraw Hill Book Co., London.<\/p>\n 7. Physical Geology by Arthur Holmes-ELBS Publication.<\/p>\n 8. Principles of Petrology by G.W. Tyrrel.<\/p>\n 11<\/p>\n 201003: Geotechnical Engineering<\/strong><\/p>\n Teaching Scheme Examination Scheme<\/strong><\/p>\n