B.<strong>Tech</strong>. <strong>Computer</strong> <strong>Science</strong> & <strong>Engineering</strong> (Regular)as integer and mixed integer programmingproblems; branch and bound algorithm; cutting planemethods for pure and mixed integer programmingproblems; Knap-sack; travelling salesman andshortest route problems. multicriteria decision;multicriteria decision making models; determinationof set of feasible alternatives; solution techniques;goal programming approach; goal programmingmodels; ranking and weighting of multiple goals;simplex method in goal programming.3. NON-LINEAR PROGRAMMING: Constraintqualification and Kuhn-Tucker necessaryconditions; sufficiency of Kuhn-Tucker necessaryconditions and convex programs; LinearComplementarity Problem (LCP); Quadraticprogramming and use of LCP for solving quadraticprogramming problems.4. SEQUENING MODEL: Two machine and n jobs(no passing) problem and three machine and njobs (no passing) problems; different routing; 2 jobsand m machines; n jobs and m machines; branchand bound algorithms.5. QUEING THEORY & INVENTARY CONTROL:Introduction to waiting line models? steady statebehavior of M/M/1 and M/M/C queues-the problemof machine interference and use of finite queuingtables- introduction to M/G/1, and G/M/1 .inventorycontrol problem; Concept of inventory and variouscosts; EQQ formula newspaper boy problems.6. PERT/CPM: Introduction to network analysis;Definition of a project; job and events; drawing ofarrow diagrams; determination of critical paths andcalculation o floats; resource allocation and leastcost planning; use of network flows for least costplanning; uncertain duration and PERT.7. STOCHASTIC PROGRAMMING: Stochasticprogramming with one objective function;stochastic linear programming; two stageprogramming technique; chance constrainedprogramming technique.TEXT BOOKTaha H. A., "Operations Research: An Introduction",Macmillan, N.Y.REFERENCE BOOK1. Hitter F. S. and Lieberman G. J., “Introduction toOperations Research", Addison Wesley.2. Hadley G., “Linear Programming", Addison Wesley.3. Dantzig G., “Linear Programming and Extensions",Princeton, N.J.4. Fletcher R., "Practical Methods of ConstrainedOptimization", John Wiley.5. Bazaraa M. S., Jervis J. J. and Sherali H. D., “LinearProgramming & Network Flows", John Wiiey.ME-442ERGONOMICSL T P Cr5 0 0 3OBJECTIVEThe course provides knowledge of ergonomicsprinciples so that the students are able to visualizefactors which affect the efficiency of human beings.After the study of the subject, the students will be ableto select a proper design of display controls,equipment, work plan and environment1. INTRODUCTION: Definition of ergonomics andergonomist; social and economic values ofergonomics; general and individual ergonomics.2. POSTURE AND MOVEMENT: Biomechanical;physiological and anthropometric background;postures; sitting and standing; Movement – lifting;carrying; pulling and pushing; Workplace designand assessment.3. INFORMATION AND OPERATION: User;information – visual; hearing and other senses;Control for operation – fixed and others diaguesuser friendliness; different forms and help; Websitedesign; mobile interaction; virtual reality.4. ENVIRONMENTAL FACTORS: Noise reduction;hearing conservation; Vibration prevention;illumination – light intensity; brightness differences;colour of light; Climate – heat and cold; Chemicalsubstances – measures; ventilation.5. WORK ORGANISATION JOBS & TASKS: Tasks;jobs; work organization – flexible; autonomousgroups; coaching measurement styles.6. ERGONOMIC APPROACH: Project management– initiative phase; problem identification phase;selection of solution phase; implementation phase;evaluation phase.7. CASE STUDIES: A set of case studies will beused to demonstrate how ergonomics had lead tochanges in work activity; safety and productdesign; Case studies will include advancedcomputer application; work place assessment;accidents; analysis and industrial inspection.TEXT BOOKJan Dul and Bernard Weerdancester, “Ergonomics forBeginners”, CRC Press/Taylor and Francis GroupREFERENCE BOOKS1. Knoz Stephana, Johnson Steven, Halconts “WorkDesign - Industrial Ergonomics”, Hathway,Scottsdagta, AZ2. Sanders M. S. and McCormic E. J., “HumanFactors in <strong>Engineering</strong> and Design”, McGraw HillNew York3. Verma A. P., “Industrial <strong>Engineering</strong>”, S. K. Katariaand SonsME-443FINITE ELEMENT L T P CrANALYSIS 5 0 0 3OBJECTIVEThe objective of the course is to teach thefundamentals of finite element method of solids;structures and fluids with emphasis on the underlyingtheory, assumptions, and modeling issues as well asproviding hands on experience using finite elementsoftware to model, analyze and design systems ofrelevance to mechanical engineering. This includes thetheoretical foundations and appropriate use of finiteelement methods.1. INTRODUCTION - VARIATIONALFORMULATION: General field problems in<strong>Engineering</strong>; Modeling; Discrete and Continuousmodels; Characteristics; Difficulties involved in94
Lingaya’s University, Faridabadsolution; The relevance and place of finite elementmethod; Historical comments; Basic concept ofFEM; Boundary and initial value problems;Gradient and divergence theorems; Functional;Variational calculus; Variational formulation ofVBPS; The method of weighted residuals; The Ritzmethod.2. FINITE ELEMENT ANALYSIS OF ONEDIMENSIONAL PROBLEMS: 1D second orderequations; discretisation of domain into elements;Generalised coordinates approach; derivation ofelements equations; assembly of elementequations; imposition of boundary conditions;solution of equations; Cholesky method; Postprocessing.3. EXTENSION OF THE METHOD TO FOURTHORDER EQUATIONS AND THEIR SOLUTIONS:time dependant problems and their solutions;example from heat transfer; fluid flow and solidmechanics.4. FINITE ELEMENT ANALYSIS OF TWODIMENSIONAL PROBLEMS: Second orderequations involving a scalar; valued function;model equation; Variational formulation – Finiteelement formulation through generalisedcoordinates approach; Triangular elements andquadrilateral elements ; convergence criteria forchosen models; Interpolation functions; Elementsmatrices and vectors; Assembly of elementmatrices; boundary conditions; solutiontechniques.5. ISOPARAMETRIC ELEMENTS ANDFORMULATION: Natural coordinates in 1, 2and 3 dimensions; use of area coordinates fortriangular elements in; 2 dimensional problems;Isoparametric elements in 1, 2 and 3 dimensions;Largrangean and serendipity elements;Formulation of element equations in one and twodimensions ; Numerical integration.6. APPLICATIONS TO FIELD PROBLEMS IN TWODIMENSIONS: Equations of elasticity; planeelasticity problems; axisymmetric problems inelasticity; Bending of elastic plates; Timedependent problems in elasticity; Heat transfer intwo dimensions; Incompressible fluid flow andrelated problems.7. INTRODUCTION TO ADVANCED TOPICS (NOTFOR EXAMINATION PURPOSES): Threedimensional problems; Mixed formulation; use ofsoftware packages.TEXT BOOKReddy J. N., “An Introduction to Finite ElementMethod”, McGraw Hill, Intl Student EditionREFERENCE BOOKS1 Zienkiewitch, "The Finite Element Method; BasicFormulation and Linear Problems", Vol 1, 4thEdition, McGraw Hill2 Desai C. S. and Abel J. F., "Introduction to theFinite Element Method", Affiliated East west Press,19723 Rao S. S., “The Finite Element Method in<strong>Engineering</strong>”, Pergaman Press, 1989ME-461RENEWABLE L T P CrSOURCES OF ENERGY 5 0 0 3OBJECTIVEThis gives the knowledge of estimation; conversion andutilization of non conventional sources of energy. Withthe depletion of fossil fuel sources, the importance ofnon-conventional renewable sources of energy hasgained tremendous importance. This courseintroduces the students to these sources and howthese can be utilized for power production.1 INTRODUCTION: Trends of energy consumption;sources of energy; conventional and Renewable;fossil fuel; availability and limitations; need todevelop new energy sources.2 SOLAR ENERGY: Solar radiation characteristicsand estimation; Solar Collectors; Flat Plate andconcentrating types; Their comparative study;design and material selection; Efficiency; Selectivepaints and surfaces; Heating of air and water forbuilding and other Uses; Thermal storages; SolarPonds; Solar pumps; solar Power; Solar Cookersetc; Direct Conversion of Solar energy to electricityand its various uses; materials; limitations andCosts.3 BIO-CONVERSION: Generation of bio-gas;digesters and their design; selection of material;feed to digester; paralytic gasification; productionof hydrogen; Algae production and their uses.4 WIND ENERGY: Types of rotors; horizontal axisand vertical axis systems; system design and siteselection.5 GEO-THERMAL ENERGY: Sites; potentiality andlimitation; study of different conversion systems.6 TIDAL ENERGY: Sites; potentiality and possibilityof harnessing from site; limitations; Ocean ThermalEnergy: Principle of utilization and its limitations;description of various systems.7 OTHER NON-CONVENTIONAL ENERGYSOURCES: Fluidized bed combustions; heat fromwaste and other sources.TEXT BOOKTiwari G. N. and Ghosal M. K., “Renewable EnergyResources”, Narosa Publishing HouseREFERENCE BOOKS1. Rai G. D., “Solar Energy Utilization”, KhannaPublishers, 19952. Duffie J. A. and Beckman, “Solar Heating andCooling”3. Wakil M. M, EL, “Power Plant <strong>Tech</strong>nology”,McGraw Hill4. Sharma P. C., “Power Plant <strong>Engineering</strong>”, S. K.Kataria and SonsPH-471NON DESTRUCTIVE L T P CrTESTING TECHNIQUES 5 0 0 3OBJECTIVETo give a general overview of novel non destructivetesting methods, the principles behind them, their uses,the advantages and limitations, both in application anddefect detection capability.95
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