←Mechanical Engineering

3L + 0T + 0P Unit-1.0: 8 hrs Introduction to design: Steps in design process, design factors, practical considerations in design, selection of materials, strength of mechanical elements, impact load, shock load, fatigue loading, effects of surface, size, temperature and stress concentration, consideration of creep and thermal stress in design. Unit-2.0: 8 hrs Design of shafts: stresses in shafts, design of static loads, combined stresses, reversed bending and steady loads, design of shafts based on deflection and strength, critical speed of shafts. Analysis and design of sliding and rolling contact bearings. Unit-3.0: 9 hrs Riveted joint: Stresses in riveted joint, design of riveted joints with central and eccentric loads, boiler and tank joints, structural joints. Bolt Joints: Stresses in bolt joint, design of bolt joints with central and eccentric loads. Welded joints: types of welded joints, stresses, design of welded joints subjected to axial, torsional and bending loads, welds subjected to fluctuating loads. Unit-4.0: 7 hrs Design of Clutches: Friction clutches, uniform wear and uniform pressure assumptions, centrifugal clutches. Brakes: Design of internal expansion elements, assumptions, design of external contraction elements, band type brakes. Unit-5.0: 4 hrs Design of transmission elements: spur, helical, bevel and worm gears. Unit-6.0: 6 hrs Springs: stresses in helical springs, deflection of helical compression and tension springs, springs subjected to fatigue loading, concentric and helical torsion spring, critical frequency of springs, leaf springs, and design of automotive leaf springs.

3L + 0T + 0P Unit 1.0- 4 hrs Force analysis of mechanism: Dynamics of plane motion of a rigid body, dynamically equivalent two mass system, correction torque, forced in mechanism and machines. Unit 2.0- 6 hrs Turning moment diagram: Fluctuations of crankshaft speed and energy in a direct acting engine mechanism, flywheels. Unit 3.0 – 8 hrs Cams: Classification of cams and followers, types of follower and retardation, cam profile and generation of concentric and offset radial cam profiles by graphical method. Cams with specified contours tangent cam with roller follower, circular arc cam with flat follower. Unit 4.0- 8 hrs Analysis of gyroscopic motion : Principle of gyroscope, gyroscopic couple and gyroscopic reaction couple, Gyroscopic effects on the movement of ships, aeroplanes, two wheeled and four wheeled vehicles, gyrostabilizers. Unit 5.0 – 7 hrs Effects of inertia of reciprocating masses on engine frame: Unbalanced primary and secondary forces and couples, balancing of primary and secondary forces, partial balancing of locomotives, balancing of multicylinder in line and radial engines, direct and reverse cranks methods for balancing of radial engines. Unit 6.0- 9 hrs Mechanical vibrations : Basic concepts degree of freedom, types of damping and viscous damping; natural free, damped free and damped forced vibrations of a single degree of freedom spring mass system, reciprocating and rotating unbalance, vibration isolation and transmissibility, whirling of shaft, elementary treatment of two degree of freedom systems torsional vibrations of single rotor and two rotor systems, transverse vibration of simply supported beam energy method, Rayleigh’s and Dankerley method.

3L + 0T + 0P Unit- 1.0: 7 hrs Tooling for conventional and non-conventional machining processes: Mould and die design, Unit- 2.0: 7 hrs Press tools, Cutting tools; Holding tools: Jigs and fixtures, principles, applications and design; press tools –configuration, design of die and punch; principles of forging die design. Unit- 3.0: 7 hrs Metrology: Dimensions, forms and surface measurements, Limits, fits and tolerances; linear and angular measurements; comparators; gauge design; interferometry. Unit- 4.0: 7 hrs Metrology in tool wear and part quality including surface integrity, alignment and testing methods; tolerance analysis in manufacturing and assembly. Process metrology for emerging machining processes such as microscale machining, Inspection and workpiece quality. Unit-5.0: 5 hrs Assembly practices: Manufacturing and assembly, process planning, selective assembly, Material handling and devices. Unit- 6.0: 9 hrs Unconventional Machining Processes: Abrasive Jet Machining, Water Jet Machining, Abrasive Water Jet Machining, Ultrasonic Machining, principles and process parameters. Electrical Discharge Machining, principle and processes parameters, MRR, surface finish, tool wear, Dielectric, power and control circuits, wire EDM; Electro-chemical machining (ECM), etchant & maskant, process parameters, MRR and surface finish. Laser Beam Machining (LBM), Plasma Arc Machining (PAM) and Electron Beam Machining.

3L + 0T + 0P Unit- 1.0: 5 hrs Introduction: Why automation, Current trends, CAD, CAM, CIM, Rigid automation: Part handling, Machine tools. Unit- 2.0: 7 hrs Flexible automation: Computer control of Machine tools and Machining centres, NC and NC part programming, CNC-Adaptive Control, Automated Material Handling. Assembly, Flexible fixturing. Unit- 3.0: 6 hrs Computer Aided Design: Fundamentals of CAD-Hardware in CAD-Computer Graphics software and Data Base, Geometric modelling for downstream applications and analysis methods. Unit- 4.0: 7 hrs Computer Aided Manufacturing: CNC Technology, PLC, Micro-controllers, CNC Adaptive control. Unit-5.0: 8 hrs Low cost automation: Mechanical & Electromechanical systems, Pneumatic and Hydraulics, Illustrative examples and case studies. Unit- 6.0: 9 hrs Introduction to Modeling and Simulation: Product design, process route modelling, Optimization techniques, Case studies & Industrial applications.

3L + 0T + 0P Unit 1.0- 8 hrs Principles of Renewable Energy: Introduction, Energy and sustainable development, Fundamentals, Scientific Principles of renewable energy, Technicle implications, Social implications, Problems. Unit 2.0- 8 hrs Solar radiation: Introduction, Exatra- terrestrial solar radiation, Components of radiation, Geometry of collector and the solar beam, Effects of the Earth’s atmosphere Measurements of solar radiation, Estimation of solar radiation, Solar wate heating: Introduction, Calculation of heat balance: general remarks, Uncovered solar water heaters- progressive analysis, Improved solar water heaters, Prograssive analysis, Improved solar water heaters, Evacuated collectors, Buildings and other solar thermal applications. Air heaters, Crop driers, Space cooling, Water desalination, Solar ponds, Solar concentrators, Solar thermal electric power systems, Problems. Unit 3.0- 6 hrs Photovoltaic generation: Introduction, The silicon p-n Junction, Photon absorption at the Junction, solar radiation absorption, Maximizing cell efficiency, Solar cell construction, Applications, Problems, Unit 4.0- 6 hrs Hydro- power: Introduction, Principles, Assessing the resource for small installations, An inpulse turbine Reaction trubines, Hydroelectric systems. the hydraulic ram pump, Problems. Unit 5.0 – 8 hrs Power from the wind: Introduction, Turbine types and tems, Linear momentum and basic theory, Dynamics matching, Blade element theory, Contents Characteristics of the wind, Power extraction by a turbine, Electricity generations, Mechanical power, Problems. Unit 6.0- 8 hrs Biomass and Biofuels: Introduction, Biofuel classification, Biomass production for energy faming, Direct combustion for heat, Pyrolysis (destructive distillation), Further thermochemical processes, Alcoholic fermentation, Anaerobic digestion for biogas, Wastes and residues, Vegetable oils and biodiesel, Problems.

0L + 0T + 2P Perform all Experiments 1. To study the design procedure of Knuckle & Cotter joint. 2. Design of shafts subjected to torsion, bending moment and combined bending and torsion. 3. Design of flat and square key 4. Design and drawing of riveted joints 5. Design and drawing of screw jack 6. Journal Bearing Test Rig.

0L + 0T + 3P Perform any 10 Experiments List of Experiments: 1. To study various types of Links, Pairs, Chain and Mechanism 2. To study inversion of Four Bar Mechanism 3. To study velocity diagram for Slider Crank Mechanism. 4. To study various kinds of belts drives. 5. To study and find coefficient of friction between belt and pulley. 6. To study various types of Cam and Follower arrangement. 7. To plot follower displacement Vs cam rotation graph for various cam follower arrangement. 8. To study Different types of Gears. 9. To study Different types of Gear Trains. 10. To Perform Experiment on Watt, Porter, Proell and Hartnell Governors and prepare Performance Characteristic Curves also analyze Stability & Sensitivity 11. To study gyroscopic effects through models. 12. To determine gyroscopic couple on Motorized Gyroscope. 13. To perform the experiment of Balancing of rotating parts and find the unbalanced couple and forces. 14. To study Dynamically Equivalent System. 15. Determine the moment of inertial of connecting rod by compound pendulum method and trifler suspension pendulum. 16. To study the various types of dynamometers. 17. To find out critical speed experimentally and to compare the Whirling Speed of a shaft with theoretical values.

0L + 0T + 3P Perform all Experiments List of Experiments: 1. Measurement of angle using Sine Center / Sine bar / bevel protractor 2. Measurement of alignment using Autocollimator / Roller set 3. Measurement of cutting tool forces using a. Lathe tool Dynamometer b. Drill tool Dynamometer. 4. Measurement of Screw Threads Parameters using Two wire or Three-wire method. 5. Measurements of Surface roughness, Using Tally Surf/Mechanical Comparator 6. Measurement of gear tooth profile using gear tooth Vernier/Gear tooth micrometer 7. Calibration of Micrometer using slip gauges 8. Measurement using Optical Flats.

0L + 0T + 2P Perform any 10 Experiments List of Experiments: 1. Case study on automated system of any industry. 2. Practice programming on manual part program. 3. Practice Programming on APT. 4. Demonstration on robot. 5. Performance on robot. 6. Demonstration on CNC lathe. 7. Performance on CNC lathe. 8. Performance and simulation with CNC lathe software. 9. Demonstration on CNC milling. 10. Performance on CNC milling. 11. Performance and simulation with CNC milling software. 12. Case study on Computer aided process planning. 13. Case study on part coding and group technology. 14. Case study on Computer aided quality control. 15. Case study on flexible manufacturing system.