Untitled Quiz

Mechanisms and Machines

• Module 1: Introduces simple mechanisms, different types of kinematic pairs, Grubler's rule for degree of freedom, Grashof's criterion, inversions of 3R-P, 2R-2P chains.
• Module 2: Covers kinematic analysis using vector analysis, velocity and acceleration analysis of planar mechanisms.
• Module 3: Discusses cam classifications, uniform acceleration and retardation, SHM, cycloidal motion, and oscillating followers.
• Module 4: Explores vibration analysis of single-degree-of-freedom (SDOF) systems, and natural, damped, and forced vibrations.
• Module 5: Examines gear geometries, law of gearing, involute profiles, interference, helical, spiral and worm gears, and epicyclic gear trains.
• Module 6: Focuses on dynamic analysis of mechanisms, including slider-crank mechanisms and turning moment computations.
• Module 7: Explains balancing methods for revolving and reciprocating masses, static and dynamic balancing.
• Module 8: Provides a study of gyroscopes, their basic concepts, gyroscopic laws, and effects in automobiles, ships, and aircraft.

CAD and Computer Graphics

• Module 1: Introduces computer-aided design (CAD), fundamental concepts, types of graphics systems, hardware, software, input devices, and drawing standards. Covers dimensioning, text writing, layers, blocks, object/DXF/DXB, primitives (points/lines).
• Module 2: Details 2D geometrical transformations: translation, scaling, rotation, reflection, shear using matrices & homogeneous coordinates, viewing coordinates, window-to-viewport transformation, viewing functions, and line clipping algorithms.
• Module 3: Covers 3D object representation via polygon surfaces, quadric surfaces, spline representation, Hermite/Bezier/B-spline curves and surfaces and rendering methods, 3D viewing (pipeline, view volume, projections, clipping).
• Module 4: Discusses 3D transformations: translation, rotation, scaling, shear, composite, projection and view volume determination; methods for visible surface detection. (backface, depth buffer, scan-line, depth sorting, BSP-tree, area subdivision, octree).
• Module 5: Introduces the Finite Element Method with numerical techniques. Topics include root finding, curve fitting, numerical differentiation, and numerical integration.
• Module 6: Covers CAD/CAM principles, Parametric and variation modeling, command orientation, and applications of CAD software.
• Module 7: Examines BOOlEAN and sweep operations for CAD modeling.

Engineering Workshop

• Module 1: Includes turning operations (taper turning, external turning).
• Module 2: Focuses on boring, drilling (square/hexagonal) using die sinking EDM, and center lathes.
• Module 3: Covers grinding (cylindrical grinding).
• Module 4: Deals with thread cutting (internal/external).
• Module 5: Covers gear cutting.
• Module 6: Includes an introduction to welding, including concepts of shielded metal arc welding (MIG), gas tungsten arc welding (TIG), submerged arc welding, spot welding, and hands-on practice.

Design of Machine Elements

• Module 1: Introduces mechanical engineering design, reviews solid mechanics, design equations, factor of safety, numbering systems, standard materials, and uncertainties in design.
• Module 2: Details design procedures for statically loaded machine elements: riveted joints, screws, bolted joints, axles, and couplings, clutches, and brakes.
• Module 3: Examines fatigue, modifying factors, surface strength, design for fatigue loading, applications to bolts and springs.
• Module 4: Explores the design of dynamically loaded machine elements: shafts, spur, helical, bevel, worm gears, belt drives, and chain drives.
• Module 5: Explains the design and fabrication of assemblies of different machine elements.

Primary Manufacturing

• Module 1: Covers the introduction to manufacturing with examples, definitions, and classifications.
• Module 2: Details casting methods and principles, including sand molding, pattern making, gating systems, core making, pouring, solidification, and equipment.
• Module 3: Explores forming processes (with examples), including forging (types, die design), rolling (hot/cold) , wire drawing, and extrusion.

Fluid Mechanics

• Module 1: Discusses basic concepts, fluid properties, fluid statics, pressure measurements, hydrostatic forces, buoyancy, and stability of floating bodies.
• Module 2: Covers fluid kinematics, types of flow, velocity field, acceleration, continuity equation, stream functions, velocity potential, Bernoulli equation, and related applications (Venturi meter, orifice meter, Pitot tube). It also touches upon dimensional analysis and similarity laws.
• Module 3: Explores viscous flow, the Navier-Stokes equation, laminar flow between parallel plates/circular pipes (Hagen Poiseuille's equation), hydraulic/energy gradient, flow through pipes, Darcy-Weisbach equation, pipe roughness, friction factor, Moody's diagram, minor losses, and flow through pipes in parallel/series.
• Module 4: Focuses on hydraulic turbines (definitions, classifications, Euler's equation, velocity triangle computations, and performance curves)
• Module 5: Includes hydraulic pumps (definitions, classifications, velocity triangles, specific speed, performance curves, reciprocating vs. centrifugal pumps).

Heat Transfer

• Module 1: Introduces modes of heat transfer (conduction, convection, radiation), basic laws, applications, and heat conduction equations in different coordinate systems.
• Module 2: Explores one-dimensional steady-state conduction in slabs/cylinders/spheres. It also includes overall heat transfer coefficient, electrical analogy, and critical radius of insulation.
• Module 3: Covers one-dimensional transient conduction and variable thermal conductivity

Control Engineering

• Module 1: Introduces feedback control systems. Provides a historical background.
• Module 2: Explains modeling of mechanical, electrical, thermal and hydraulic systems. Discusses state variables, state-space models, block diagrams, and signal flow graph analysis.
• Module 3: Introduces system response in terms of time domain.
• Module 4: Provides frequency-domain analysis for system analysis and design. Includes polar plots, Bode plots, Nyquist plots and stability criterion.
• Module 5: Explains state variable analysis with state equations, concepts of controllability and observability, and pole placement design.
• Module Note: Focuses on proportional, integral, derivative feedback.

Integrated Design & Manufacturing

• Module 1: Focuses on life cycle development of mechanical equipment.
• Module 2: Discusses the roles of personnel like customers, management, and marketing.
• Module 3: High lights aspects of innovation & problem solving in engineering design.
• Module 4: Explores the concepts of Design for Manufacturing and Assembly (DFMA).
• Module 5: Emphasizes material selection for design and manufacturing.

Machine Tools and Machining

• Module 1: Provides an introduction to classifications of manufacturing processes, characteristics and purpose of conventional machining. Describes generatrix and directrix concepts for machine tool configurations..
• Module 2: Explains the kinematic structures of a center lathe with details on speed and feed gear boxes and apron mechanisms.
• Module 3: Analyses chip formation for brittle and ductile materials, including relevant angles and coefficients.
• Module 4: Explains the mechanics of machining and measurement of cutting forces.
• Module 5: Discusses tool wear, tool life, and tool materials. Includes Taylor's tool life equation and various tool materials.
• Module 6: Explores different grinding methods and principles.
• Module 7: Explains the metrology concepts like precision and accuracy for various measurement techniques.

IC Engines and Refrigeration

• Module 1: Discusses thermodynamic cycles (Otto, Diesel, Dual), engine cycles, valve timing diagrams and actual cycle analysis.
• Module 2: Covers SI engines (carburated, fuel injection methods), combustion and detonation phenomena.
• Module 3: Focuses on CI engines and combustion phenomena and fuel injection processes.
• Module 4: Explains various engine components (ignition, lubrication, cooling, exhaust systems).
• Module 5: Examines engine performance characteristics and testing methods.
• Module 6: Discusses various fuels and emission control measures.

Tribology

• Module 1: Discusses surface topography, friction characteristics, and measurement of friction forces in different components.
• Module 2: Details various wear phenomena, measurements, and materials used.
• Module 3: Describes lubricant types and their properties, testing methods, hydrodynamic, elasto-hydrodynamic, boundary and solid lubrications.
• Module 4: Investigates film lubrication theory, Reynolds equation, and loaded/unloaded journal bearings.

Turbo Machinery

• Module 1: Covers steam turbines, types of turbines, compounding, velocity diagrams, degree of reaction, and governing mechanisms.
• Module 2: Explores gas turbines (types, Joule cycle, performance variables), generation of power, regeneration, and intercooling.
• Module 3: Describes jet propulsion, types of jet engines, performance characteristics, thrust segmentation including turbojet, turboprop, turbofan, pulse jet, and ram jet.
• Module 4: Analyzes rotary compressors including velocity diagrams, work done, slip factor, power input.
• Module 5: Studies hydraulic turbines (e.g., Pelton, Francis, Kaplan) with velocity diagrams, condition for maximum efficiency.

Welding Technology

• Module 1: Introduction to welding as a manufacturing process; different types of welding (gas, arc, electric); equipment; techniques for various welding processes
• Module 2: Details special welding processes (TIG, MIG, submerged arc, electro slag, resistance)
• Module 3: Explores more modern welding processes as well as weldments testing techniques.
• Module 4: Examines weldability, temperature distribution, distortion control and automation
• Module 5: Covers heat treatment & processes for weldment

Automobile Engineering

• Module 1: Introduces vehicle structural components, and engine components (types, materials, cooling, lubrication).
• Module 2: Emphasizes auxiliary systems, including emissions control systems, electrical systems
• Module 3: Covers engine transmission system (clutch, gears, differentials, axles).
• Module 4: Discusses steering, brakes, and suspension systems.
• Module 5: Introduces alternative fuel systems (LPG, CNG, biodiesel, gasohol, and hydrogen) and electric/hybrid vehicles.

Advanced Computer Graphics & Solid Modeling

• Module 1: Introduces computer graphics for visualizing concepts in various fields.
• Module 2: Details about hardware like workstations, terminals, input/output devices, file management, data representations Languages and Operating Systems.
• Module 3: Focuses on Graphic packages (applications for illustration, drawing, and animation).
• Module 4: Discusses CAD fundamentals, design process, database construction, geometry modeling (wire frame, solid modeling), and CAD-CAM integration.
• Module 5: Details about autolisp for CAD applications,
• Module 6: Covers aspects of advanced CAD and CAM software utilization, (topics may include software for CNC programming, robotics simulation, or specific design software.)

Non-Traditional and Computer Aided Manufacturing

• Module 1: Introduces classifications for material removal processes & their applications and need for Non- Traditional Manufacturing processes (with details on abrasive jet, ultrasonic machining, water jet machining, etc.)
• Module 2: Discusses various processes (including EDM, ECM, EBM, LBM, PBM) and their product quality factors.
• Module 3: Focuses on advanced topics, including chemical & physical vapor deposition, thermal spraying.
• Module 4: Explains computer-aided manufacturing (CAM) concepts, principles, and various manufacturing systems.
• Module 5: Introduces CNC machines, types, classifications, and control features.
• Module 6: Introduces Robotics, applications, and programming languages.

Mechanical Handling Systems and Equipment

• Module 1: Focuses on material-handling systems, terminology, objective, benefits and interrelationships with plant layout. Covers the categorization, classification, and selection of material handling equipment.
• Module 2: Explores procedures for material handling equipment selection, factors affecting selection, principles, analytical techniques , and cost analysis.
• Module 3: Provides details on design of mechanical handling equipment like hoists, crane components, mechanisms, and considerations during design (like safety, overload criteria).
• Module 4: Explores the design of load lifting attachments, such as chains, hooks, and clamps. This module also covers grab buckets.
• Module 5: Covers simulation of mechanical systems; probability and statistics fundamentals, continuous/discrete systems. Different modeling techniques, and simulation software usage for mechanical/manufacturing systems (case studies examples).
• Module 6: Comprehensive explanation of both elasticity and plasticity theory, including topics on stress/strain and relationships, equilibrium equations in various coordinate systems (3D), anisotropic yield criteria, and application solutions.

Advanced Engineering Thermodynamics

• Module 1: Provides a review of thermodynamic laws and concepts, particularly concerning energy concepts in closed/open systems.
• Module 2: Focuses on entropy considerations, optimization, thermodynamic optimization, and related concepts.
• Module 3: Explores energy analysis of thermal systems, and plant-related concepts.
• Module 4: Deals with phase transitions, equations of state, multi-component systems, and reactive systems.
• Module 5: Covers Kinetic theory (molecular velocities and energy distribution), transport properties, and gas behavior.
• Module 6: Explores principles of irreversible thermodynamics and their diverse application examples.

Mechatronics

• Module 1: Introduces the concept of mechatronics.
• Module 2: Covers essential electronics, Boolean algebra, digital representation, and binary arithmetic.
• Module 3: Explores microprocessor architectures and programming, particularly the 8085 microprocessor.
• Module 4: Details about sensors and actuators (including force sensors, strain gauges, etc.) and interfacing mechanisms.

Theory of Combustion and Emission

• Module 1: Covers basic combustion principles like combustion equations, heat of combustion, chemical equilibrium, flame propagation.
• Module 2: Discusses combustion phenomena in SI and CI engines, normal and abnormal combustion, knocking, pre-ignition, flame structure, and heat release correlations.
• Module 3: Examines combustion principles in gas turbines with emphasis on flame stability and chamber design.
• Module 4: Provides an in-depth exploration of major pollutant emissions (including soot, NOx, particulate matter) and their sources in internal combustion engines (ICEs).
• Module 5: Addresses emission control measures and technologies.

Robotics

• Module 1: Provides an overview of robotics, types, degrees of freedom, and categorization.
• Module 2: Explains kinematics and dynamics of robotic linkages and manipulators, with an emphasis on frames, transformations, forward/inverse kinematics, and motion analysis.
• Module 3: Details about sensors and actuators commonly used in robot applications.
• Module 4: Explores different control techniques for robot manipulators, particularly feedback control, trajectory control and PID control.
• Module 5: Focuses on robot programming languages and operations related to robot programming, control, and execution in various fields.

Power Plant Engineering

• Module 1: Introduces power plant concepts, steam cycles, optimization, reheat pressures, and coupled/combined power plants.
• Module 2: Explains boiler types, functions, mounting, feedwater treatment, boiler operation, furnace design (coal/oil/gas).
• Module 3: Provides details on steam turbines, impulse/reaction turbines, velocity diagrams, efficiency relations , and governing systems.
• Module 4: Discusses various components like plant components, condenser types, cooling towers, and energy management procedures.
• Module 5: Covers power plant economics, energy accounting, waste heat recovery, alternative energy sources, and environmental aspects.

Environmental Pollution

• Module 1: Provides a historical perspective.
• Module 2: Details the effects of pollutants on human health.
• Module 3: Classifies and sources of various pollutants (CO, CO2, O2, N2 cycles).

Non-traditional & Computer-aided manufacturing (NTCM)

• Module 1: Introduces NTCM, the characteristics of material removal processes in conventional (machining) processes.
• Module 2: Discusses different NTCM, methods, their applicability, and process parameters.
• Module 3: Discusses advanced topics like chemical and physical vapour deposition, thermal spraying, and rapid prototyping.
• Module 4: Focuses on computer-aided manufacturing (CAM) in detail, automation for manufacturing systems, CNC, robotic concepts.
• Module 5: Explores CNC machines, their programming, and features.
• Module 6: Focuses on robotics (types, applications, programming languages).