Semester 1: Foundation in Basic Sciences (Focus: Engineering Fundamentals)
Subject
Chapters/Topics
Brief Description
Engineering Mathematics I
1. Differential Calculus (limits, partial derivatives).
2. Integral Calculus (definite integrals, applications).
3. Vector Calculus (gradient, divergence, curl).
4. Ordinary Differential Equations (first-order, linear).
Mathematical tools for modeling mechanical systems like vibrations and stress analysis.
Engineering Physics
1. Mechanics (laws of motion, friction).
2. Waves and Optics (interference, diffraction).
3. Thermal Physics (thermodynamics laws).
4. Modern Physics (quantum basics).
Physical principles for mechanics, heat transfer, and material properties in engineering.
Engineering Chemistry
1. Atomic/Molecular Structure.
2. Chemical Thermodynamics.
3. Corrosion and Lubrication.
4. Polymers and Composites.
Chemical foundations for material selection and corrosion prevention in mechanical systems.
Basic Electrical Engineering
1. DC/AC Circuits (Kirchhoff’s laws).
2. Transformers and Motors.
3. Electrical Safety.
Basics for electrical systems in machinery and automation.
Engineering Graphics
1. Orthographic Projections.
2. Isometric Views.
3. Sections and Development of Surfaces.
Technical drawing for designing mechanical components like gears and assemblies.
Labs
Physics/Chemistry Labs, Workshop Practice.
Experiments on mechanics, spectroscopy, and basic workshop skills (e.g., welding, fitting).
Semester 2: Advanced Foundations (Focus: Mechanics and Computing)
Engineering Mathematics II
1. Partial Differential Equations (wave, heat equations).
2. Complex Analysis (contour integration).
3. Laplace Transforms.
4. Fourier Series.
Advanced math for solving dynamics, heat transfer, and control systems.
Engineering Mechanics
1. Statics (equilibrium, trusses, frames).
2. Dynamics (kinematics, kinetics of particles).
3. Friction and Centroids.
4. Moment of Inertia.
Fundamentals for analyzing forces in structures and motion in machinery.
Basic Mechanical Engineering
1. Thermodynamics (cycles, laws).
2. Fluid Mechanics (properties, flow).
3. Machine Elements (gears, bearings).
Introduction to energy systems and mechanical components.
Computer Programming
1. C/C++ Basics (loops, functions).
2. Arrays and Pointers.
3. File Handling.
4. Numerical Methods (coding).
Programming for simulation tools like MATLAB or CAD software integration.
Labs
Programming Lab, Mechanics Lab.
Coding for numerical analysis and experiments on force/stress measurements.
Semester 3: Core Mechanical Principles (Focus: Mechanics and Materials)
Strength of Materials
1. Stress and Strain (axial, shear).
2. Bending and Torsion.
3. Deflection of Beams.
4. Columns and Thin Cylinders.
Analyzes material behavior under loads for designing shafts and beams.
Fluid Mechanics
1. Fluid Properties (density, viscosity).
2. Fluid Statics (pressure, buoyancy).
3. Fluid Dynamics (Bernoulli’s equation).
4. Flow in Pipes and Pumps.
Models fluid behavior in hydraulic systems and turbines.
Engineering Mathematics III
1. Numerical Methods (Newton-Raphson, Runge-Kutta).
2. Linear Algebra (matrices, eigenvalues).
3. Probability and Statistics.
Tools for stress analysis and reliability in mechanical design.
Material Science and Metallurgy
1. Crystal Structure.
2. Phase Diagrams.
3. Heat Treatment.
4. Mechanical Properties.
Material properties for selecting alloys in manufacturing.
Manufacturing Processes I
1. Casting Processes.
2. Metal Forming (rolling, forging).
3. Welding and Joining.
4. Machining Basics.
Techniques for shaping metals into mechanical components.
Labs
Fluid Mechanics Lab, Material Testing Lab.
Experiments on flow measurement and tensile/compression testing.
Semester 4: Thermodynamics and Design (Focus: Energy and Machine Elements)
Engineering Thermodynamics
1. First/Second Laws.
2. Thermodynamic Cycles (Carnot, Rankine).
3. Entropy and Exergy.
4. Gas and Vapor Power Systems.
Energy conversion in engines, turbines, and refrigeration systems.
Machine Drawing
1. Assembly Drawings.
2. Fasteners (bolts, screws).
3. Bearings and Couplings.
4. Tolerances and Fits.
Detailed technical drawings for machine components using CAD.
Kinematics of Machinery
1. Mechanisms (links, joints).
2. Velocity and Acceleration Analysis.
3. Cams and Gears.
4. Balancing of Machines.
Analysis of motion in mechanical systems like linkages and gears.
Manufacturing Processes II
1. CNC Machining.
2. Non-Traditional Machining (EDM, laser).
3. Surface Finishing.
4. Additive Manufacturing.
Advanced techniques for precision manufacturing.
Electrical Machines
1. DC Machines (motors, generators).
2. AC Machines (induction motors).
3. Transformers.
Electrical systems for mechanical automation and drives.
Labs
Thermodynamics Lab, Manufacturing Lab.
Experiments on heat engines and machining processes.
Semester 5: Dynamics and Design (Focus: Machine Design and Dynamics)
Dynamics of Machinery
1. Force Analysis in Mechanisms.
2. Vibration Analysis (free, forced).
3. Balancing of Rotors.
4. Governors and Gyroscopes.
Dynamic behavior of rotating and reciprocating machinery.
Machine Design I
1. Design Process and Factors of Safety.
2. Design of Shafts and Keys.
3. Design of Joints (welded, bolted).
4. Fatigue and Failure Theories.
Designing reliable mechanical components under load.
Heat and Mass Transfer
1. Conduction (Fourier’s law).
2. Convection (natural, forced).
3. Radiation.
4. Heat Exchangers (LMTD, NTU).
Heat transfer in engines, boilers, and cooling systems.
1. Linear and Angular Measurements.
2. Gauges and Comparators.
3. Surface Roughness.
4. Instrumentation.
Metrology and Measurements
Precision measurement for quality control in manufacturing.
Elective I (e.g., Automobile Engineering)
1. IC Engine Components.
2. Transmission Systems.
3. Vehicle Dynamics.
Basics of vehicle design and performance analysis.
Labs
Heat Transfer Lab, Metrology Lab.
Experiments on heat exchangers and precision measurements.
Semester 6: Advanced Mechanical Systems (Focus: Control and Energy Systems)
Machine Design II
1. Design of Gears.
2. Bearings (rolling, sliding).
3. Brakes and Clutches.
4. Springs and Flywheels.
Advanced design of power transmission and energy storage components.
Fluid Power Systems
1. Hydraulic Systems (pumps, actuators).
2. Pneumatic Systems.
3. Control Valves.
4. Circuit Design.
Hydraulics and pneumatics for automation and heavy machinery.
Refrigeration and Air Conditioning
1. Refrigeration Cycles (vapor compression).
2. Refrigerants and Psychrometry.
3. Air Conditioning Systems.
4. Load Calculations.
Design of cooling systems for industrial and domestic use.
Control Systems
1. Open/Closed Loop Systems.
2. Transfer Functions.
3. Stability Analysis (Routh-Hurwitz).
4. PID Controllers.
Automation and control of mechanical systems.
Elective II (e.g., Robotics)
1. Robot Kinematics.
2. Actuators and Sensors.
3. Robot Programming.
Fundamentals of robotic systems for automation.
Labs
Fluid Power Lab, CAD/CAM Lab.
Hydraulic circuit experiments and CAD software practice.
Semester 7: Industrial Applications (Focus: Manufacturing and Management)
CAD/CAM
1. CAD Modeling (solid, surface).
2. Finite Element Analysis (FEA).
3. CNC Programming.
4. Computer-Integrated Manufacturing.
Computer-aided design and manufacturing for precision engineering.
Industrial Engineering
1. Work Study and Ergonomics.
2. Production Planning.
3. Quality Control.
4. Operations Research
Optimizing production processes and resource utilization.
Power Plant Engineering
1. Steam Power Plants.
2. Gas Turbine Plants.
3. Nuclear Power Plants.
4. Renewable Energy Systems.
Design and operation of energy generation systems.
Elective III (e.g., Finite Element Methods)
1. FEA Fundamentals.
2. 1D/2D Elements.
3. Structural Analysis.
Numerical methods for stress and thermal analysis.
Industrial Training/Project
N/A
6-8 week internship; mini-project on design or manufacturing.
Semester 8: Capstone and Specialization (Focus: Innovation and Professional Practice)
Major Project
N/A
Industry-relevant project, e.g., designing a turbine or optimizing a manufacturing process.
Seminar
Literature Review and Presentation.
Presentation on trends like Industry 4.0, additive manufacturing, or green energy.
Elective IV (e.g., Renewable Energy)
1. Solar and Wind Energy.
2. Biomass and Geothermal.
3. Energy Storage Systems.
Focus on sustainable energy solutions.
Professional Practice
1. Engineering Ethics.
2. Project Management.
3. Entrepreneurship.
Prepares for professional roles with ethical and managerial skills.
Comprehensive Viva
N/A
Oral exam covering the entire curriculum.