1• Applied Thermo Dynamics -MEP302
Lecture: 3 hrs/wk Tutorial: 2 hrs/w Total: 5 hrs/wk
Contents:
Second-law analysis of actual thermodynamic processes
Cycles of Steam Power Plants
Psychometrics
Fundamentals of Refrigeration
Introduction to Internal Combustion Engines
Fuel-Air Cycle of Internal Combustion Engines
Gas Turbine Cycle Analysis
Reciprocating Compressors
2•Heat and Mass Transfer-MEP304A
Lecture: 3 hrs/wk Tutorial: 2 hrs/w Total: 5 hrs/wk
Contents:
Conduction Heat Transfer:
General Equation of Conduction
One-Dimensional Steady State Conduction
Steady State Conduction with Internal Heat Generation
Steady Conduction With Variable Thermal Conductivity
Fins and Extended Surfaces
Unsteady Conduction
Convection Heat Transfer:
Fundamental Concepts of Convection
Dimensionless Groups
Natural Convection Correlations
Fundamentals of External Flow Forced Convection
Flat Plate Parallel Flow
Flow Across Banks of Tubes
Internal Flow Forced Convection
3•Measurement and Measuring Instrument – MEP305
Lectures: 2 hrs/wk Tutorial/Practical: 3 hrs/wk Total: 5 hrs/wk
Contents:
Basic fundamentals of measurements
Signal processing& Exp. analysis
Electrical Transducers
Pressure measurements
Temperature measurements
Flow measurements
Thermal Properties
Force & Torque & Power Measurements
Dimensional Measurements
Fuels oil measurements, Gas Analyzer
4•Numerical Methods in Energy Sciences-MEP301
Lecture: 3 hrs/wk Tutorial: 3 hrs/w Total: 6 hrs/wk
Contents:
Numerical Integration
Solution of Ordinary Differential Eq.
Solution of Non- Linear Differential Eq.
Solution of Linear Simultaneous D.E.
Finite Difference &2nd order Partial D.E.
Parabolic D.E.
Elliptic D.E.
Interpolation , Approximation & curve fitting
5- Fluid Mechanics-MEP303A
Lecture: 3 hrs/wk Tutorial: 2 hrs/w Total: 5 hrs/wk
Course Contents:
Chapter 1: Differential equation of mass conservation
Driving Navier-Stokes equations (linear momentum) for Newtonian fluids, angular momentum and energy equations
Chapter 2: Viscous flow in pipes and ducts
Flow between parallel plates with pressure gradients
Chapter 3: Differential equations for frictionless flow
Stream and potential functions, vorticity, irrotationality elementary plane-flow solutions
Superposition of plane-flows and Images
Plane flows past closed body shapes, axi-symmetric flows theory
Lift & drag on submerged bodies in ideal flow
Chapter 4: Introduction to Boundary Layer flows, the differential equations, Exact equations for 2-D flow
Blasius exact solution for laminar flow, the Momentum Integral equations
Approximate solutions for 2-D laminar and turbulent boundary layers
Thermal Boundary Layer over a flat plate