Prerequisite: (ME412) Refrigeration and air conditioning
Prerequisite: (ME412) Refrigeration and air conditioning
Prerequisite: (ME412) Refrigeration and air conditioning
Prerequisite: (ME412) Refrigeration and air conditioning
Prerequisite: (ME412) Refrigeration and air conditioning
Prerequisite: 066103
Prerequisite: 066103 & 066105
Prerequisite: 066105
Prerequisite: 066105
Prerequisite: (ME312) Heat Transfer
Prerequisite: (ME312) Heat Transfer
Prerequisite: (ME411) Thermal Power Plants
Prerequisite: (ME411) Thermal Power Plants
Prerequisite: (ME411) Thermal Power Plants
Prerequisite: 066124 and 066126
Prerequisite: (ME411) Thermal Power Plants
Prerequisite: (ME311) Thermodynamic II and (ME411) thermal power plants
Prerequisite: (ME411) Thermal Power Plants and 03066126
Prerequisite: (ME311) Thermodynamic II
Prerequisite: (ME412) Refrigeration and air conditioning
Prerequisite: (ME412) Refrigeration and air conditioning
Prerequisite: (ME211) Thermodynamics I and (ME412) Refrigeration and air conditioning
Prerequisite: 066142
Prerequisite: 066144
Prerequisite: (ME411) Thermal Power Plants
Prerequisite: (ME312) Heat Transfer
Prerequisite: (ME312) Heat Transfer and boundary layer theory
Prerequisite: (ME412) Refrigeration and air conditioning
Prerequisite: (ME411) Thermal Power Plants and 066152
Prerequisite: 066152
Prerequisite: (ME211) Thermodynamics I and 066140
Prerequisite: 066144
Prerequisite: 066152
Prerequisite: 066152 and boundary layer theory
Prerequisite: 067115 and 067120
Prerequisite: 067120
Prerequisite: 067120
Prerequisite: (ME211), (ME311), and ME312
Prerequisite: Passing Preliminary Qualifying Examination
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: 03-06-6220 or 03-06-6241
Prerequisite: 03-06-6220 or 03-06-6241
Prerequisite: None
Prerequisite: None
Prerequisite: 03-06-6245 or 03-06-6249 or 03-06-6265
Prerequisite: 03-06-6251
Prerequisite: 03-06-6241
Prerequisite: 03-06-6241 or 03-06-6255
Prerequisite: None
Prerequisite: None
Prerequisite: 06-6249
Prerequisite: 06-6255
Prerequisite: 06-6255 or 06-6265
Prerequisite: 06-6255
Prerequisite
Prerequisite: Passing Preliminary Qualifying Examination
Conservation laws of mass, momentum, and energy: boundary conditions; exact and approximate solutions of Navier-Stokes equations; boundary-layer theory; introduction to external and rotational flows; application to flows around bodies and blade passages, Drag and lift; introduction to turbulent flows.
Applied numerical analysis, including solution of linear algebraic equations and ordinary and partial differential equations; modeling of physical processes, including fluid flow and heat and mass transfer; use of general purpose computer codes, including computational fluid dynamics software packages and software for specific applications such as pipeline and network design. Applications.
Generation, transmission, and utilization of power in systems in which the working fluid is oil or air; analysis and design of pumps, cylinders, motors, valves, and other fluid components; dynamic analysis and control of fluid power systems.
Design and analysis of basic and advanced hydraulic and Pneumatic circuits. Construction of some hydraulic equipment (hydraulic cranes, fork lifts, graders, shovels, or excavators). Hydraulic and Pneumatic systems (operation, trouble shooting techniques, and procedures of maintenance).
Types of pumps. Positive-displacement and rotodynamic pumps. Theory of centrifugal pumps. Design, selection, operation, and maintenance of pumps. Methods of gas compression. Types of compressors, fans and blowers. Positive-displacement compressors. Theory of centrifugal and axial-flow compressors. Design, selection, operation, and maintenance of compressors, fans and blowers.
Introduction. Flow patterns. One dimensional flow. Empirical methods for pressure drop. Void fraction. Draft flux model. Vertical bubble and slug flow. Gaslift systems, Airlift pumps, Gas particle flow, pumping of slurries.
Behavior of frictional surfaces under different types of loading. Mechanisms of heat generation and surface damage (wear, scuffing, pitting, fretting, etc.). Rheological effects. Theory of lubrication, lubricants, Types and systems of lubrication, applications.
Design and analysis of engineering experiments with an emphasis on measurement methods and standards, Velocity, pressure, temperature, and flow measurements of liquids and gases, standards, calibration, and performance testing of flow meters.
Basic equations of liquids and gases flows in pipes. Water piping systems and branches, design of pipe networks, Hydraulic and mechanical design of oil pipelines Natural gas pipelines. Compressed air piping systems. Economical considerations. Construction, Operation, Maintenance, and Applications.
This course will be designed to concentrate on one or more topics of interest to fluid engineers such as; Industrial noise, Cavitation, Hydraulic transients, environmental fluid mechanics, air pollution, Non Newtonian fluids. Drag reduction. Specifications and bids evaluation of hydraulic equipment.
Independent individual study or investigation of problems in a field related to the Diploma, under the supervision of a faculty member.
Solutions of systems of linear and nonlinear algebraic equations; approximation methods; solutions of ordinary differential equations; initial and boundary value problems; solutions of partial differential equations of elliptic, parabolic and hyperbolic types; Eigen-value problems.
Cartesian tensor analysis; stress, traction vectors, small and finite strain, kinematics of continuous media, conservation equations in Lagrangian and Eulerian coordinates, constitutive equations for elastic solids and viscous fluids, viscoelasticity and plasticity.
Navier-Stokes equations and constitutive theory; exact solutions of the Navier-Stokes equations; Viscous flow fundamentals; vorticity dynamics; solution of the Navier-Stokes equations in their approximate forms; thin shear layers and free surface flows; boundary layer theory; integral momentum methods; introduction to turbulence.
An introduction to the mechanics of viscous flows. The kinematics and dynamics of viscous flows. Some solutions of the Navier Stokes equations. The behavior of vorticity. The boundary layer approximation. The laminar boundary layer with and without pressure gradient. Separation. Integral relations, exact and approximate methods. Compressible laminar boundary layers. Introduction to instability and transition. Turbulent free shear flows. Turbulent boundary layers. Effects of Reynolds number. Bluff body flows.
Emphasis on finite-volume and finite-difference techniques for numerical solution of elliptic, parabolic and hyperbolic partial differential equations, stability analysis, applications to heat transfer, and internal and external flows problems.
Conservation equations in compressible flow; full potential equations, small perturbation equations; two-dimensional compressible flow; hodographs, method of characteristics; slender bodies, computational methods; introduction to three-dimensional flows and transonic flow; compressible boundary-layer flows; internal flows in nozzles and the diffusers; generalized quasi-1 D internal flows.
Design and analysis of engineering experiments with an emphasis on measurement methods and standards, data analysis, regressions and general and detailed uncertainty analysis, including statistical intervals, propagation of bias and precision errors, correlated bias approximations, and using jitter programs.
Basic turbulent flow concepts; origin of turbulence; introduction to turbulence measurements; Review of experimental results on the statistics and structure of turbulent flows. Methods for calculation of turbulent flows; the problem of closure, semi-empirical, phenomenological and analytical theories of turbulence, large-eddy and direct simulations of turbulence. Introduction to turbulence modeling; eddy viscosity/diffusivity concept; zero-equation models; one-equation models; two-equation models; introduction to second-moment closures; applications to boundary layers, shear layers, jets, plumes, wakes and separated flows.
Vibrating systems; acoustic wave equation; plane and spherical waves in fluid media; reflection and transmission at interfaces; propagation in lossy media; radiation and reception of acoustic waves; pipes, cavities, and waveguides; resonators and filters; noise; selected topics in physiological, environmental, and architectural acoustics.
Thermodynamic analysis of energy transfer between fluid and rotor; dimensional analysis; principles of axial, mixed, and radial flow pumps, fans, compressors, and turbines; cascade performance; computer flow simulations; applications to pumps, compressors and power plants.
Definitions. Viscosity formulae for non Newtonian fluids. Equations of motion for non Newtonian fluids. Non Newtonian fluid flow through pipes. Applications.
Some properties of fluids. Lubricants, Equations of motion (N.S.E.). Hydrostatic lubrication. Hydrodynamic lubrication. Characteristics of bearings. Equations of load, discharge and power. Friction. Wear.
Review of steady flow in pipes. Fundamental concepts of unsteady flow. Rigid water column theory. Elastic theory. Solution by method of characteristics. Complex pipe systems. Pumps in systems. Problems resulting from unsteady flow in pipe systems. Control devices and techniques.
Review of basic principles, equations and mathematical techniques, Inviscid flow (Euler equations, Bernoulli’s equation, vortex dynamics), Potential flow (porous media flow, surface waves in oceans and lakes, aerodynamic flow), Creeping flow (Stokes’ flow, settling, Hele-Shaw flow, swimming of organisms, mud flow), Laminar flow (channel and overland flow, stagnation flow, transient and oscillatory boundary layer, induced streaming, mass transport), Turbulent flow (Reynolds and turbulent kinetic eqns, applications: effluent discharge, boundary layer), Air pollution and dispersion models.
Inviscid flow concepts including: Euler equations, stream function, velocity potential, singularities, vorticity and circulation laws. Viscous flow topics including: boundary layers, separation, and turbulent flow. In addition, external flows, lift and drag, thin airfoil theory, finite wing theory and airfoil design.
Selected topics in multiphase flow including nucleation and cavitation, dynamics of stationary and translating particles and bubbles, basic equations of homogeneous two-phase gas/liquid, gas/solid, and vapor/liquid flows, kinematics and acoustics of bubbly flows, instabilities and shock waves in bubbly flows, stratified, annular, and granular flow.
Liquid and gas flows in pipes. Water piping systems and branches, design of pipe networks, Hydraulic and mechanical design of oil pipelines Natural gas pipelines. Compressed air piping systems. Flow transients in pipelines.
This course will be designed to concentrate on one or more topics of interest to fluid engineers such as; Industrial noise, Cavitation, Hydraulic transients, environmental fluid mechanics, air pollution, Non Newtonian fluids. Drag reduction. Specifications and bids evaluation of hydraulic equipment.
For students working on an advanced research program leading to the completion of the master’s thesis. Students registered for the master degree must register every term in this course starting the thrid term of their registration.
Prerequisite: 066315 Computational Fluid Dynamics I
Prerequisite: 066325 Basic Aerodynamics
Prerequisite: 066317 Experimentation, Measurements and Uncertainty Analysis
Prerequisite: 066318 Turbulent Flow
Prerequisite: 066319 Engineering Acoustics
Prerequisite:
Prerequisite: 066324 Environmental Fluid Mechanics
Prerequisite: 066313 Advanced Fluid Mechanics
Prerequisite: 066313 Advanced Fluid Mechanics
Prerequisite: 066314 Boundary Layer Theory
Prerequisite:
For students working on an advanced research program leading to the completion of the Ph.D. thesis. Students registered for the Ph.D. degree must register every term in this course starting the first term after passing their qualifying examination.
Prerequisite: None
Prerequisite: 06-6403
Prerequisite: None
Prerequisite: None
Prerequisite: 06-6404
Prerequisite: 06-6405
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite : None
Prerequisite: 06-6487
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: 06-6462
Prerequisite: None
Prerequisite: None
Prerequisite: 06-6465
Prerequisite: 06-6465
Prerequisite : 06-6485
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: None
Prerequisite: 06-6487
Independent individual study or investigation of problems in a field related to the Diploma, under the supervision of a faculty member.
For students working on an advanced research program leading to the completion of the master’s thesis.
Prerequisite:
Prerequisite:
Prerequisite: 06-6485
Prerequisite: 06-6485
Prerequisite: None
Prerequisite: None
Prerequisite: 06-6465
Prerequisite 06-6465
Prerequisite: 06-6465 and 06-6466
Recent advances in the area of dynamics and vibrations.
Recent advances in the area of dynamic systems and control.
Prerequisite: Passing Preliminary Qualifying Examination
Prerequisite: None
Prerequisite: None
066101
layout and landscape, normal cooling, deep freezing, freezing tunnel, cooling tunnels, humidity control, air change, masonry construction, prefabricated construction, storage equipment and intensity
066103
Air cooler, compressor, condenser, cooling tower, expansion devices, control systems, multi/pressure systems, flooded systems and refrigerant pumps.
066105
Building survey, cooling and heating load calculations, system selection, equipment selection, duct design, water piping design, ventilation and smoke management, control systems, block building load and diversity factor.
066107
Heat generations, moisture accumulation, displacement ventilation, pressure control, zone pressurization, control of gaseous indoor and air contaminants, applications.
066109
Liquefaction of helium, liquefaction of hydrogen, liquefaction of nitrogen, liquefaction of oxygen, cycles and equipment, energy consumption, surface transportation and marine transportation.
066113
System selection, load calculation, ice making plants, candy manufacture, bakeries, beverage processes.
066115
Refrigeration Systems, Cooling and heating loads calculations, air distribution, energy sources, passenger cars, buses, trucks and trailers railway, marine and air craft, and control devices .
066117
Temperature control, humidity control, zone pressure control, air change and filtration codes requirements, clean rooms encompasses, textile manufacturing, candy processing, industrial drying, hospitals, museums, libraries, industrial and military control rooms.
066119
Organization, financing a program, implementing a program, computer system architecture, hardware options, software options, computer-aided design, artificial intelligence, data acquisition, building dynamics and control of thermal storage systems.
066120
Insulation: types and selection, finned surfaces, buried pipes, insulated liquefied pipe lines, heat source systems, transient conduction, engineering relations of forced and free convection for real systems, radiation shape factors, radiation exchange in gases, radiation shield, mass transfer by diffusion and convection, evaporation process.
066122
Types of heat exchangers, the overall heat transfer coefficient, analysis of heat exchangers, the selection of heat exchangers, thermal design of heat exchangers using TEMA code, heat exchanger: materials, construction and corrosion, flow induced vibration phenomena, testing and inspection
066124
Boiler components construction and materials, burner specifications and selections, boiler control systems, boiler auxiliaries, steam pipeline design, expansion joints types and selection, and steam valves.
066126
Design of: Feed lines, feed water heaters, dearator, feed tank, steam condensers and cooling towers. Optimum selection of thermal power plant equipments. Energy saving in thermal power plant equipments.
066128
Methods of desalination and water treatment, water chemistry, design of thermal and membrane units, other desalination and water treatment units, water treatment of: boilers, condensers, cooling towers and water chillers, economical assessment, technologies- operation and maintenance of desalination and water treatment units, treatment of corrosion and scale deposits and industrial wastes water treatment.
066130
Safety laws and safety requirements in power plants, environmental laws and environmental control systems, boiler start up, boiler normal and abnormal operations, boiler idling and storage, maintenance and inspection of steam generators, turbine startup (cold and hot), turbine lubricating and control circuits, steam condensers and cooling tower operations, part-load problems, load distribution between units and plants and economical load operation of power plant.
066132
Energy conversion: utilization, present and projected consumption of energy, thermodynamic principles, nuclear power plants: fission and fusion reactors, hydroelectric plants, solar power plants, wind power plants, geothermal power plants, biomass, tidal, wave power systems. Direct energy conversion: thermoelectric power systems, thermo-ionic energy converter, magneto-hydro-dynamic power plant, free energy and fuel cells, photovoltaic effect and solar cells. Energy storage.
066134
Steam turbine design, steam turbine losses, steam turbine sealing, steam turbine protections, steam turbine rotor balancing and its critical speed, gas turbine design, gas turbine controls, gas turbine blade cooling and materials, air compressors and combustion chambers, combined cycle technology, optimum design of waste heat recovery boiler, combined cycle operations and maintenance.
066136
Boiler components inspection, boiler troubleshooting, turbine rotor and blades inspection, turbine bearings and control system inspections, failure analysis for power plant components, daily, weekly, monthly and yearly maintenance requirements, preventive maintenance of power plants, spare-parts stock requirements
066140
Classical thermodynamics of a general system; conservation of energy and principles of increase of entropy; fundamental relation of thermodynamics; Legendre transformations; phase transitions and critical phenomena; equilibrium and stability criteria in different representation; irreversible thermodynamics. Introduction to statistical thermodynamics.
066141
Heat generations, moisture accumulation, displacement ventilation, pressure control, zone pressurization, control of gaseous indoor and air contaminants, smoke management, applications.
066142
Thermodynamic analysis of refrigeration cycles, equations of state, calculating thermodynamic properties, irreversibility and availability, single stage cycle, multi pressure refrigeration cycles, absorption cycle, air cycle, thermo electric cycle, cycle performance, normal cooling, deep freezing, freezing tunnel and cooling tunnels.
066144
Composition of dry and moist air, thermodynamic properties of moist air, humidity parameters involving saturation, thermodynamic wet-bulb temperature and dew-point temperature, psychometric charts, typical air-conditioning processes, direct contact of air and water, sensible , latent and total heat balance, bypass factor and sensible heat factor.
066146
Liquefaction of helium, liquefaction of hydrogen, liquefaction of nitrogen, liquefaction of oxygen, cycles and equipment, energy consumption and transportation.
066148
Advanced topics on the design of heaters and humidifiers, DX coils, chilled water coils, evaporators, air-cooled condenser, water-cooled condenser, expansion devices, chillers and cooling towers.
066150
Critical analysis of energy balance of thermal power plants, thermodynamics and economic evaluation of alternate schemes of development, study of recent development in production of power.
066152
Steady and unsteady heat transfer by conduction, convective heat transfer by laminar and turbulent fluid flow, natural convection, mixed convection, heat transfer by radiation through participating media, mass transfer by steady state diffusion in gases and liquids, and mass transfer in laminar and turbulent flow.
066154
Generalized constitutive equations for various two-phase flow regimes. Interfacial heat and mass transfer. Equilibrium and non-equilibrium flow models. Two-phase flow instability. One-dimensional wave propagation. Two-phase heat transfer applications: convective boiling, pressure drop, critical and oscillatory flows.
066156
Humidification system components, Theoretical analysis and performance of humidification systems, classification and selection of dryers, drying mechanism, calculation of drying rates and periods, practical dryer design.
066158
Types of furnaces used in process heaters and boilers, Heat transfer in furnaces, the stirred-reactor furnace model, the plug-flow furnace model, the multi-zone furnace model, advanced furnace model, and practical furnace design.
066160
Numerical techniques for solving selected problems in heat and mass transfer. Applications include free convection, boundary layer flow, two-phase flow, separated flow, flow in porous media. Effects of concentration and temperature gradients, chemical reactions, radiation and electric and magnetic fields.
066197
066198
066199
067105
Analysis of classical thermodynamics from the microscopic viewpoint. Topics include: ensemble methods, partition functions, translational, rotational and vibrational energy modes of an ideal gas, chemical equilibrium, imperfect gases, dense fluids, critical-point theories, mean free path concepts, Boltzmann equation, hydrodynamic equations from kinetic theory and properties of disordered composite media.
067110
Transfer Function Method – CLTD/SCL/CLF method – Classical BIN Method – Modified BIN Method – Overall Modeling Strategies and Building Explorer – Computer System Architecture – Hardware Options – Software Options – Computer-Aided Design – Artificial Intelligence – Data Acquisition – Building Dynamics – Control of Thermal Storage Systems.
067115
methods of solving multidimensional transient and steady heat conduction, approximate and exact methods of solving nonlinear conduction problems and heat conduction in composite media and anisotropic solids.
067120
Advanced topics in steady and transient, natural and forced convective heat transfer for laminar and turbulent flow through conduits and over surfaces, mass transfer in laminar and turbulent flow and inclusion of topics on compressible flow with heat and mass transfer.
067125
Comprehensive and unified treatment of basic theories; exact and approximate methods of solution of radiative heat transfer in participating media, and the interaction of radiation with conductive and convective modes of heat transfer in participating and non-participating media.
067130
The hydrodynamic and thermal stability of fluid flows using linear, energy, and weakly nonlinear stability theories. Studies of: Taylor-Couette flow, buoyancy-driven flows, surface tension-driven flow, shear flow, thin-film flows, double diffusive flows. Mechanisms of transition and discussion of transition models in numerical methods.
067135
Models of turbulence, heat and mass transfer in: turbulent external flows over plates and rounded surfaces, turbulent flow inside ducts and tubes. Turbulent convection in compressible flow.
067140
Faculty and Student discussions of advanced special topics in contemporary in mechanical engineering.
067198
067199
06-6201
Modern trends in engine design – Combustion chambers – Valve trains – Fuel injection systems – Electronic ignition systems – Motronic-type systems – Cooling and lubrication – Intake and exhaust tuning – Emission-control requirements
06-6205
The platform concept. Tires and wheels. Axle kinematics. Vehicle steering. Springing and damper systems. Four-wheel drive. Suspension design. Frame design and building.
06-6209
Vehicle Body Motion. Aerodynamics and Rolling Resistance Tires. Suspension Systems. Steering Systems. Brakes. Handling Requirements. Ride and Comfort. Noise, Vibrations, and Harshness (NVH).
06-6210
Causes of fire – Combustible materials – Stoichiometry of combustion – Prevention and extinguishing – Codes and standards
06-6211
Basic types of diesel engines – Fuel pumps – Injectors – Governors
06-6215
Engine parts – Engine tribology – Heat transfer and cooling systems – Noise and vibrations
06-6219
Combustion chambers – Operating conditions – Performance maps – Emissions – Super-and turbocharging – Condition monitoring – Testing – Maintenance
06-6220
Types of fuels – Stoichiometry – Thermodynamics of Combustion – Equilibrium – Flame propagation and flame quench – Droplet group combustion – Emissions
06-6221
Types of gas turbines – Fuel and ignition systems – Combustion chambers – Inlets and thrust nozzles – Compression and turbine wheels – Emissions
06-6225
Design considerations for gas turbine components – Multi-staging – Combustion requirements – Cooling requirements.
06-6229
Combustion requirements – Operating conditions – Matching problems and compressor surge – Cooling and lubrication – Noise and vibrations – Compounding – Emission control – Condition monitoring
06-6230
Combustion fundamentals – Emission formation – Effects of operating conditions – Emission dispersion – Emission standards, measurements, and testing – Emission-control systems
06-6297
Students shall conduct a real-life study applied to his/her engineering field of interest.
06-6220
Types of fuels – Stoichiometry – Thermodynamics of combustion – Equilibrium – Flame propagation and flame quench – Droplet group combustion – Emissions
06-6230
Combustion fundamentals – Emission formation – Effects of operating conditions – Emission dispersion – Emission standards, measurements, and testing – Emission-control systems
06-6241
Thermodynamic relations – Real-gas equations – Mixtures and solutions – Chemical reactions – Stoichiometry and adiabatic flame temperature – Gas tables and JANAF tables – Phase and chemical equilibrium – Association and dissociation – Simultaneous reactions.
06-6245
Modern fuel-injection systems – Electronic ignition – Heat release analysis – Knocking phenomena – Octane requirements – Chemical equilibrium of combustion – Emission formation.
06-6249
Injection transients – Spray atomization and ignition delay – Heat release analysis – Temperature fields in piston and combustion-chamber walls – Frictional losses – Flow through exhaust manifold and silencer design – Turbo-charging and part-load problems.
06-6251
Types of gas turbines – Types of diffusers – Design of turbine blades and compressor blades – Stage losses and multi-staging – Performance charts – Matching considerations.
06-6255
Basic concepts – Multi-dimensional compressible flow – Small perturbation theory – Method of characteristics – Waves in compressible flows.
06-6259
The course shall cover new topics at Master’s level in the areas of combustion and gas dynamics.
06-6261
Types of combustion chambers – Design of combustion chambers – Heat transfer and cooling – Fuel systems and atomizers – Flame stabilization – Emission control.
06-6265
Chemical thermodynamics – Orders of reactions and chemical kinetics – Multi-component reaction systems – Flame-propagation theories – Premixed laminar flames – Diffusion flames – Combustion stability and flame quench.
06-6269
This is a case-study course that applies numerical methods to various combustion and gas dynamic applications – Students shall develop their own computer program for solving the problems assigned – Students shall also use available packages.
06-6270
Experimental design and error analysis – Sensors – Digital signal processing and analysis – Flow visualization techniques- Combustion measurements – Wind tunnels.
06-6280
Stirling engines – Fuel – cell operated vehicles – Hydrogen-operated engines – Cryogenic engines – Hybrid vehicles – Solar-energy driven cars – Natural-gas engines – Latest advances in the field.
06-6298
03-06-6299
06-7271
Diesel injectors and nozzle types – Spray characteristics and droplet sizing – Spray penetration and air entrainment – Heat transfer and mass diffusion – Droplet burning and film combustion – Group combustion – Soot formation and particulate growth – Filters and trap regeneration – NOx formation and catalytic converters.
06-7275
Unsteady flow in ducts – The method of characteristics – Boundary conditions – Numerical procedures of solution – Case studies.
06-7279
The course will cover new topics not covered at Master’s level in the areas of Combustion and Gas Dynamics.
06-7280
Fundamentals of unsteady flow – Dynamic-pressure exchangers – Pressure-wave utilization in reciprocating-engine manifolds – Supercharging – Pulsating combustors – Pulse ejectors – Passive wave-energy converters.
06-7298
06-7299
066301
066302
066303
066304
066305
066306
066307
066308
066309
066310
066—-
066311
066312
066313
066314
066315
066316
066317
066318
066319
066320
066321
066322
066323
066324
066325
066326
066327
066328
066398
066399
Course is taken on a satisfactory/unsatisfactory basis.
067301
Introduction to the methods and analysis techniques used in computational solutions of fluid mechanics and heat transfer problems. Model problems are used to study the interaction of physical processes and numerical techniques. Contemporary methods for boundary layers, incompressible viscous flows, and inviscid compressible flows are studied. Finite differences and finite volume techniques are emphasized. Grid generation techniques are discussed.
067302
Inviscid flow concepts including: Euler equations, stream function, velocity potential, singularities, vorticity and circulation laws. Viscous flow topics include boundary layers, separation, and turbulent flow. In addition, external flows, lift and drag, thin airfoil theory, finite wing theory and airfoil design will be discussed.
067303
Design of experiments; Velocity, pressure, temperature, and flow measurements of liquids and gases, fundamentals of electronic signal processing and optics; and advanced experimental techniques, including laser-Doppler velocimetry, hot-wire anemometry, and thermocouples.
067304
Introduction to tubulence. Concepts of numerical accuracy and bandwidth are introduced. Solutions in differential form and wave space are studied. The numerical representation of turbulent transport, production, and dissipation are discussed. Techniques for the simulation and modeling of turbulent flows are described, including direct numerical simulation (DNS), large-eddy simulation (LES), Reynolds-averaged Navier-Stokes (RANS), and the probability-density-function (PDF) method. Homework topics include writing codes to solve isotropic turbulence using DNS, LES, and RANS methodologies.
067305
Derivation of the acoustic wave equation and development of solution techniques. Transmission and reflection from solids, plates and impedance boundaries. Radiation and scattering from non-simple geometries. Green’s functions; boundary element and finite element methods. Sound in ducts and enclosures. Introduction to structural-acoustic coupling. Automotive and other applications considered.
067306
Equation of motion. Types of bearings. Geometries of hydrostatic gas bearings. Performance improvement. Pressure distribution. load and discharge. Effect of different factors on bearing performance. Design procedure.
067307
Air pollution sources, atmospheric transport, transformations, fate, and emissions control. Air pollution meteorology, dispersion, chemistry of secondary pollutant formation, standards and regulation. Control devices and techniques for gaseous and particulate emissions. Cyclones, electrostatic precipitators, wet and dry scrubbers, combustion modification.
067308
Application of asymptotic methods to fluid mechanics with special emphasis on the method of matched expansions. Regular perturbation solutions; suppression of secular terms; method of multiple scales; boundary layer and low Reynolds number flows by inner and outer expansions; phenomena in rotating flows. Applications to computational fluid mechanics.
067309
An introduction to the theory of hydrodynamic stability with applications to stability of thermal flows, rotating and curved flows, wall bounded and free shear flows. Development of the asymptotic theory of the Orr-Sommerfeld equation. Review of the fundamental concepts and current work in nonlinear theory of hydrodynamic stability.
067310
Detailed study of fluid dynamics, boundary layer phenomena, and incompressible flows. Laminar and turbulent compressible free shear flow regions; effects of heat and mass transfer.
067311
This course will be designed to concentrate on one or more topics of interest to fluid engineers such as; Industrial noise, Cavitation, Hydraulic transients, environmental fluid mechanics, air pollution, Non Newtonian fluids. Drag reduction. Specifications and bids evaluation of hydraulic equipment.
067398
067399—-
Course is taken on a satisfactory/unsatisfactory basis.
06-6403
Passive circuits – Basic operational amplifiers – Digital representations – Design of logic networks – Sequential logic- Flip flops – Binary and decade counters – Schmitt trigger – Timers – Integrated circuit design – A/D and D/A converters – Multiplexers and demultiplexers
06-6404
Architecture – Microprocessor hardware – Memory organization – Assembly language and programming – I/O techniques – Timers and counters – Interrupts – Serial Communications – Real world interfacing to instruments, sensors, motors and data acquisition.
06-6405
Discrete state control- Logic gates – Ladder diagram- Relay sequencers- Processor, I/O modules- PLC operation and programming- Applications
06-6406
Basics of Robotics – Homogeneous transformation – Arm kinematics – Inverse kinematics – Arm dynamics – Trajectory planning – Robot control system – Position, speed and force control of robot grippers – Practical examples.
06-6407
Microcontrollers, families and architectures- Programming – Interface with real world- Design concepts of mechatronics systems- Case studies (Robots, CNC machines, furnaces, automotive, hydraulic systems).
06-6408
Input- output devices – Input/output processing – Data handling – Designing programs ( Temperature control, valve sequencing, car park barriers, production line control, fail-safe systems,…) – Testing and debugging
06-6411
Basic principles and sources of vibrations – Vibrations in buildings – Isolator selection – Plantroom design and installation techniques and instrumentations of vibration measurement – Vibration control.
06-6412
Vibration motion concepts – causes of vibration – maintenance, transmissibility, and impedance – sideband frequencies – Fourier analysis – vibration sensors – data acquisition – vibration monitoring – preventive maintenance program – vibration limits – machine performance criteria.
06-6413
Causes of vibrations – characteristics of vibration & shock – vibration measurements – transmissibility & impedance – isolation materials – principle of vibration isolation (thin visco-elastic layer, thick visco-elastic layer) – dynamics of the shock-and-vibration drive – problems of vibration isolation – Plant-room design & installation techniques.
06-6414
Mechatronics as interdisciplinary system- Digital systems – Signal processing and data acquisition systems – Sensors – Actuators – Design of mechatronic systems using PLC, PC, and microcontrollers (hardware and software).
06-6415
Vibration analysis (proximity analysis, frequency analysis, spectral analysis, and real time analysis) – Analyser selection – Data processing – Noise control – Case studies in vibrations.
06-6416
Inline forces – equations of in-line motion – solution of linearized equation of motion – oscillatory flow with zero mean flow – fluid force coefficients – lift force – vibrations induced by turbulence – vibration of a pipe containing a fluid flow – pipe whip.
06-6417
Errors and uncertainties- Characteristics of signals (periodic, transient, and random)- Basics of digital frequency- Analyzer( sampling, filter characteristics, common windows, uncertainties)- Accelerometer cross-axis sensitivity(single and triaxial)- Cross-axis resonance – Force transducer-structure interaction.
06-6421
Study of the types and properties of metals and alloys. Heat treatment. Polymers . Elastomers . Ceramics . Composites.
06-6422
Computer methods and graphics in engineering design process . Introduction to the finite-element method. Applications to the processes of design, operation, and maintenance . Programming project.
06-6423
Macro-mechanical behaviour of lamina – Micro-mechanical behaviour of lamina – Macro-mechanical behaviour of laminate – Mechanics of metal-matrix fibrous composites.
06-6424
Basic equations and plane elasticity theory – Brittle coating methods – Electrical resistance strain gages – Semiconductor strain gages – Analysis of strain gage data – Optical methods and basic optics – Moire method – Photoelasticity -
06-6425
Introduction to statistical mechanical Design – design for reliability – Cost evaluation – Reliability and cost – Engineering decision making in design process – Solving problems, and project planning – Case study.
06-6426
Factors affecting fatigue behaviour – Fatigue analysis of combined stress systems – Stress concentration – Crack propagation – Metallurgical aspects of fatigue.
06-6427
Kinematic models – Kinematic analysis of mechanisms – Geometric methods of synthesis – Algebraic methods of synthesis – Synthesis of spatial linkage.
06-6428
Conditions for crack growth – Stress intensity factor – Cracks in linearly elastic bodies – Cracks in elastic plastic bodies – Cracks in linearly viscoelastic media – Thermal problems in fracture mechanics – Dynamic problems in fracture mechanics.
06—6429
Importance of experimentation – Design and planning for an experiment – Experimental setup and accuracy control – Experimental errors – Propagation of errors – Statistical analysis of errors – Rejected and accepted data – Presentation and documentation of errors
06-6430
Introduction – Governing equations of lubricating film – Hydrostatic bearings (pad characteristics, optimisation, operation, and flow restrictors) – Hydrodynamic bearings (journal and thrust bearings, squeeze film bearings, and gas bearings)
06-6431
Surface qualities of mechanical parts – Contact of rough surfaces – Methods and instrumentations for measuring the properties of contacts – Calculation of the coefficient of friction and of wear rate. Wear of tribological joints – Choice of materials for rubbing parts.
06-6432
Liquid, solid, grease and gas lubricants – Additives – Selection of lubricant type – Oil and grease lubrication systems – System selection – Warning and protection devices – Lubricant change period and tests.
06-6434
Plain bearings (theory of hydrodynamic lubrication, thermal considerations, bearing under alternating loads, bearing vibrations, hydrostatic bearings, selection of bearing type, selection of bearing materials and dimensions and oil grade) – Antifriction bearings (types of antifriction bearings, selection of bearing type, estimation of bearing number, bearing mounting and installations) Bearing failure, repair, and maintenance (bearings and seals failure patterns, failure detection methods, repair of plain bearings, lubrication maintenance planning ).
06-6436
Lubrication and elasticity equations – Elastohydrodynamic theory – Lubrication of rolling contact bearings – Lubrication of gears – Measurements of film thickness and film shape .
06-6437
Reliability of systems ( serial systems, chain like systems, redundant systems) – Estimating reliability in mechanical wear – Estimating reliability by thermal resistance criterion – Calculation of reliability of machinery elements of specific groups – Reliability testing – Reliability of machines of individual groups.
06-6461
Basics of mathematical modeling – Experimental methods for modeling and identification – Physical analogies – Simulation and basics of parameter estimation methods – Recent simulation software and packages – Practical applications.
06-6462
Free & forced vibration of continuous systems, transient response of lumped parameter systems – critical speeds of shafts & rotor dynamics – gyroscopic effects of discs & rotor balance.
06-6463
Nonlinear oscillations (free and forced using graphical iteration, and perturbation methods)- Self excited vibrations – Hill and Mathieu equations – Stability analysis- Introduction to random vibrations.
06-6464
Discretization of continuous systems – z-transforms – Closed loop performance and stability- Digital controllers and filters – State Space analysis – – Pole placement and optimal regulators for discrete systems- Applications.
06-6465
State-Space system analysis – Controllability – Observability – Lyapunov stability- Pole placement – Design of servo systems – State observer – Quadratic optimal control – Design of control system with observer – Applications with MATLAB.
06-6466
Introduction to intelligent control – Fuzzy sets – Fuzzy relations – Rules – Fuzzy models – Structure and design of fuzzy controller – Advanced applications
06-6467
Principles of neural networks (types, architecture, activation functions,..) – Learning methods – Neural networks for control and modeling – Neuro fuzzy control systems – Advanced applications
06-6481
Types and applications of composite materials. Macro-mechanical and micro-mechanical properties of lamina . Macro-mechanical behaviour of laminate . Stresses in metal-matrix fibrous composites. Experimental methods for measuring the properties of composite materials.
06-6482
Theory of elasticity in two dimensions – Plane stress and plane strain – Two dimensional problems in rectangular and polar Coordinates – Stress measurement methods and instrumentation (strain gauge circuits, data analysis, recording instruments) – Optical methods of stress analysis – Theory of photoelasticity.
06-6483
Finite element analysis of beams – Element and interpolation functions – Plane stress – Finite element analysis of plates – Finite element analysis for elastic stability – Broader aspects of the finite element method- The finite element method in lubrication problems.
06-6485
Analysis of stress and strain in three dimensions – Equations of equilibrium – Conditions of compatibility – displacements – Plane stresses and strains in rectangular, polar, and curvilinear coordinates – Applications.
06-6487
Modes of lubrication (hydrodynamic and hydrostatic lubrication) – Reynold’ equation -Lubrication of mechanical components (plain bearings, rolling bearings, gears, chains, sliders, and wire ropes) – lubricants (types of lubricating oils and greases, solid lubricants, gas lubricants, and selection of lubricant type) – Lubrication systems.
06-6488
Hydrodynamic and hydrostatic bearings – gas bearings – Turbulence, inertia, and thermal effects – Dynamically loaded Bearings – Bearing stability – Porous bearings – Antifriction bearings – bearing materials – Lubricants.
06-6497
06-6498
06-6499
06-7401
Bending of plates with various edge conditions – Special and approx- imate methods in the theory of plates – Deformation of shells without bending – General theories of cylindrical spherical, and conical shells – General shells of revolution
06-7405
Fundamentals of continuum mechanics – Equations of plastic state – Equations of elastic plastic equilibrium – Plane stresses and strains – Behaviour of elastic plastic bodies under variable loads.
06-7410
Classification of viscoelastic materials – Creep and relaxation tests – Harmonic tests – Notation of time response – Analogous study of viscoelastic behaviour – Superposition principles of Boltzman.
06-715
Elastic buckling of bars and frames – Torsional and lateral bucking – Buckling of thin plates – Buckling of shells – Experiment and design formulas
06-7420
Recent advances in the area of mechanical design.
06-7450
Lagrange’s equation – ignorable coordinates – Hamiltonian mechanics – canonical transformations (Hamilton – Jacobi) – Theory of variational principles of mechanics – Stability of multi-degree-of-freedom autonomous systems – Nonautonomous systems- Perturbation techniques.
06-7455
Fundamentals of acoustics and vibrations – Spectral analysis – Active control of noise propagating in ducts – Active control of free field sound radiation – Vibration isolators.
06-7465
Nonlinearities in physical systems – Phase plane analysis – Transformation and scaling methods – Stability analysis (Lypunov’s first and second method, frequency domain methods – Equivalent linearization; harmonic response, K&B, Galerkin’s method, describing functions – Controller synthesis – Riccatti approach – Absolute stability approach
06-7470
Robustness – Gain scheduling – Optimal control – Model reference method – Lypunov design approach – Sliding control – Adaptation using artificial intelligence (fuzzy logic, neural network, and genetic algorithm).
06-7475
06-7480
06-7498
06-7499
For students working on an advanced research program leading to the completion of the Ph.D. dissertation.
03-06-6401
Electromagnetic principals – Solenoids and relays – DC motors – Stepper motors and drives – Piezoelectric actuators – Hydraulic actuators – Pneumatic actuators – Control of position and speed of motors.
03-06-6401
Electromechanical transducers – Error and uncertainties – Motion sensors ( resistance inductance, proximity, piezoelectric, eddy current, Hall effect, digital) – Force, torque and tactile sensors – Flow sensors ( differential pressure, hotwire, electromagnetic, Laser doppler) – Temperature sensors ( resistive, thermocouples, fiber optics, interferometrics,….) – Ultrasonic, fiber optics and range sensors .


