Master of Science in Mechanical Engineering

Course Code

Course Title

Credits Hours

0408501

Engineering Analysis

3

0408502

Computational Methods in Engineering

3

0408503

Data Collection and Analysis

3

0408501

Engineering Analysis

This course covers mainly three topics: Matrix Analysis; Solution Methods for Systems of Linear Equations, Rectangular Systems and Echelon Forms, Norms, Inner Products, Orthogonality, Determinants, Eigenvalues and Eigenvectors. Integral Transforms: Fourier Integrals, Fourier Transform, Applications To Boundary Value Problems. Laplace Transform and Applications to Initial Value Problems. Calculus of Variations; Functions & Functionals, The Euler – Lagrange Equation, Functionals With Higher Derivatives, Functionals in Two Dimensions, Constrained Extremization, The Sturm-Liouville Problem, Rayleigh-Ritz Method, Approximate Solutions of Differential Equations, Finite Element and Galerkin Methods, Hamilton Principle, Conservative Forces. Other topics include Tensor and Special Functions.

0408502

Computational Methods in Engineering

This course is intended to be a core course in computational methods for mechanical engineering graduate students, to gain a sound knowledge of the fundamental principles that provide the foundation for the software used in mechanical engineering. Topics include finite difference, finite volume and finite element techniques, discretization methods and applications to model equations, application of numerical methods to elliptic, parabolic and hyperbolic equations.

0408503

Data Collection and Analysis

Introduction to research methodologies; formulating a research proposal: formulate a research question, conduct literature review, choose appropriate research methodology; data collection: interview, questionnaire, observation, etc.; data analysis, quantitative and qualitative; writing research proposal/reports and research papers; ethics in research, research case studies.

Course Code

Course Title

Credits Hours

0408510

Viscous Fluid Flow

3

0408511

Advanced Thermodynamics Engineering

3

0408512

Convective Heat Transfer

3

0408513

Conduction and Radiation Heat Transfer

3

0408514

Advanced Heating, Ventilation, and Air-Conditioning Systems

3

0408515

Advanced Refrigeration Systems

3

0408516

Advanced Internal combustion Engines

3

0408521

Theory of Elasticity

3

0408522

Vibration Analysis

3

0408523

Computer Aided Analysis of Multi-Body systems

3

0408525

Modeling and Simulation

3

0408527

Advanced Robotics

3

0408531

Engineering Nanomaterials

3

0408532

Materials Failure Analysis

3

0408533

Advanced Engineering Materials

3

0408534

Materials Characterization

3

0408535

Advanced Manufacturing Processes

3

0408541

Membrane Technology and Application

3

0408542

Thermal Desalination

3

0408510

Viscous Fluid Flow

Equation of motion for viscous flow, exact solutions of Navier-Stokes equations. Creeping flow: Stokes and Oseen solutions, lubrication theory. Boundary layer theory: similarity solutions, approximate methods of solution, numerical methods of solution, stability, turbulent boundary layers. Introduction to compressible boundary layer flows.

0408511

Advanced Thermodynamics Engineering

Review of the laws of thermodynamics, entropy generation, entropy generation minimization, single-phase systems, exergy analysis, multiphase systems, chemically reactive systems, classical thermodynamics of a general reactive 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; multicomponent systems; multiphase systems including phase equilibrium; chemical reactions.

0408512

Convective Heat Transfer

The fundamental theory and engineering applications of convective heat transfer: governing Equations of Fluid Flow and Heat Transfer, Heat Transfer in Laminar Flows: scaling analysis, boundary layers, duct and tube flows, natural convection, Heat Transfer in Turbulent Flows: turbulence, time averaged equations, turbulence modeling; application to special cases such as boundary layers, pipe flow, natural convection, Jets, plumes and wakes. Convection with phase change: Boiling and condensation. Numerical Methods for Heat Convection: similarity solutions and Runge-Kutta methods, finite difference and finite volume schemes.

0408513

Conduction and Radiation Heat Transfer

The fundamental theories and engineering applications of heat conduction and thermal radiation: Steady and transient heat conduction; governing equations, solution methods and applications, fundamentals of radiative energy transport, radiative exchange between surfaces, radiative heat-transfer in absorbing-emitting-scattering media.

0408514

Advanced Heating, Ventilation, and Air-Conditioning Systems

In this course, an engineering approach is followed to achieve an energy balance of buildings according to the relevant standards. A systematic design approach of various HVAC systems (all air, air-water, and all water systems) is presented. HVAC system selection procedure and rules are presented according to client requirements, climate conditions, and building configurations. Computer-Aided Engineering (CAE) software packages are introduced in the HVAC course to enhance the design and analysis of HVAC in many aspects such as comfort factors, air circulation, temperature, pressure, velocity, noise, and energy.

0408515

Advanced Refrigeration Systems

This course presents the analysis and design of various refrigeration systems, considering the knowledge gained in the undergraduate related courses. It also introduces learning about cryogenic properties and cryogenic system applications in various fields. Obtain depth of knowledge in the application of refrigeration systems in food processing, drying, and transportation is another goal in this course. The next objective is analyzing and evaluating the equipment and accessories projected to remove heat from large-scale processes or materials, lowering the temperature to the desired value in the industrial applications.

0408516

Advanced Internal combustion Engines

In this course, the knowledge of the most recent technologies in the automotive industry for gasoline and diesel engines is presented. The fundamental of thermodynamics, kinetic chemistry, and heat transfer that are related to ICE will also be presented. The formation of tailpipe emissions of engines is described, and a systematic approach is presented for verifying the conformity with emission standards and related regulations.

0408521

Theory of Elasticity

Mathematical background for the formulation of elasticity; deformation, strain and displacement, strain compatibility; stresses and equilibrium; linear elastic material behaviour, Hook's law, non-homogeneous, anisotropic, and thermoelastic constitutive forms; displacement and stress formulations, general solution strategies; strain energy, reciprocal theorem, virtual work, minimum potential and complimentary energy; two-dimensional formulations of plane strain and stress; torsion, and flexure problems.

0408522

Vibration Analysis

Multi-degree of freedom discrete systems, continuous systems, approximate methods, finite element method, vibration control, random vibration, nonlinear vibration, introduction to human responses to vibration.

0408523

Computer Aided Analysis of Multi-Body systems

Kinematics, dynamics, analysis of flexible mechanisms. Constrained mechanical systems with flexible components. Numerical methods. Computer-Aided Analysis. Applications. Large scale deformable bodies. Finite element method. Constrained motion of interconnected rigid and deformable bodies. Coordinate reduction. Computational methods. Applications using computer software, e.g. ADAMS.

0408525

Modeling and Simulation

This course covers three main areas: modelling, simulation, and identification. It presents several modelling methodologies that can be used for mechanical systems. This will cover mathematical and graph models. Software tools, such as MATLAB/Simulink and/or LABVIEW, will be used to simulate the systems and analyze the responses. Also, an introduction to system identification will be provided.

0408527

Advanced Robotics

This course covers industrial robotics systems. It starts with classifying the manipulators, defining their parameters, forward and inverse kinematic, equation of motion, path planning, sensors, and controlling the system. Several nonlinear control techniques will be taught, i.e. sliding mode control. Software tools, such as MATLAB/Simulink and/or LABVIEW, will be used to simulate the systems and analyze the responses.

0408531

Engineering Nanomaterials

This course provides the student with an understanding of the fundamental aspects related to nanomaterials including their classification, synthesis and processing, characterization, property measurements, performance evaluation and applications.

0408532

Materials Failure Analysis

Foundation of failure mechanisms and analysis, stress, fatigue, creep and corrosion failures. Stress/strain response and the initiation and propagation of crack, influence of severe environment, Analyze and interpret cause of failure of an engineering structural component using fractography examination.

0408533

Advanced Engineering Materials

Introduction to Materials Engineering (Crystal structures, Diffusion in metals, Solidification of metals, Equilibrium diagrams, Heat treatment of metal alloys, Defects in materials, Strengthening of materials), Principles of Advanced Engineering Materials - Properties and applications of advanced ceramics, polymers, composites, semiconductors, biomaterials, and what we may term materials of the future (i.e., smart materials and nanoengineered materials). Materials selection, relationships between structure and mechanical properties. Aluminum alloys, magnesium alloys, titanium alloys, high strength steels, nickel-base and cobalt-base superalloys, fibers.

0408534

Materials Characterization

This course introduces the fundamental theoretical framework for materials characterization techniques and provide an understanding of advanced materials characterization techniques to the students, to be able to use different techniques for characterizing advanced engineering materials, to develop the ability to utilize appropriate characterization techniques in research and provide a foundation for advanced courses in materials science and engineering. Course content includes diffraction, spectroscopy and imaging methods used in the structural and compositional characterization of engineering materials. Thermal and electrochemical analysis are also covered. Recent developments in a wide range of experimental techniques and their application to the quantification of materials properties.

0408535

Advanced Manufacturing Processes

This course provides the student with an understanding of the fundamental aspects related to manufacturing processes including their classification, major conventional manufacturing processes, additive manufacturing, micro and nanoscale manufacturing.

0408541

Membrane Technology and Application

Introduction to Membrane Synthesis, Fabrication Processes for Polymeric Membrane, Fabrication Processes for Inorganic Membrane, Fabrication of Polymeric and Composite Membranes, Surface Modification of Inorganic Materials for Membrane Preparation, Fabrication of Low-Fouling Composite Membranes for Water Treatment, Introduction to Membrane Characterization, Spectroscopy Methods for Membrane Characterization, Microscopy Methods for Membrane Characterization, Physical and Chemical Characterization Methods for Membrane Characterization, Mechanical Properties Characterization of Membranes.

0408542

Thermal Desalination

The course describes the science and technology of thermal desalination processes. It addresses technical and economical parameters of both commercial operating and new technologies. It covers the recent developments, areas to enhance efficiencies, reduce water production cost and CO2 emission. The course also covers: the conventional thermal technologies; MSF, MED and VC, Hybrid, tri-Hybrid and Integrated Technologies, New Technologies Analysis (H-DH, MD), Power-Desalination Cogeneration Analysis, Solar and Nuclear Desalination, Related issues; scale, corrosion, material used and Brine Management and Environmental Impact and Enhancing Desalination Processes Performance.