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Graduate Calendar Archives: 1998 / 1999 |
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Mechanical Engineering (University of Ottawa)University
of Ottawa The DepartmentChair of the Department, B.S. Dhillon Graduate Studies Officer, S. Tavoularis The Department of Mechanical Engineering is one of the two constituents of the Ottawa-Carleton Institute for Mechanical and Aerospace Engineering. Consult the Institute entry beginning on page 247 of this Calendar for a faculty list, graduate program descriptions, and admission requirements. Programs of research and study are offered in several areas. Most research projects in the Department are in the general fields of thermofluids, solid mechanics, materials and design, manufacturing, and industrial engineering. Members of the Department are engaged in research on the following topics: elasticity, plasticity, viscoelasticity, micromechanics of solids, stress analysis of shells, shell dynamics, strength of material, vibration, flow-induced vibration, photo-elasticity and experimental stress analysis, metal forming, plastic deformation and fracture of metals, ceramics and polymers, hot working of metals, welding, time and temperature dependent solid state processes, constitutive relations of plasticity and fracture, fibre composite material pressure vessels and high performance energy storage rotors, automated manufacturing of composites, two-phase heat transfer and fluid flow related to nuclear reactors, two-phase thermosyphons, swirling flow, turbulent flow structure, turbulent diffusion, flow and heat transfer in rod bundles, hemodynamics of cardiac assist devices, infiltration and stack effect in buildings, low Reynolds number flows, flow visualization, heat exchangers, power generation, battery and fuel-cell/flywheel hydrid power train design, liquid fuel combustion, alternate and broad-cut fuel I.C. engine design, integrated computer-aided design systems, computer-aided manufacturing and automation, computer control of mechanical systems, robot design and control, computer vision for control of machines, reliability modelling, human reliability, common-cause failures, transit system reliability, and power production system reliability. Research FacilitiesResearch is conducted in large, modern and well-equipped laboratories containing computerized engine test cells, wind tunnels, water tunnels, towing tanks, two-phase heat transfer and fluid flow loops, submerged arc welders, computer controlled filament winder, material testing apparatus including computer controlled tensile machine, hydraulic fatigue testing machine and impact tester, high-speed data acquisition systems, photo-elastic equipment, shaker table, high-speed rotor testing facility, a selection of mini-and micro-computers, a state of the art CAD/CAM facility, robots, computer controllers, computer controlled machine tools, and a low temperature facility. An AMDAHL 5880 computer is available for advanced degree work. Graduate CoursesNot all of the following courses are offered in a given year. For an up-to-date statement of course offerings for 1998-99, please consult the Registration Instructions and Class Schedule booklet published in the summer. Engineering
89.501 (MCG5101) Analysis of stress and strain. Stress and strain tensors. Yield criteria laws of elasticity and general theorems. Stress functions. Two-dimensional problems in rectangular and polar coordinates. Applications in plates and shells. Strain energy techniques. Application of numerical analysis to elasticity problems. Engineering
89.502 (MCG5102) Solutions to special beam problems including beams on elastic foundations, curved beams, multi-span beams, etc. as well as some axisymmetric problems. The significance of assumptions is discussed and solution techniques including series solutions and energy methods are utilized. Engineering
89.503 (MCG5103) Inelastic behaviour, model materials. Yield criteria and flow laws. Energy principles. Contained plastic deformation. Plane strain. Slipline fields. Applications to metal-forming processes. Engineering
89.504 (MCG5104) A general coverage of various approaches to plate problems and the application of these methods to practical cases. A study of the theory of shells including deformation of shells without bending, stresses under various loading conditions, general theory of shells, shells forming surfaces of revolution. Engineering
89.505 (MCG5105) Fundamental equations of continuum mechanics. Thermodynamics of continua. Rheological equations. Hamiltons principle for continua. Analytical solution of some elasticity and incompressible fluid dynamic problems. Extension to viscoelasticity and plasticity. Sound waves. Shock waves. Numerical methods of solution. Engineering
89.506 (MCG5106) Algebraic computation software. Curved solids. Governing equations of planar elastostatics in Cartesian coordinates. Governing equations of plates. Linear shell theory in curvilinear coordinates. Introduction to non-linear elastostatics. Non-linear shell theory. Instability of cylindrical shells. Thick and thin shell elastodynamics. Engineering
89.507 (MCG5107) Review of Euler/Newton and DAlembert formulation, Euler Angles, Gyrodynamics, analysis and response of rotating machinery. Lagrangian dynamics, generalized coordinates, virtual work, generalized forces and the power function. Determination of system constraint forces and equilibrium. Emphasis will be on modelling and formulation of multi-degree-of-freedom vibrational, electro-mechanical, two- and three-dimensional dissipative systems, and other engineering applications. Engineering
89.508 (MCG5108) Review of matrix algebra and structural mechanics. Direct and variational approaches in the FE analysis of a continuum. Elastic plane stress, plane strain, axisymmetric and three-dimensional elasticity. Elementary FE programing. Isoparametric concept, conforming and non-conforming elements. Thin and thick plates. Thin and thick shells, axisymmetric shells. Steady-state field problems. Intermediate FE programing. Introduction to FE software. Applications in mechanical engineering. Engineering
89.509 (MCG5109) Finite elements and their solution techniques. Multilayered plate, shell and continua. Eigenvalue and transient analysis, material and geometric non-linearities. Applications to fracture mechanics. Steady and transient state heat conduction. Potential flow. Creeping flow and incompressible viscous flow with inertia. Engineering
89.510 (MCG5110) Introduction. Cartesian tensor notation. Continuum mechanics versus probabilistic micromechanics. Analysis of stress and strain. Analysis of motion. Classes of materials in micromechanics. Random theory of deformation. The stochastic deformation process. Application to classes of materials in micromechanics. Application to classes of structured solids. Experimental approaches. Engineering
89.511 (MCG5111) Review of thermodynamics of perfect gases. Conservation equations for compressible flows. Gas flow regimes. Wave propagation in compressible media. Isentropic flow. One-dimensional unsteady flow: method of characteristics. Normal and oblique shock waves. Prandtl-Meyer expansion fans. Nozzle, wind tunnel, shock tube, diffuser and airfoil applications. Ideal gas flow in ducts of variable section, friction, heat addition and heat loss. Multi-dimensional flow and methods of characteristics. Imperfect gas effects, dissociation and ionization. Methods of measurement. Engineering
89.514 (MCG5114) Principles of design, materials, preliminary layout. Elastic analysis of axisymmetric shells. Discontinuity analysis. Numerical methods, nozzle-shell analysis. Plastic collapse, fatigue, fracture, creep, buckling. Engineering
89.515 (MCG5115) Formulation of optimization problems. Unconstrained optimization: direct search techniques, gradient techniques. Constrained optimization: by unconstrained minimization, by direct methods. Mathematical programing. Geometric programing. Dynamic programing. Examples and applications in Mechanical Engineering topics. Engineering
89.517 (MCG5117) Review of strengthening mechanism in metals and polymers. Fibre-reinforced composite materials: strengthening mechanisms, prediction of strengths and moduli, specific properties, fracture mechanisms, toughness, fatigue, creep, effect of environment; fabrication methods and engineering applications. Laminates; mechanical properties and engineering applications. Engineering
89.518 (MCG5118) The analysis of stress and strain in elastic and plastic continuum. Time independent plastic deformation. The microscopic basis of plastic behaviour. Rate dependent deformation. The effect of temperature. Materials testing. Applications. Engineering
89.519 (MCG5119) Stress concentration in elastic and plastic media. The energy condition, crack resistance, compliance, the J. integral. Crack arrest. Plain strain and plain stress behaviour. The microscopic aspects of crack propagation. The effect of temperature. Fatigue, stress corrosion cracking, and creep fracture. Probabilistic fracture. Engineering
89.526 (MCG5126) The deformation and fracture properties of metals, ceramics and polymers are investigated in low temperature engineering environments. The principles of atomic bond breaking processes as the fundamental physical process of deformation and fracture are studied. Deformation kinetics analysis. Introduction to dislocation theory. The rheological models. The analysis and interpretation of constant strain rate, constant stress and stress relaxation tests in terms of the material structure. Thermal activation analysis. Cyclic loading, hydrostatic pressure effects. The principles and practice of short-term testing and analysis. Engineering
89.529 (MCG5129) High temperature mechanical properties in metals. Types of recovery, recrystallization and precipitation in metals and their effects on hot strength and structure. Hot rolling of metals. Selection of rolling schedules. Influence of as-rolled structure on room temperature mechanical properties such as yield, tensile and fracture stresses, impact strength. Roll force calculation. Problems and defects in rolling. Engineering
89.531 (MCG5131) Steady one-dimensional systems. Differential equations of Bessel and Legendre. Extended surface. Fourier series and integration of partial differential equations. Steady two-dimensional systems. Steady-state numerical methods. Steady heat source systems. Steady porous systems. Transient systems; heating and cooling, unsteady boundary conditions, stationary and moving sources. Transient numerical method. Experimental analogic method. Engineering
89.532 (MCG5132) General problems of convection. Fundamental equations. Boundary layer equations. Forced convection in laminar flow. Forced convection in turbulent flow. Free convection. Condensing and boiling. Heat transfer to liquid metals. Heat transfer in high-speed flow. Special topics. Engineering
89.533 (MCG5133) Thermal radiation and radiation properties. Radiant interchange among surfaces separated by radiatively non-participating media. Radiant energy transfer through absorbing, emitting and scattering media. Combined conduction and radiation. Combined convection and radiation. Engineering
89.534 (MCG5134) Pool boiling. Hydrodynamics of two-phase flow. Flow boiling and flow boiling crisis. Instability of two-phase flow. Condensation. Engineering
89.536 (MCG5136) Current topics in the field. Engineering
89.537 (MCG5137) Current topics in the field. Engineering
89.538 (MCG 5138) Current topics in the field. Engineering
89.541 (MCG5141) Kinetic theory of an ideal gas. The distribution of molecular velocities. Transport phenomena. Maxwell-Boltzmann statistics. Quantum mechanics. Quantum statistics. Partition functions. Partition functions and thermodynamic properties. Derivations of specific heats of gases. Gas mixtures. Law of mass action. Engineering
89.548 (MCG5551) Dérivation des solutions exactes des équations de Navier-Stokes. Écoulement à petit nombre de Reynolds. Écoulement de Stokes. Écoulement dOseen. Théorie de lubrification. Couches limites laminaires. Introduction à la stabilité hydrodynamique. Engineering
89.549 (MCG5552) Révision des théories fondamentales et des résultats expérimentaux des écoulements turbulents. Théorie universelle de léquilibre, théorie isotropique locale. Turbulence isotropique, contrainte homogène des écoulements, écoulements turbulents dans les tuyaux et les canaux, jets, sillages, couches limites. Diffusion turbulente. Modèles de turbulence. Engineering
89.550 (MCG5557) Équations primitives. Méthodes de base à différences finies. Méthodes intégrales. Critère de stabilité. Calcul des écoulements transitoires laminaires tri-dimensionnels. Méthodes MAC de Los Alamos. Calcul des écoulements multidimensionnels turbulents. Modèles de turbulence différentielle (K-E). La méthode numérique de Gosman. Exemples de programmation et de vérification des problèmes exemples. Engineering
89.551 (MCG5151) Derivation and exact solutions of the Navier-Stokes equations. Low Reynolds number flows, Stokes flow. Oseen flow, lubrication theory. Laminar boundary layers. Introduction to hydrodynamic stability. Engineering
89.552 (MCG5152) Review of the basic theories and experimental results of turbulent flow. Universal equilibrium theory, locally isotropic theories, isotropic turbulence, homogeneous shear flow, turbulent pipe and channel flow, jets, wakes, boundary layers. Turbulent diffusion of passive contaminants. Modelling of turbulence. Engineering
89.555 (MCG5155) Langrangian and Eulerian description of fluid motion. Euler equations, velocity potential, irrotational flow, stream function, singular flows. Conformal mapping, Schwarz-Christoffel theorems. Airfoil theory, circulation and lift. Engineering
89.556 (MCG5156) Review of the common experimental techniques used in fluid mechanical research and applications. Flow visualization techniques. Hot-wire anemometry. Laser-Doppler anemometry. Measurement of concentration, temperature, force, pressure. Engineering
89.557 (MCG5157) Governing equations for fluid flow, heat transfer, and chemical species. Explicit, implicit, finite difference and control volume procedures for approximating the parabolic and elliptic sets of partial differential equations and boundary conditions. Numerical solution by direct and iterative Gauss-Seidel relaxation methods. Considerations of stability, convergence, and numerical diffusion. Computational problems. Engineering
89.558 (MCG5158) Application of simple flows to analysis of more complex systems. Pipe and duct systems, flow separation and control, aerosols, separation of particulates from flow, cavitation, unsteady flow. Engineering
89.559 (MCG5159) The principles of production management. Methods engineering, manufacturing control. Recording and evaluation of operations. Financial and production planning. Inventory control. Automation. Factory planning. Engineering
89.561 (MCG5161) Thermodynamic considerations. Physiological reactions of humans to different environments. Principles of ventilation, distribution and cleaning of air. Illumination and acoustics. Engineering
89.568 (MCG5168) Principles of organization. Production processes. Organization and planning production. Evaluation of production activities. The economics of production. Planning for economy. Information engineering. Standardization. Engineering
89.569 (MCG5169) Overview of classical reliability concepts. Fault tree construction and evaluation. Common-cause failure analysis of engineering systems. Human reliability modelling in engineering systems. Human unreliability data banks. Three state device systems. Delta-star and Mellin transforms reliability determination techniques. Models to compute reliability of on-surface transportation vehicles. Reliability techniques applications in advanced engineering systems. Engineering
89.570 (MCG5170) Current technologies of CA drafting: hardware and software. Design software description: optimization, analysis, and graphical representation. Current technologies of CAM hardware (NC machines, robots, and automated transportation systems) and computer-process interface and control. Introduction to group technology, CA process planning, and CA quality control. Course is project oriented with hands-on experience. Engineering
89.571 (MCG5171) Coherent systems. Paths and cuts representation. State-space representation. Observability and controllability. Failure rate. Repair time. System reliability estimation: binomial model. Strength stress model. Failure detection and isolation. Multiple sensors. Model based methods. Expert system approach. Analytical redundancy. Applications. Engineering
89.572 (MCG5172) Administrative concept of automation, robotics and numerical control; elements of flexible manufacturing systems. Process design in automation. Role of automation in the administration of manufacturing and project engineering. Optimization in the design of computer assisted manufacturing (CAM). State of art review. Engineering
89.573 (MCG5173) State space representation. Observability, controllability, state estimation. Parameter identification. Steady-state and transient performance. Stability. Monitoring and regulation. Discretization effects. System integration. Bandwidth coordination. Technological systems design examples. Engineering
89.576 (MCG5176) Concept, analysis and design of classical and modern industrial control systems: classical control systems; design of electro-mechanical servo-systems and process controllers. Modern control system applications; basic techniques in the use of microprocessors. Microprocessor/microcomputer based control systems for robotics, automation, manufacturing and instrumentation applications. Design project of industrial control and automation systems. Not accessible to students who have taken MCG 4108. Engineering
89.577 (MCG 5177) Robotics overview. Transformations. Basics of robot kinematics, statics and dynamics. Introduction to practical robots, control and programing. Project in analysis, design or application of manipulators. Not accessible to students who have taken MCG 4132. Engineering
89.578 (MCG5178) Overview of totally integrated CAD/CAM systems. Details of design and manufacturing software tools. Methods of linking design and manufacturing tools to form an integrated CAD/CAM system. Students will undertake projects which will provide them with hands-on experience. Engineering
89.579 (MCG5179) Types of manufacturing systems. The concept of flexible manufacturing. Overview of the basic components of flexible manufacturing systems: NC machine tools, programable manipulators, guided vehicles, storage and retrieval warehouses. Machine cells. System layout and reliability. Group technology. Workpieces and tools routing. Operations sequencing. Engineering
89.580 (MCG5180) Computer automated manufacturing techniques. Advanced topics in lamination theory. Interlaminar stresses and free edge effects. Lamina and laminate failure theories. Principles of non-destructive testing including damage assessment. Mechanics and failure of particle, flake, thermoplastic and metal matrix composites. Engineering
89.581 (MCG5181) Kinematics of vibrations, the single-degree-of-freedom system, without and with damping, two degrees of freedom, several degrees of freedom, vibration of shafts, critical speeds, complex presentation, influence coefficients, matrix method, stability of solution, approximate methods. Engineering
89.582 (MCG5182) Considerations of instability with respect to small deformation. Differential equations for linear elements. Conservative and non-conservative force systems. Energy methods. Instability due to torsional and lateral forces in beams. Instability of elements curved in a plane. Applications of trigonometric series in the above problems. Stability of linear members in the inelastic zone. Engineering
89.585 (MCG5185) Quantization. Z-Transform. State equations. Jordan canonical form. Multirate and nonsynchronous samplings. Controllability and observability of digital systems. Digital controllers design using bilinear transformation. Digital PID controller. Stability. Optimal control of digital systems. Examples of controlling mechanical system actuators. Engineering
89.586 (MCG5186) Hamiltonian dynamics. Hamiltonian control systems. Lyapunov dynamics. Decoupling. Phase space analysis. Switching and sliding mode control. Boundary layer continuous approximation. Actuator, sensors and controller requirements.Manipulation control examples. Engineering
89.591 (MCG5191) Stoichiometry, thermo-chemistry, ignition, flame propagation, flame stabilization, diffusion flames, turbulent combustion, modelling. Engineering
89.592 (MCG5192) Gaseous jet flames, combustion of liquid droplets, atomization, spray flames, coal combustion, fluidized bed combustion. MCG 6000 For students in the course work masters program working on the Engineering Report. MCG 7999 For students working towards their masters thesis. MCG 9997 Following completion of the comprehensive examination, registration required for all Ph.D. candidates until the thesis proposal is accepted by the advisory committee. MCG 9998 Registration required for all Ph.D. candidates until the comprehensive examination is passed. MCG 9999 For students working towards their Ph.D. thesis. |
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