Mechanical Engineering Course Descriptions
Core and
Common Courses
MECH 6300
Linear Systems (3
semester hours) State space methods of analysis and design of linear dynamical
systems. Coordinate transformations, controllability and observability.
Lyapunov
stability analysis. Pole assignment, stabilizability, detectability. State
estimation for deterministic models, observers. Introduction
to the optimal linear quadratic regulator problem. Prerequisites: MECH
4310 or equivalents (3-0) Y
MECH 6303 Computer Aided
Design (3 semester
hours) This course provides an introduction to design principles and
methodologies for geometrical modeling, curve and surface fitting in an
automated environment, CAD/CAM simulation of manufacturing, and computer-aided
solid modeling. Prerequisites: MECH 3305 or equivalent. (3-0) Y
MECH 6306 Continuum
Mechanics (3 semester
hours) This course provides an introduction to
continua within a rigorous mathematical framework. Topics of interest include
elements of Cartesian tensors, analysis of stress, kinematics, analysis of
deformation, and constitutive equations. Other areas of discussion focus on
material anisotropy, mechanical properties of fluids and solids, derivation of
field equations, boundary conditions, and solutions of initial and boundary
value problems for material continua. Prerequisites: MECH 3301 or equivalent
(3-0) Y
MECH 6307 Thermal and
Energy Principles (3
semester hours) This course provides an extended treatment of the fundamentals of thermodynamics as related to energy
conversion, storage, transmission and use. Industrial topics may include: conventional and sustainable power generation or
efficiency in refrigeration, air-conditioning and heating applications. Further
applications may include: studies of internal combustion engines, heat pump
systems, and other energy conversion machines. (3-0) Y Prerequisites: MECH 3320, MECH 3315 or
equivalents
MECH 6391 (EEGR6381) Computational Methods (3 semester hours) Numerical techniques
and their applications in engineering. Topics will include: numerical methods
of linear algebra, interpolation, solution of nonlinear equations, numerical
integration, Monte Carlo methods, numerical solution of ordinary and partial
differential equations, and numerical solution of integral equations.
Prerequisites: ENGR 2300 and ENGR 3300 or equivalents, and knowledge of a
scientific programming language. (3-0) R
MECH 6V97 Research In Mechanical Engineering (3-9 semester hours) (May be repeated for credit.) For pass/fail credit only. ([3-9]-0) R
MECH 6V98 Thesis (3-9 semester hours) (May be repeated
for credit.) For pass/fail credit only. ([3-9]-0) R
Dynamic
Systems and Controls (DSC)
MECH
6311 Mechanical Vibrations (3
semester hours) Fundamental phenomena of multi-degree discrete and continuous
systems. Matrix methods of solutions of discrete systems. Determination of natural frequencies and mode shapes of discrete
and continuous systems. Passive methods of vibration control. Applications of finite element methods to analysis of mechanical
vibrations. Prerequisite: MECH 4340 or equivalent. (3-0) T
MECH 6312 Stochastic
Processes (3 semester
hours) Introductory course to discrete and continuous
stochastic process. Spectral analysis, response of linear
systems to stochastic inputs. Introduction to estimation theory, Kalman filtering. Prerequisite: MECH 6300 or equivalent.
(3-0) T
MECH 6313 (EEGR 6336)
Nonlinear Systems (3
semester hours) Fundamental concepts and tools for the analysis of nonlinear
systems, design of controllers and estimators for nonlinear systems.
Prerequisite: MECH 6300 or equivalent. (3-0) T
MECH 6323 Robust Control (3 semester hours) Theory, methodology,
and software tools for the analysis and design of model-based control systems
with multiple actuators and multiple sensors. Control oriented model
parameterizations and modeling errors. Definitions and
criteria for robust stability and performance. Optimal
synthesis of linear controllers. The loop shaping
design method. Methods to simplify the control law.
Control law discretization. Mechatronic design examples. Prerequisites: MECH
6300 or equivalent. Co-requisite: MECH 6311 or equivalent. (3-0) T
MECH 6324 Robot Control (3 semester hours) Dynamics of robots;
methods of control; force control; robust and adaptive control; feedback
linearization; Lyapunov design methods; passivity and
network control; control of multiple and redundant robots; teleoperation.
Prerequisite: MECH 6300. (3-0) T
MECH 6V29 Special Topics
in Controls and Dynamic Systems (1-6 semester hours) (May be repeated to a maximum of 9 hours.)
For letter grade credit only. ([1-6]-0) R
Manufacturing
and Design Innovation (MDI)
MECH 6330 Multiscale Design & Optimization (3 semester hours) Multi-scale systems
consist of components from two or more length scales (nano,
micro, meso, or macro-scales). The challenge is to
make these components so they are conceptually and model-wise compatible with
other-scale components with which they interface. This course covers the
fundamental properties of scales, design theories, modeling methods and
manufacturing issues which must be addressed in these systems. Examples include
precision instruments, nanomanipulators, fiber
optics, micro/nano-photonics, nanorobotics,
MEMS, carbon nano-tube assemblies. Prerequisite: MECH
6303 (3-0) T
MECH 6333 Materials
Design & Manufacturing (3
semester hours) This course provides an in-depth
analysis of design problems faced in the development and mass manufacture of
advanced materials. This course will explore the interplay among mathematical
modeling, CAD, mold creation and manufacturing processes for polymers, ceramics
and metals. Tradeoffs among various thermomechanical properties, cost and aesthetics will be studied.
Prerequisite: MECH 6303 (3-0) T
MECH 6341 Micro &
Nano Manufacturing (3
semester hours) This course surveys techniques to fabricate and analyze
micrometer, submicron, and nanometer structures, with applications. Additional
topics that are covered include: surface characterization, preparation, and
measurement techniques, resist technology, optical projection, interferometric, X-ray, ion, and electron lithography;
Aqueous, ion, and plasma etching techniques; lift-off and electroplating; and
ion implantation. Applications in microelectronics, microphotonics,
information storage, and nanotechnology will also be explored. (3-0) T
MECH 6347 (EEMF 6382, MSEN 6382) Introduction to MEMS (3 semester
hours) Study of micro-electro-mechanical devices and systems and their
applications. Microfabrication techniques and
other emerging fabrication processes for MEMS are studied along with their
process physics. Principles of operations of various MEMS devices such as
mechanical, optical, thermal, magnetic, chemical/biological sensors/actuators
are studied. Topics include: bulk/surface micromachining, LIGA, microsensors and microactuators
in multi-physics domain. (3-0) R
MECH 6348 (EEMF 6322, MSEN 6322) Semiconductor Processing Technology (3
semester hours) Modern techniques for the manufacture of semiconductor devices
and circuits. Techniques for both silicon and compound semiconductor
processing are studied as well as an introduction to the design of experiments.
Topics include: wafer growth, oxidation, diffusion, ion implantation,
lithography, etch and deposition. (3-0) T
MECH 6V49 Special Topics
in Manufacturing and Design Innovation (1-6 semester hours) (May be repeated to a maximum of 9 hours.)
For letter grade credit only. ([1-6]-0) R
Mechanics and
Materials (MM)
MECH 6350
Mechanics of Solids and Structures (3 semester hours) This course provides
a fundamental basis from which to explore mechanical behavior of materials at
the macroscopic level and the relationship of mechanical behavior to material
structure and mechanisms of deformation and failure. Topics covered include
elasticity, elastic stability, wave propagation, plasticity, and fracture. This
course explores static and dynamic stress analysis, two- and three-dimensional
theory of stressed elastic solids, analyses of structural elements with
applications in a variety of fields, variational
theorems and approximate solutions. Prerequisite: MECH 6305 or equivalent.
(3-0) T
MECH 6353 Computational
Mechanics (3 semester
hours) This course provides an introduction to the use
of numerical methods in the solution of solid mechanics and materials problems.
Geometrical representation of solids. Automatic meshing. Approximation theory.
Interpolation error estimation. Optimal
and adaptive meshing. Variational principles in linear elasticity. Finite
element analysis. Error estimation. Convergence. Singularities. Adaptive strategies. Constrained problems.
Mixed methods. Stability and
convergence. Variational problems in nonlinear elasticity. Consistent
linearization. The Newton-Rahpson
method. Bifurcation analysis. Adaptive strategies in nonlinear elasticity. Constrained finite deformation problems. Contact
and friction. Time integration. Algorithm analysis. Accuracy, stability,
and convergence. Operator splitting and product
formulas. Coupled problems. Impact
and friction. Subcycling. Space-time methods. Inelastic solids. Constitutive updates. Stability
and convergence. Consistent linearization. Applications to finite deformation viscoplasticity,
viscoelasticity, and Lagrangian modeling of fluid
flows. MECH 6305 or equivalent. (3-0) T
MECH 6354 Experimental
Mechanics (3 semester
hours) This course provides Mechanical Engineering students with experimental
techniques for measurements of deformations and analysis of stress for solid
engineering materials when subjected to mechanical and thermal loadings; an
introduction to the physical mechanisms associated with design-limiting
behavior of engineering materials, especially stiffness, strength, toughness,
and durability; an understanding of basic mechanical properties of engineering
materials, testing procedures used to quantify these properties, and ways in
which these properties characterize material response; quantitative skills to
deal with materials-limiting problems in engineering design; and a basis for
materials selection in mechanical design. MECH 3301 or
equivalent. (3-0) T
MECH 6355
Viscoelasticity (3
semester hours) This course provides an overview of advanced stress analysis of
solids with properties strongly influenced by time, temperature, pressure, and
humidity. Topics covered include: the material characterization and
thermodynamic foundation of the constitutive behavior of time-dependent
materials such as polymers, and composites; time-temperature superposition
principle for thermorheologically simple materials;
correspondence principle; integral formulation for quasi-static boundary value
problems; treatment of time-varying boundary conditions; linear viscoelastic
stress waves, approximate methods of linear viscoelastic stress analysis; and
introduction to nonlinear viscoelastic constitutive laws. MECH 6305 or
equivalent (3-0) T
MECH 6367 Mechanical
Properties of Materials (3
semester hours) This course provides an introduction to the mechanical behavior
of solids, emphasizing the relationships between microstructure, defects, and
mechanical properties. Topics include elastic, inelastic, and plastic
properties of crystalline and amorphous materials. Polymer
properties, viscoplasticity, and strain-rate
dependence. The relationships between stress, strain,
strain rate, and temperature for deformable solids. Application
of dislocation theory to strengthening mechanisms in crystalline solids.
The phenomena of creep, fracture, and fatigue, and their
controlling mechanisms. MECH 6305 or equivalent (3-0) T
MECH 6368 Imperfections in
Solids (3 semester
hours) This course provides a description of the relationship of lattice
defects (vacancies, interstitials, dislocations) to the physical and mechanical
properties of crystalline solids. Introduction to point
imperfections, and their relationships to transport properties in metallic,
covalent, and ionic crystals. Kroeger-Vink notation. Introduction to dislocations: geometric,
crystallographic, elastic, and energetic properties of dislocations. Dislocation reactions and interactions including formation of
locks, stacking faults, and surface effects. Relations
between collective dislocation behavior and mechanical properties of crystals.
Introduction to computer simulations of dislocations. Grain boundaries. The structure and
properties of interfaces in solids. Emphasis on
materials science aspects of role of defects in electrical, morphological,
optical, and mechanical properties of solids. (3-0) MECH 6305 or
equivalent T
MECH 6V69 Special Topics
in Mechanics and Materials (1-6
semester hours) (May be repeated to a maximum of 9 hours.) For letter grade
credit only. ([1-6]-0) R
Thermal and
Fluid Sciences (TFS)
MECH 5383
(EEMF 5383, MSEN 5383, PHYS 5383) Plasma Processing (3 semester hours) Hardware oriented
study of useful laboratory plasmas. Topics will include vacuum technology, gas
kinetic theory, basic plasma theory and an introduction to the uses of plasmas
in various industries. (3-0) T
MECH 6370 Fluid
Mechanics (3 semester
hours) This course provides the beginning graduate student
with a broad background in the fundamentals of fluid mechanics and an
introduction to the various flow regimes. After completing this course, the
student should be prepared to take subsequent courses in a broad range of
engineering disciplines, such as mechanical, bioengineering, aerospace, and
civil engineering. Topics include derivation of the governing equations of
motion and an introduction to viscous, inviscid,
turbulent, and boundary-layer flows. Prerequisite: MECH 3315 or equivalent.
(3-0) T
MECH 6371 Computational
Fluid Mechanics (3
semester hours) This course presents computational
methods for viscous flow, boundary layer theory and turbulence. Formulation of
finite element methods and other traditional numerical techniques for analysis
of dynamic problems in fluid mechanics will be examined. MECH
6370 or equivalent. (3-0) T
MECH 6380 Heat Transfer (3 semester hours) This
course provides an introduction to fundamentals of conductive, convective and radiative heat transfer with an emphasis on numerical and
analytical solutions. Steady and transient one- and multi-dimensional thermal
conduction are described. Other topics include emphasis on analytical methods,
numerical techniques and approximate solutions. Prerequisite: MECH 4350, MECH
3315 or equivalents. (3-0) T
MECH 6383 (EEMF 6383,
PHYS 6383) Plasma Science (3
semester hours) Theoretically oriented study of
plasmas. Topics to include: fundamental properties of plasmas, fundamental
equations (kinetic and fluid theory, electromagnetic waves, plasma waves,
plasma sheaths) plasma chemistry and plasma diagnostics. Prerequisite: PHYS
5320 or EEGR 6316. (3-0) T
MECH 6384Applied Heat
Transfer (3 semester
hours) This course provides a rigorous development of heat transfer
fundamentals as applied to relevant
industrial problems, including heat transfer in buildings, thermal management
of electronics, air conditioning & refrigeration systems and study of
various thermal mechanical equipments e.g. heat exchangers and furnaces. Prerequisite: MECH 6307 or equivalent.
(3-0) T
MECH 6V89 Special Topics
in Thermal and Fluid Sciences (1-6 semester hours) (May be repeated to a maximum of 9 hours.)
For letter grade credit only. ([1-6]-0) R