M E 1 — COOPERATIVE EDUCATION PROGRAM
1 credit.
Work experience which combines classroom theory with practical knowledge of operations to provide students with a background upon which to base a professional career in industry.
M E 151 — INTRODUCTION TO MECHANICAL ENGINEERING
2 credits.
Introduction to the field of Mechanical Engineering through problem-solving in the context of small group projects. Fabricate, build, and test prototypes. Introduction to computer software of particular relevance to Mechanical Engineers.
M E 160 — ARCHITECTURAL GRAPHICS
3 credits.
The skill of communicating through the graphic media of freehand and instrumental drawing. Architectural presentation, isometric, perspective and shades and shadows.
M E 201 — INTRODUCTION TO MECHANICAL ENGINEERING
3 credits.
Provides an introduction to the field of Mechanical Engineering in the context of a major, semester-long project that is carried out in small groups as well as several, smaller hands-on projects. Obtain a shop pass, design build and test small prototypes using the shop as well as 3-D printing, take measurements using various instruments, and use a microcontroller to control a system. Introduction to software that is particularly useful to Mechanical Engineers including SolidWorks and EES. Learn how to design experiments, obtain data, use data to develop simple models of systems, exercise models for the purposes of design, and present their results professionally. It will provide a context for the math, physics and chemistry classes that are taken during the first year of the Mechanical Engineering curriculum and also provide a preview of future ME courses and should also give you a glimpse into the breadth of opportunities afforded by a mechanical engineering degree.
M E 231 — GEOMETRIC MODELING FOR DESIGN AND MANUFACTURING
3 credits.
Introduction to basic methods and fundamental concepts in geometric description and modeling of mechanical form, components, and assemblies. Topics include elements of descriptive geometry, engineering drawing standards, introduction to computer modeling, and geometric dimensioning and tolerancing (GDT). Lectures are reinforced by the laboratory experience where students operate modern commercial computer-aided design systems to model and to learn the basics of engineering communication, specification, and annotation.
M E 240 — DYNAMICS
3 credits.
Rectilinear and curvilinear motion of a particle; force, mass, acceleration; work, potential, and kinetic energy; impulse and momentum; kinematics of rigid bodies; moving coordinate systems with relative motion; general planar rigid body kinematics and kinetics. Applications to linkages, cams and geared systems.
M E 273 — ENGINEERING PROBLEM SOLVING WITH EES
1 credit.
This course will serve the dual purpose of providing students with a high level of proficiency in the Engineering Equation Solver software as well as giving students the opportunity to solve high-level engineering problems using this tool. Students leaving the course will have a very solid understanding of equation solving software including advanced features that would not be covered in any other class on campus. Students will also get another opportunity to apply sophisticated computing tools to engineering applications.
M E 291 — UNDERGRADUATE MECHANICAL ENGINEERING PROJECTS
1-3 credits.
Individual lab projects under staff supervision.
M E 299 — INDEPENDENT STUDY
1-3 credits.
Directed study projects as arranged with instructor.
M E 306 — MECHANICS OF MATERIALS
3 credits.
Stress and strain, torsion, bending of beams, shearing stresses in beams, compound stresses, principal stresses, deflections of beams, statically indeterminate members, columns.
M E/E M A 307 — MECHANICS OF MATERIALS LAB
1 credit.
Data processing, tension/compression tests, creep stress concentrations, fatigue, fracture, composite materials, combined stress, beam flexure, dynamic loads, buckling.
M E 310 — MANUFACTURING: POLYMER PROCESSING AND ENGINEERING
3 credits.
Introduction to all important aspects of polymer processing and engineering including polymeric materials, material properties, design and manufacturing considerations, processing methods, part performance, post-consumer recycling and upcycling, societal responsibilities and ethics, and various techniques for modeling in materials processing like dimensional analysis, design of experiments, analytical solutions, and computer simulation.
M E 311 — MANUFACTURING: METALS AND AUTOMATION
3 credits.
An introduction to processes for manufacturing metal parts, designing parts to make them easier to manufacture with these methods, and approaches for increasing productivity. Manufacturing automation, control, and metrology for increased safety, productivity, and part quality. Engineering economics for determining the cost of manufacturing a part.
M E 313 — MANUFACTURING PROCESSES
3 credits.
A quantitative and qualitative study of manufacturing processes including machining, extrusion, sheet metal forming, welding, and casting for metals; and additive manufacturing, extrusion, injection molding, thermoforming and blow molding for plastics. Emphasis on process selection for optimum design. Laboratory experiments and demonstrations. Quality, strength, and economic evaluations.
M E 314 — MANUFACTURING FUNDAMENTALS
3 credits.
An introduction to techniques for modeling in materials processing and improving decision making in increasing the productivity of design and manufacturing processes. Quality improvement and engineering simulation tools are presented as well as the methods of engineering economy and the role of manufacturing automation and systems, through lectures and laboratories.
M E 331 — COMPUTER-AIDED ENGINEERING
3 credits.
Introduction to the fundamentals of Computer Aided Engineering. Topics include mathematical and programmable methods for modeling and design of mechanical shapes and assemblies; shape processing for manufacturing, including NC machining and 3D printing; and computer-aided analysis of structural, thermal and other physical properties.
M E 340 — DYNAMIC SYSTEMS
3 credits.
Mathematical modeling and analysis of dynamic systems with mechanical, thermal, and fluid elements. Topics: time domain solutions, analog computer simulation, linearization techniques, block diagram representation, numerical methods and frequency domain solutions. Students are assumed to have basic competence in particle and planar rigid body dynamics, matrix and vector algebra, and linear differential equations.
M E 342 — DESIGN OF MACHINE ELEMENTS
3 credits.
Analysis and design of machine elements and machines; loads, stresses, deflections, material selection, fatigue failure, finite elements; mechanical power transmission components including gearing, bearings, shafting, and frictional devices.
M E 349 — ENGINEERING DESIGN PROJECTS
3 credits.
Applied engineering design projects. Emphasis on design of practical mechanical engineering systems, devices and/or components. Two 2-hr labs and one lecture per week. Lecture focuses on the design process, creativity, patents, and other applications to practical problems.
M E 351 — INTERDISCIPLINARY EXPERIENTIAL DESIGN PROJECTS I
3 credits.
First of a two-course sequence (M E 351 and 352) in which students design and fabricate systems and devices, typically having an interdisciplinary aspect. In the first course, emphasis will be on project planning, team dynamics, problem identification, and conceptual design and evaluation.
M E 352 — INTERDISCIPLINARY EXPERIENTIAL DESIGN PROJECTS II
3 credits.
Design and fabricate systems and devices, typically having an interdisciplinary aspect. Emphasis will be on detailed design, fabrication, testing, and modification of concepts developed in the previous course (M E 351).
M E 361 — THERMODYNAMICS
3 credits.
First and second laws of thermodynamics; thermodynamic properties of gases, vapors, and gas-vapor mixtures; energy-systems analysis including power cycles, refrigeration cycles and air-conditioning processes. Introduction to thermodynamics of reacting mixtures.
M E 363 — FLUID DYNAMICS
3 credits.
Laws of mechanics and thermodynamics applied to fluids at rest and in motion; potential flow; dimensional analysis; viscous flow; pipe flow; boundary-layer theory; compressible flow.
M E 364 — ELEMENTARY HEAT TRANSFER
3 credits.
Fundamental concepts of conduction, convection, radiation. Heat-exchanger principles.
M E 368 — ENGINEERING MEASUREMENTS AND INSTRUMENTATION
4 credits.
Theory of modern instrumentation, the design and execution of experiments and the analysis of experimental data. Laboratory provides direct experience with concepts in the context of experimental design for hypothesis testing, for product evaluation and for control system design.
M E 370 — ENERGY SYSTEMS LABORATORY
3 credits.
Experimental evaluation and analysis of performance of various energy conversion systems such as turbines, compressors, refrigerators, fans, and internal combustion engines.
M E 376 — INTRODUCTION TO MECHATRONICS
4 credits.
Fundamentals of DC and AC circuit analysis and design, stressing tools needed to understand circuits typically used in instrumentation and control of physical systems (sensors/actuators); an introduction to the design of active and passive linear circuits for buffering and filtering signals; an introduction to digital circuits, Boolean logic, programming, especially as needed for computer interface operations in mechanical engineering applications (example: embedded microcontrollers). Laboratory exercises.
M E/B M E 414 — ORTHOPAEDIC BIOMECHANICS - DESIGN OF ORTHOPAEDIC IMPLANTS
3 credits.
Apply the design process for orthopaedic implants (total joint replacements). Topics include: library skills; joint anatomy; tissue properties; surgical approach; joint loading; implants materials; preclinical testing and analysis.
M E/B M E 415 — BIOMECHANICS OF HUMAN MOVEMENT
3 credits.
An overview of experimental and modeling techniques used to study human movement. Specific topics will include locomotion, motion capture systems, force plates, muscle mechanics, musculoskeletal modeling, three dimensional kinematics, inverse dynamics, forward dynamic simulation and imaging based biomechanics. Homework and laboratory activities emphasize applications of movement biomechanics in orthopedics and rehabilitation.
M E 417 — TRANSPORT PHENOMENA IN POLYMER PROCESSING
3 credits.
Description of the physical, thermal, mechanical, and rheological properties of polymeric materials relevant to their processing behavior. Review of the basic transport phenomena equations: mass, momentum, and energy. Analysis of various processing operations for the manufacture of polymeric articles, with particular emphasis on: extrusion, injection molding, blow molding, thermoforming, compression molding and additive manufacturing. Discussion of plastics recycling and environmental issues.
M E 418 — ENGINEERING DESIGN WITH POLYMERS
3 credits.
Implications for plastics part design of polymer classification, structure, melt rheology, mixing, polymer blends, anisotropy, solidification, mechanical behavior, failure. Plastics design for electrical, optical, acoustic and barrier properties.
M E 419 — FUNDAMENTALS OF INJECTION MOLDING
3 credits.
All major aspects of injection molding with emphases on design, processing, process physics, computer-aided engineering (CAE), troubleshooting, and advanced molding processes. Field trip, video presentation, case studies, term project with oral presentation, and hands-on sessions using commercial CAE simulation software.
M E 420 — INTRODUCTION TO POLYMER COMPOSITES PROCESSING
3 credits.
A brief description of the physical, thermal, rheological and mechanical properties of composite materials. Apply fundamental transport phenomena concepts to solve problems dealing with flow through porous media, fiber orientation, curing reactions, shrinkage and warpage and mechanics of composites. Introduction of various processing operations for the manufacture of composites products, with particular emphasis on resin transfer molding, vacuum assisted resin infusion, injection and compression molding, filament winding, braiding and pultrusion. The course includes laboratory experiments, CAE applied to composites product design, and a final group project producing a composites product.
M E/STAT 424 — STATISTICAL EXPERIMENTAL DESIGN
3 credits.
Introduction to statistical design and analysis of experiments. Topics include: principles of randomization, blocking and replication, randomized blocking designs, Latin square designs, full factorial and fractional factorial designs and response surface methodology. Substantial focus will be devoted to engineering applications.
M E 429 — METAL CUTTING
3 credits.
Theory and applications of metal cutting; basic principles; significant features of current research. Chip formation mechanics, three-dimensional machining operations, tool life and machinability, economics of metal removal, and precision engineering.
M E 437 — ADVANCED MATERIALS SELECTION
3 credits.
A structured approach is developed to address the complex problem of materials selection in design where multiple constraints and conflicting objectives need to be considered. Topics include: introductory fracture mechanics; corrosion and corrosion mitigation; effects of manufacturing processes and process selection; property development in metals, ceramics, polymers and composites; and material analysis techniques.
M E/E C E 439 — INTRODUCTION TO ROBOTICS
3 credits.
Hands-on introduction to key concepts and tools underpinning robotic systems in use and development today. Intended to give students the tools to understand robotic systems, to explore robotics for their own purposes, and to pursue advanced study in the field. Students are expected to have familiarity with a high level programming language such as Python (recommended), MATLAB, Java or Julia.
M E 440 — INTERMEDIATE VIBRATIONS
3 credits.
Harmonic motion; natural frequencies and vibration of damped and undamped single and multi-degree of freedom systems; modal analysis; influence coefficients; lumped-mass modeling; dynamic load factors; Rayleigh's method; flow-induced vibrations; shaft whirl; balancing; vibration absorbers and tuned mass dampers; finite element modeling.
M E/E C E 441 — KINEMATICS, DYNAMICS, AND CONTROL OF ROBOTIC MANIPULATORS
3 credits.
Robotics analysis and design, focusing on the analytical fundamentals specific to robotic manipulators. Serial chain robotic manipulator forward and inverse kinematics, differential kinematics, dynamics, trajectory generation, and controls. Builds on knowledge of high-level computational programming language such as Matlab.
M E 444 — DESIGN PROBLEMS IN ELASTICITY
3 credits.
Analysis of elastic systems by strain-energy techniques. Determination of stresses and deflections in statically indeterminate structures encountered in design. Resilience in springs.
M E 445 — MECHATRONICS IN CONTROL & PRODUCT REALIZATION
3 credits.
Fundamentals of electromechanical control systems with a focus on subsystem design and their impacts at the system level. Integration of microcontrollers into products for control and/or instrumentation. Creation of intelligent interfaces between motors and sensors. C programming. Control computer system architecture Software and hardware principles for computer control.
M E 446 — INTRODUCTION TO FEEDBACK CONTROL
3 credits.
Overview of linear feedback control analysis and design techniques for mechanical systems. Modeling of linear dynamic mechanical systems (review), derivation of their defining differential equations, and analysis of their response using both transient and frequency response techniques; Analysis and design of feedback control of mechanical systems using classical control transform techniques such as root locus and frequency response; Analysis of system robustness through evaluation of phase and gain margins and the Nyquist stability criterion. Design of feedback controllers for mechanical systems using frequency domain loop-shaping methods. Design domains, including mechanical, thermal, and fluid feedback control systems. Effects of non-ideal system characteristics commonly encountered in mechanical systems, such as compliance, delay, and actuator and sensor saturation. Builds on knowledge of high-level computational programming language such as Matlab or Simulink.
M E 447 — COMPUTER CONTROL OF MACHINES AND PROCESSES
3 credits.
Discrete control theory reduced to engineering practice through a comprehensive study of discrete system modeling, system identification and digital controller design. Selected industrial processes and machines utilized as subjects on which computer control is to be implemented. Focus: computer control economics and planning as well as the control theory and programming.
M E 448 — MECHANICAL SYSTEMS ANALYSIS
3 credits.
Integrated treatment of mathematical modeling and analysis of mechanical systems. Modeling of linear and nonlinear systems and their performance under transient, periodic and random loads.
M E 449 — REDESIGN AND PROTOTYPE FABRICATION
3 credits.
Principles of design, manufacturing, and prototype evaluation. A semester long project provides the opportunity to redesign of a thermo-mechanical device (Stirling Engine) using knowledge/skills acquired both through this course and previous course offerings in thermal sciences, mechanics and dynamics, manufacturing, and design. Instruction and hands-on experience using the manufacturing tools/processes available in the CoE. Design, dimensioning and tolerancing, manufacturing, and quantitative analysis are all covered in a structured semester project.
M E 451 — KINEMATICS AND DYNAMICS OF MACHINE SYSTEMS
3 credits.
Graphical, analytical, and computer methods for the kinematic and dynamic analysis of mechanical linkages, mechanisms, and geared and cam systems.
M E 458 — INTRODUCTION TO FEEDBACK CONTROL OF AUTONOMOUS SYSTEMS
3 credits.
Feedback control theory fundamentals; numerical optimal control algorithms underpinning autonomous systems; quadcopter kinematics dynamics; quadcopter control and trajectory planning; hands-on labs on a nano quadcopter platform.
M E 459 — COMPUTING CONCEPTS FOR APPLICATIONS IN ENGINEERING
3 credits.
An overview of computing concepts that support modeling and simulation in engineering applications. Learn the basics of computer architecture, software development and the interplay between software and hardware components.
M E 460 — APPLIED THERMAL / STRUCTURAL FINITE ELEMENT ANALYSIS
3 credits.
The course is designed for undergraduate students with no finite element (FE) analysis experience or knowledge. By the end of the semester the student will be able to simulate 1D, 2D and 3D structural and thermal systems, including both the static and transient response, using a common, commercially available FE software package. Analyses will be performed using both GUI and APDL. The emphasis of the course is on becoming proficient with the software and capable of operating an FE package at a high level, including benchmarking and verifying the FE model using simple analytical checks. An additional emphasis of the course is on understanding the impact of the temperature distribution in an object on the stress field through thermal expansion.
M E 461 — THERMAL SYSTEMS MODELING
3 credits.
Analysis and design of engineering systems involving applications of thermodynamics, economics, heat transfer, and fluid flow.
M E/M S & E 462 — WELDING METALLURGY
3 credits.
Metallurgical principles applied to welding; mechanisms of strengthening, phase equilibria, and microstructure of the weld zone. Modern processes including laser and electron beam welding.
M E 468 — COMPUTER MODELING AND SIMULATION OF AUTONOMOUS VEHICLES AND ROBOTS
3 credits.
Introduction to the Robot Operating System (ROS). Concepts of vehicle dynamics modeling and simulation, with focus on tire, suspension, steering system, and powertrain modeling. Simulation of sensors (camera, lidar, radar, GPS, IMU). Terramechanics modeling for mobility on deformable terrains. Introduction to the autonomy stack (sensing, perception, planning, and control). Elements of artificial intelligence in autonomy. Elements of verification and validation.
M E 469 — INTERNAL COMBUSTION ENGINES
3 credits.
Fundamental principles of engine operation and application including cycle analysis, gas analysis, effect of operating conditions and engine design on air pollution.
M E 471 — GAS TURBINE AND JET PROPULSION
3 credits.
Principles of thermodynamics and fluid dynamics utilized in the analysis and design of gas-turbine cycles, components and systems for stationary, automotive and aircraft applications.
M E 472 — ENERGY, SUSTAINABILITY, AND TECHNOLOGY
3 credits.
Thermodynamic analysis of energy conversion systems with emphasis on efficiency and greenhouse gas emissions; basic economic analysis of energy systems; radiative energy exchange with participating atmosphere; global energy balance; electricity production and transportation sustainability.
M E/BSE 474 — FLUID POWER
3 credits.
Engineering principles of design and analysis of fluid power systems and fluid power components. Topics include hydraulic fluid properties, fluid flow and, positive displacement pumps, valves for pressure, flow, and directional control, linear and rotary actuators, accumulators, pressure compensation, load sensing, energy management and system efficiency.
M E/BSE 475 — ENGINEERING PRINCIPLES OF AGRICULTURAL MACHINERY
3 credits.
Engineering design principles of machines for the production, processing and handling of crops for food, fuel, bio-mass and fiber. Environmental and biological factors that influence machine design and operation. Economic and capacity analysis of machines and systems.
M E/BSE 476 — ENGINEERING PRINCIPLES OF OFF-ROAD VEHICLES
3 credits.
Engineering design principles of heavy-duty vehicles intended for off-road use: fuels, engine cycles, engine principles and construction, clutches, mechanical and hydrostatic transmissions, final drives, traction systems, traction modeling, dynamic behavior, suspension systems and braking.
M E 489 — HONORS IN RESEARCH
1-3 credits.
Undergraduate honors research projects supervised by faculty members.
M E 491 — MECHANICAL ENGINEERING PROJECTS I
1-3 credits.
Individual lab projects under staff supervision.
M E/B M E 505 — BIOFLUIDICS
3 credits.
Introduction to the physics of biological fluid flow with an emphasis on the cardiovascular system including blood rheology, pulsatile flow, wave travel, and topics relevant to blood flow measurement and biomedical device design.
M E/CIV ENGR/E M A 508 — COMPOSITE MATERIALS
3 credits.
Physical properties and mechanical behavior of polymer, metal, ceramic, cementitious, cellulosic and biological composite systems; micro- and macro-mechanics; lamination and strength analyses; static and transient loading; fabrication; recycling; design; analytical-experimental correlation; applications.
M E/I SY E 510 — FACILITIES PLANNING
3 credits.
Introduction to plant location theory and analysis of models of plant location; models for determining plant size and time phasing; line balancing models; techniques for investigating conveyor and other material handling problems; and models of plant layout.
M E/I SY E 512 — INSPECTION, QUALITY CONTROL AND RELIABILITY
3 credits.
Inspection data for quality control; sampling plans for acceptance inspection; charts for process control. Introduction to reliability models and acceptance testing.
M E 514 — POLYMER ADDITIVE MANUFACTURING
3 credits.
A quantitative and qualitative study of additive manufacturing processes. Emphasis on proper additive manufacturing technique selection for optimized final product design and properties, as well as presentation of emerging additive manufacturing techniques.
M E/B M E 516 — FINITE ELEMENTS FOR BIOLOGICAL AND OTHER SOFT MATERIALS
3 credits.
Finite element modeling of soft materials, with an emphasis on biological tissues. Basics of the finite element method, verification and validation methods, and selection of constitutive models. Emphasis on finite element modeling for materials that are generally nonlinear, and that generally undergo large deformation.
M E/N E 520 — TWO-PHASE FLOW AND HEAT TRANSFER
3 credits.
Two-phase flow and heat transfer in engineering systems. Pool boiling and flow boiling. Phenomenological modeling.
M E/CBE 525 — MACROMOLECULAR HYDRODYNAMICS
3 credits.
Observed phenomena in polymeric flow systems. Techniques of viscometry and viscoelastic measurements for polymeric fluids. Rheological models. Analytical solutions to flow problems: non-Newtonian viscosity, linear viscoelasticity, normal stresses, recoil, stress relaxation, etc. Dimensional analysis. Unit operations of the polymer industry: extrusion, blow molding, injection molding, mixing.
M E 529 — DESIGN & APPLICATIONS OF SMART MANUFACTURING PROCESSES
3 credits.
Introduction to smart manufacturing. Understand how a company can connect its operational technology systems (e.g., machine tools) to its information technology systems to improve operational efficiency. Covers terminology, sensors and data, industrial computing platforms, data workflow and analysis, cyber-security, human factors, sequential logic control, and case studies of their application in smart manufacturing. Provides the basis for making informed decisions about how manufacturing processes and systems can be designed to be more adaptive (flexible) by automating, collecting the right data, sharing that data, implementing control systems and understanding the impact on humans and organizational systems.
M E 531 — DIGITAL DESIGN AND MANUFACTURING
3 credits.
Broad overview of concepts, methods and tools for manipulating digital geometric models for engineering design and manufacturing. Topics include freeform curves, surfaces, and solid modeling. Topics also include slicing, support generation and path planning for additive and subtractive manufacturing. Provides both cutting-edge knowledge and hands-on project experiences in digital design and manufacturing. It will involve the use of CAD software for creative shape design. It will also involve 3D printers and 3D scanners in the ME Instructional Lab and Maker Space.
M E/COMP SCI/E C E 532 — MATRIX METHODS IN MACHINE LEARNING
3 credits.
Linear algebraic foundations of machine learning featuring real-world applications of matrix methods from classification and clustering to denoising and data analysis. Mathematical topics include: linear equations, regression, regularization, the singular value decomposition, and iterative algorithms. Machine learning topics include: the lasso, support vector machines, kernel methods, clustering, dictionary learning, neural networks, and deep learning. Previous exposure to numerical computing (e.g. Matlab, Python, Julia, R) required.
M E 535 — COMPUTER-AIDED GEOMETRIC DESIGN
3 credits.
Designed to acquaint the student with computer-aided design technology used for geometric design of engineered products. Currently used methods of creating three-dimensional computer-aided design (CAD) models will be discussed. Paradigms of three-dimensional wire-frame modeling, surface modeling and solids modeling as applied in product design. Techniques for freeform curve and surface modeling will be emphasized.
M E 536 — DATA DRIVEN ENGINEERING DESIGN
3 credits.
Introduction to data-driven techniques for surrogate modeling based engineering design. Apply data-driven approaches to engineering design problems such as design of structural and thermofluid components and systems.
M E/COMP SCI/E C E 539 — INTRODUCTION TO ARTIFICIAL NEURAL NETWORKS
3 credits.
Theory and applications of artificial neural networks: multi-layer perceptron, self-organization mapdeep neural network convolutional neural network, recurrent network, support vector machines genetic algorithm, and evolution computing. Applications to control, pattern recognition, prediction, and object detection and tracking.
M E/E M A 540 — EXPERIMENTAL VIBRATION AND DYNAMIC SYSTEM ANALYSIS
3 credits.
Application of digital data acquisition to the investigation of mechanical components, structures and systems using time histories, transforms and response functions to characterize free, forced and transient inputs. Introduction to sensors, instrumentation and methods appropriate for dynamic system response.
M E 548 — INTRODUCTION TO DESIGN OPTIMIZATION
3 credits.
Introduces basic concepts and techniques used in the optimization of engineering design components and systems. Pose and solve typical optimization problems such as truss and finite-element-based optimization.
M E 549 — PRODUCT DESIGN
3 credits.
A project oriented, interdisciplinary course with an emphasis on designing competitive, quality products. The product development process is covered from problem identification through detail design and evaluation. Included among the topics covered are: idea generation and evaluation, visualization, and quality.
M E/COMP SCI/I SY E 558 — INTRODUCTION TO COMPUTATIONAL GEOMETRY
3 credits.
Introduction to fundamental geometric computations and algorithms, and their use for solving engineering and scientific problems. Computer representations of simple geometric objects and paradigms for algorithm design. Applications from areas of engineering analysis, design and manufacturing, biology, statistics, and other sciences.
M E 561 — INTERMEDIATE THERMODYNAMICS
3 credits.
Fundamentals; phase and chemical equilibria; availability; thermodynamic relationships.
M E 563 — INTERMEDIATE FLUID DYNAMICS
3 credits.
Incompressible and compressible, laminar and turbulent flow of fluids. Classical and finite-difference analysis using differential and integral formulation of the continuity, momentum and energy equations. Application to ducts, plates, spheres, blades, pumps, turbines, lubrication, shockwaves, nozzles, diffusers and other mechanical engineering equipment.
M E 564 — HEAT TRANSFER
3 credits.
Applications of conduction, convection, and thermal-radiation principles to combined-mode problems; analytical and numerical techniques; heat-exchanger design; thermal stresses.
M E/N E 565 — POWER PLANT TECHNOLOGY
3 credits.
Design and performance of power plants for the generation of electric power; fossil, solar, wind, hydro and nuclear fuels, cycle analysis, component design and performance, plant operation, control, economics and environmental impact.
M E/E P 566 — CRYOGENICS
3 credits.
Applications of cryogenics, material properties at low temperatures, refrigeration and liquefaction systems, measurement techniques, insulation, storage and transfer of cryogenics, safety and handling.
M E/CBE 567 — SOLAR ENERGY TECHNOLOGY
3 credits.
Radiant energy transfer and its application to solar exchangers; energy balances for solar exchangers, review of theory, economics, and practice of solar energy applications.
M E 569 — APPLIED COMBUSTION
3 credits.
Introduction to and analysis of combustion processes and combustion technology for gaseous, liquid, and solid fuels. Application to combustion engines, furnaces, fixed-bed, fluidized-bed, and suspension burning boilers.
M E/E M A 570 — EXPERIMENTAL MECHANICS
3 credits.
Experimental methods for design and analysis of mechanical components, structures and materials. Electrically and optically recorded stress, strain and deformation data; computer acquisition/reduction/presentation techniques; applications to static and transient events, sensors, transducer design, NDT, fracture and residual stresses.
M E 572 — INTERMEDIATE GAS DYNAMICS
3 credits.
Thermodynamics and fluid dynamics of compressible gas flows with friction and heat transfer, and application to nozzles, shock tubes and propulsion devises. Wave phenomena and engine port tuning. Physics of high temperature gases and equilibrium, non-equilibrium and frozen flows.
M E 573 — COMPUTATIONAL FLUID DYNAMICS
3 credits.
Provides an in-depth 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. Knowledge of programming language such as Python, C++, MATLAB or Java required.
M E/E C E 576 — PRINTED AND FLEXIBLE ELECTRONICS: MANUFACTURING, DEVICES, AND APPLICATIONS
3 credits.
Exploration of additive fabrication of thin-film electronics. Various techniques, materials, and applications of printable electronics with a key focus on mechanically flexible electronic devices. Identify the appropriate printing technology and materials to achieve desired device performance.
M E/E C E 577 — AUTOMATIC CONTROLS LABORATORY
4 credits.
Control theory is reduced to engineering practice through the analysis and design of actual systems in the laboratory. Experiments are conducted with modern servo systems using both analog and digital control. Systems identification and modern controls design are applied to motion and torque control.
M E 601 — SPECIAL TOPICS IN MECHANICAL ENGINEERING
1-3 credits.
Advanced topics of special interest in various areas of Mechanical Engineering, such as vibrations, balancing, lubrication and wear, special manufacturing processes, automation, energy systems, etc.
M E/B M E 605 — SPECIAL TOPICS IN BIOMECHANICS
1-3 credits.
Various special topics in biomechanics.
M E/B M E 615 — TISSUE MECHANICS
3 credits.
Focus on solid mechanics of prominent musculoskeletal and cardiovascular tissues. Their normal and pathological behaviors (stiffness, strength, relaxation, creep, adaptive remodeling, etc.) in response to physiologic loading will be examined and quantified.
M E/I SY E 641 — DESIGN AND ANALYSIS OF MANUFACTURING SYSTEMS
3 credits.
Covers a broad range of techniques and tools relevant to the design, analysis, development, implementation, operation and control of modern manufacturing systems. Case studies assignments using industry data will be used to elaborate the practical applications of the theoretical concepts.
M E/I SY E 643 — PERFORMANCE ANALYSIS OF MANUFACTURING SYSTEMS
3 credits.
Examines the state of the art in the use of stochastic network theory to develop performance models of modern manufacturing systems.
M E 669 — ENGINE EXPERIMENTS
3 credits.
Hands-on experience with engine hardware testing, especially as it relates to required information for setting up and validating computational models.
M E 673 — INTERNAL COMBUSTION ENGINE SIMULATIONS
3 credits.
Hands-on experience with engine CFD (computational fluid dynamics) simulations and use of engine data to validate computational predictions.
M E 699 — ADVANCED INDEPENDENT STUDY
1-3 credits.
Directed study projects as arranged with instructor.
M E 702 — GRADUATE COOPERATIVE EDUCATION PROGRAM
1-2 credits.
Work experience that combines classroom theory with practical knowledge of operations to provide students with a background on which to develop and enhance a professional career. The work experience is tailored for MS students from within the U.S. as well as eligible international students.
M E/E M A 703 — PLASTICITY THEORY AND PHYSICS
3 credits.
Physical foundations of plasticity as a basis for choices made in the formulation of theories representing plastic deformation and their limitation. Motion of dislocations and formation and growth of deformation twins. Experimental results in the context of plasticity models. Traditional and research topics of plasticity and theories for rate-independent, rate-dependent, single and polycrystal descriptions. Numerical solution of equations and computational plasticity. Knowledge of mechanics of materials [such as E M A 303 or M E 306] and continuum mechanics [such as E M A 622] required.
M E/E M A 706 — PLATES, SHELLS AND PRESSURE VESSELS
3 credits.
Stress and deflection analysis of structural plates and membranes under mechanical and thermal loads; variational and numerical methods; instability and vibrations; membrane shell theory; cylindrical shells; pressure vessel and piping design applications; ASME Pressure Vessel Code. Knowledge of mechanics of materials [such as M E 444 or E M A 506] strongly encouraged.
M E/E M A 708 — ADVANCED COMPOSITE MATERIALS
3 credits.
Contemporary topics such as new materials; smart materials/structures/systems; fatigue; fracture; experimental techniques; nondestructive evaluation; transient, micro, three-dimensional, nonlinear, inelastic and environmental effects; manufacturing methods: repair and applications. Knowledge of composite materials [such as E M A/CIV ENGR/M E 508] strongly encouraged.
M E/B M E 715 — ADVANCED TISSUE MECHANICS
3 credits.
Central topics in solid mechanics applied to soft tissues, including analysis of strain in the setting of large deformations, computation of stress in multiple experimental loading configurations, constitutive modeling of biomaterials using hyperelastic strain-energy functions, modeling tissue growth and remodeling, and the main theories for soft tissue failure will be covered. Application of finite elasticity theory in practical laboratory situations, and key papers and concepts in soft tissue mechanics.
M E 717 — ADVANCED POLYMER PROCESSING
3 credits.
Advanced analysis and modeling of plastics extrusion, injection molding, and other processes; mold and equipment design; materials consideration. Knowledge of polymer processing [such as M E 417] strongly encouraged.
M E 718 — MODELING AND SIMULATION IN POLYMER PROCESSING
3 credits.
This course is designed to acquaint the student with computer simulation technology used for the engineering of polymer processes. Knowledge of polymer processing [such as M E 417] strongly encouraged.
M E/E M A 722 — INTRODUCTION TO POLYMER RHEOLOGY
3 credits.
Formulation of constitutive equations using embedded base vectors. Viscosity, normal stress differences, stress relaxation, elastic recoil. Polymer rheology; homogeneous strain history. Knowledge of differential equations [such as MATH 320] strongly encouraged.
M E/E C E 732 — DYNAMICS OF CONTROLLED SYSTEMS
3 credits.
Emphasis on obtaining equations which define the behavior of physical systems frequently subjected to control; mechanical processing, fluid power, and thermal systems; analytical, experimental, and computer techniques. Knowledge of Automatic Controls [such as M E 446 or E C E 322] is required.
M E/E C E 733 — ADVANCED COMPUTER CONTROL OF MACHINES AND PROCESSES
3 credits.
Digital control theory, design methodology, and techniques for controller implementation on digital computers. Advanced single and multi-axis motion generation algorithms. Multiple processor control systems. Multiple objective control systems for machinery guidance and manufacturing processes. Precision control. Knowledge of continuous and discrete time control [such as M E 447 or E C E 332] is required.
M E 740 — ADVANCED VIBRATIONS
3 credits.
Vibration of mechanical components subject to dynamic loads; analytical, numerical and finite element methods applied to the analysis and design of mechanical systems consisting of cables, bars, shafts, beams, frames, rings, membranes, plates and shells. Knowledge of vibrations [such as M E 440] strongly encouraged.
M E 746 — DYNAMICS OF CONTROLLED SYSTEMS
3 credits.
Emphasis on obtaining equations which define the behavior of physical systems frequently subjected to control; mechanical processing, fluid power, and thermal systems; analytical, experimental, and computer techniques. Knowledge of Automatic Controls [such as M E 446 or E C E 332] is required.
M E 747 — ADVANCED COMPUTER CONTROL OF MACHINES AND PROCESSES
3 credits.
Digital control theory, design methodology, and techniques for controller implementation on digital computers. Advanced single and multi-axis motion generation algorithms. Multiple processor control systems. Multiple objective control systems for machinery guidance and manufacturing processes. Precision control. Knowledge of digital control [such as M E 447] strongly encouraged.
M E 748 — OPTIMUM DESIGN OF MECHANICAL ELEMENTS AND SYSTEMS
3 credits.
Formulation and solution of mechanical design problems by use of mathematical programming methods.
M E 751 — ADVANCED COMPUTATIONAL DYNAMICS
3 credits.
Overview of techniques used to understand the time evolution (dynamics) of multi-body mechanical engineering systems. Modeling, equation formulation, and numerical methods used to determine the dynamics of multi-body mechanical systems. Rigid and flexible multi-body dynamics, friction and contact. Knowledge of Python or MATLAB strongly recommended. Knowledge of dynamic systems [such as M E 240 or 340] required.
M E 753 — FRICTION, LUBRICATION AND WEAR
3 credits.
Behavior of frictional surfaces under different types of loading. Mechanisms of heat generation and surface damage (wear, scuffing, pitting, fretting, etc.). Rheological effects. Effect of lubrication. Surface interaction in metal cutting. Design considerations. Knowledge of mechanics/strength of materials [such as E M A 303 or M E 306] strongly encouraged.
M E 758 — SOLID MODELING
3 credits.
Mathematical modeling, computer representations, and algorithms for manipulation of two- and three-dimensional shapes on a computer. Applications of shape modeling to design, representation, and analysis of mechanical parts and processes; other engineering and scientific applications of shape and solid modeling. Knowledge of advanced programming [such as COMP SCI 400] and knowledge of linear algebra [such as MATH 340] strongly encouraged.
M E/COMP SCI/E C E/E M A/E P 759 — HIGH PERFORMANCE COMPUTING FOR APPLICATIONS IN ENGINEERING
3 credits.
An overview of hardware and software solutions that enable the use of advanced computing in tackling computationally intensive Engineering problems. Hands-on learning promoted through programming assignments that leverage emerging hardware architectures and use parallel computing programming languages. Students are strongly encourage to have completed COMP SCI 367 or COMP SCI 400 or to have equivalent experience.
M E 761 — TOPICS IN THERMODYNAMICS
3 credits.
Thermostatic behavior of nonideal gases; equations of state, with emphasis on their empirical and statistical development, including mixture rules; more detailed study of chemical and phase equilibrium; selected applications of the foregoing; real gas processes, combustion, direct energy conversion devices. Knowledge of thermodynamics [such as M E 561] strongly encouraged.
M E 764 — ADVANCED HEAT TRANSFER I-CONDUCTION
3 credits.
Analytical methods in conduction; Bessel functions, separation of variables, Laplace transforms, superposition, oscillating solutions; computer methods; finite differences, finite elements. Knowledge of basic heat transfer [such as M E 564] strongly encouraged.
M E 768 — PRECISION MEASUREMENTS
3 credits.
General concepts for predicting, characterizing, and reducing noise in measurements. Address the key questions of all experimentalists: (1) How can I improve my signal-to-noise ratio? (2) What is the ultimate detection limit of my measurement approach? Knowledge of Matlab programming and basic circuit design [such as E C E 230] is required.
M E 769 — COMBUSTION PROCESSES
3 credits.
Combustion theory and practice. Thermodynamics of combustion, flame theory, detonation, spray and droplet combustion related to various engine applications. Knowledge of internal combustion engines [such as M E 469], thermodynamics [such as M E 561], and combustion [such as M E 569] strongly encouraged.
M E 770 — ADVANCED EXPERIMENTAL INSTRUMENTATION
3 credits.
Theory and design of instruments for transient physical phenomena especially related to internal combustion engines. Basic knowledge of kinetic theory of gases, statistical mechanics, and quantum mechanics for gases, and measurement theory [such as M E 601: Physics of Gases] required.
M E 774 — CHEM KINETICS OF COMBUST SYSTEMS
3 credits.
Application of gas-phase chemical reaction rate theory to power and propulsion systems, both earthbound and airborne. Aerothermochemistry, kinetics of combustion reactions, kinetics related to air pollutant generation. Development and comparison of transition state theory, collision theory and bond-energy-bond-order method. Intermediate knowledge of thermodynamics and combustion and basic understanding of kinetic theory of gases, statistical mechanics, and quantum mechanics for gases [such as M E 601: Physics of Gases] required.
M E/CIV ENGR/E M A 775 — TURBULENT HEAT AND MOMENTUM TRANSFER
3 credits.
Stochastic methods in turbulent heat and momentum transfer; fully developed turbulence; numerical methods including model applications to boundary layers, reacting flows, mass transfer, and unsteady flows; linear and non-linear stability and transition; emphasis on applications of interest to Mechanical, Aerospace, and Environmental Engineers. Knowledge of fluid mechanics [such as M E 363 or CBE 320] strongly encouraged.
M E/E P 777 — VACUUM TECHNOLOGY
3 credits.
Topics defining modern vacuum technology, including the kinetic theory of gases, conductance, pumping systems, pump technologies, pressure measurement, gas-surface interactions, sealing technologies, leak detection, and residual gas analysis will be addressed through a combination of lectures, laboratory activities, problem solving, and group discussions. Knowledge of fluid mechanics [such as M E 363 or B M E 320] strongly encouraged.
M E 790 — MASTER'S RESEARCH AND THESIS
1-9 credits.
Directed study projects as arranged with instructor.
M E 890 — PHD RESEARCH AND THESIS
1-9 credits.
Directed study projects as arranged with instructor.
M E 903 — GRADUATE SEMINAR
0 credits.
Topics vary.
M E 964 — SPECIAL ADVANCED TOPICS IN MECHANICAL ENGINEERING
1-3 credits.
Advanced topics in design, manufacturing, energy, etc.
M E 990 — DISSERTATOR RESEARCH AND THESIS
1-9 credits.
Directed study projects as arranged with instructor.
M E 999 — ADVANCED INDEPENDENT STUDY
1-5 credits.
Directed study projects as arranged with instructor.