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Active Materials and Mechanics Laboratory
Research in the AMML laboratories lies at the intersection of experimental mechanics and materials science, with an emphasis on using novel methods of experimentation coupled closely with theoretical and computational modeling.
Algorithmic Synthesis Laboratory
Coordinator: Kazu Saitou
Algorithmic Synthesis Laboratory (ASL) investigates theories and methods for modeling, abstraction, and algorithmic synthesis of mechanical, industrial, and biomedical systems. We emphasize the mathematical abstraction rooted on the fundamental understanding the target systems and the algorithmic generalization utilizing the tools in mechanical, industrial, computer science and engineering, including but not limited to, geometric and kinematic reasoning, image and pattern recognition, stochastic planning and optimization. Members of the laboratory are exposed, through our collaborators and sponsors, to broad application domains ranging from mechanical and industrial engineering to medical and pharmaceutical engineering.
Automated Modeling Laboratory
Coordinator: Jeffrey Stein
G029 Auto Lab
The Automated Modeling Laboratory focuses on the development of methodologies and tools to assist engineers with their system modeling and simulation tasks. The objective of our research is to develop algorithms and software tools that facilitate the systematic development of models. This includes documentation about the models assumptions, accuracy, range of validity, quality, etc.
Automotive Research Center
The Automotive Research Center (ARC) is a University-based U.S. Army Center of Excellence for advancing the technology of high fidelity simulation of military and civilian ground vehicles. It represents the key basic research partner of the U.S. Army Tank Automotive Research, Development and Engineering Center (TARDEC) in Warren, Michigan. The ARC was established in 1994 at the University of Michigan. Our partnership base has evolved over the years to meet the research needs of our Army sponsors and now include Wayne State University, Oakland University, the University of Iowa, Clemson University, Virginia Tech and the University of Alaska, Fairbanks.
Automotive Structural Durability Simulation Center
Director: Jwo Pan
1123 Auto Lab
The purpose of the Automotive Structural Durability Simulation Center is to work with industry to solve real engineering problems in the area of automotive structural durability. Center researchers accomplish this by developing techniques for automotive components modeling, subsystem and full vehicle dynamic simulation, stress and fatigue life prediction, and design optimization.
Bio-MicroElectro Mechanical Systems Lab
Coordinator: Nikos Chronis
2178 GG Brown
Biomechanics Research Laboratory
The Biomechanics Research Laboratory (BRL) maintains an international reputation for research excellence. Investigations in BRL are aimed at exploring the mechanical causes of neuromuscular and musculoskeletal disabilities, diseases, and injuries. The lab seeks to gain basic insights into problems that have wide socioeconomic impact, from spine deformities in the young to falls in the elderly. Fundamental research is carried out that seeks to understand how the brain coordinates and controls a myriad of muscles in human locomotion and how aging affects that control. Scientific hypotheses are formulated and tested using experimental and analytic tools. The insights gained are used in medicine, ergonomics, kinesiology, psychology and other fields to improve preventive, diagnostic, therapeutic, and rehabilitative techniques.
Cavitation and Multiphase Flow Laboratory
Coordinator: Steve Ceccio
The Cavitation and Multiphase Flow Laboratory is devoted to the study of a wide variety of multiphase flows, including gas-liquid flows, solid-gas flows, three-phase flows, cavitating, and boiling flows on both the laboratory and full scales.
Center for Aluminum Metallurgy and Processing
Center Coordinator: Amit Ghosh
2102 HH Dow
The Center for Aluminum Metallurgy and Processing (CAMP) is an interdisciplinary center aimed at enhancing the use of aluminum alloys through research along several fronts: the physical and mechanical metallurgy of aluminum alloys, their processing to a variety of conventional and non-conventional product forms, their forming and joining to fabricate components, and to invent alloys and composites with superior structural properties.
Center for Dimensional Measurement and Control in Manufacturing
The Center for Dimensional Measurement and Control in Manufacturing is a National Science Foundation - Industry/University Cooperative Research Center. The Center maintains a strong industry/university cooperative research program with three focused thrust areas: (1) dimensional measurement principles and systems, (2) dimensional control for machined parts, and (3) dimensional control of stamped parts. The Center brings together expertise from mechanical engineering, industrial and operations engineering, electrical engineering and computer science, and materials science and engineering, to address research needs and challenges in dimensional measurement and control.
Center for Intelligent Maintenance Systems
U-M Co-Director: Jun Ni
1206 HH Dow
Center for Intelligent Maintenance Systems (CIMS) is concentrated on bringing about innovations on predictive maintenance technologies, including intelligent machine degradation assessment methodologies, e-prognostics, and e-diagnostics to enable manufacturers and customers to have products and machines with near-zero breakdown conditions. The IMS plans to develop intelligent prognostics software such as digital Watchdog Agent TM (prognostics on a chip and algorithm) for in-situ machine degradation assessment and remote monitoring as well as web-enabled agents for internet augmented intelligent maintenance and e-service business decision-making systems (e.g. e-business tools).
Center for Laser Aided Intelligent Manufacturing
The Center for Laser Aided Intelligent Manufacturing (CLAIM) is a university/corporate partnership dedicated to advancing the applications of laser technology to such materials processing/manufacturing applications as welding, drilling, cladding, chemical vapor deposition, ablation, direct metal deposition and surface treatment.
Center for Lasers and Plasmas for Advanced Manufacturing
Center Mission: The University of Michigan Center for Lasers and Plasmas for Advanced Manufacturing is created to develop a fundamental understanding of laser-aided intelligent manufacturing to reduce lead-time for concept-to-product manufacturing for U. S. industry.
Combustion and Synthesis Kinetics & Diagnostics Laboratory
The Combustion and Synthesis Kinetics & Diagnostics Laboratory is a facility where a range of laser-based diagnostics will be used to investigate basic characteristics of fundamental processes that are either related to combustion, especially pollutant formation, combustion-assisted materials synthesis, or chemical fire suppression and sprays. Its intention is to be both productive for the projects of individual interest and to be used as a resource pool for the rest of the thermo-fluid science faculty. Furthermore, the combination of all available equipment will result in efficiencies of scale.
Compliant Systems Design Laboratory
The Compliant Systems Design Laboratory (CSDL) develops novel engineering solutions by utilizing mechanical compliance in design. The lab also develops analytical and computational tools for synthesis and analysis of compliant mechanisms integrated with actuators to form compliant system. Applications include microelectromechanical systems (MEMS), Adaptive Structures, and Product Design for No-Assembly (DNA).
Computational Mechanics Laboratory
Established in 1988, supports more than 20 doctoral students, post-doctoral scholars and visiting professors working with Professors Greg Hulbert and Noboru Kikuchi, facilities include more than 15 engineering workstations, along with a multimedia presentation lab.
Computational Mechanics Laboratory
Coordinator: Noboru Kikuchi
Affiliated Member: Zheng-Dong Ma
Computer methods for mechanical engineering are intended. More specifically, basis for CAE including design optimization and nonlinear mechanics is the main research topic. Many CAE related computer codes have been developed, and they are still now integrated in some commercially available CAE software.
Computational Physics Group
The Computational Physics Group works on theoretical and computational aspects of problems in Biological Physics, Materials Physics and Mechanics, using methods of nonlinear continuum mechanics, numerical analysis and applied mathematics.
Computational Reacting Flows Laboratory
The Computational Reacting Flows Laboratory explores diverse high-fidelity numerical modeling approaches to fundamental and practical combustion and reacting flow systems that are applicable to internal combustion engines, gas turbines, micro-combustors, and fuel reformers for fuel cells. The Laboratory is equipped with a 24-CPU Linux cluster based on Intel Pentium 4 processors, and a number of serial workstations for large-scale simulations.
The Design Laboratory of the University of Michigan, from its creation in 1989, has been a leader in innovative application of engineerng design. Our faculty span the breadth of the Design Science horizon and we are constantly stretching those boundaries into even more novel areas such as MEMS, Environmental Design, and Smart Materials and Structures. Our main strength is our team sprit. Collaboration and interdisciplinary research and education produce a unique mix of talent and experience here. With so many players in such a variety of areas, we bring more to the field.
Energy Storage and Materials Simulation Lab
Phoenix Memorial Energy Institute Laboratory
The Energy Storage and Materials Simulation Lab (ESMS Lab) aims to address the materials and systems-level challenges facing the development of efficient methods for high-density energy storage. Our primary emphasis is on applications in transportation (fuel cell and battery electric vehicles) and power generation (enabling base-load intermittent sources). We make extensive use of high-performance computing, and have additional expertise in the areas of mechanical properties of materials, surface & interface science, metallic alloys, and multi-scale modeling.
Engineering Research Center in Reconfigurable Machining Systems
Director: Yoram Koren
Affiliated Member: Dawn Tilbury, Elijah Kannatey-Asibu Jr., Galip Ulsoy, Jack Hu, James Moyne, Jun Ni, Reuven Katz
1100 HH Dow
In 1996, with an 11-year grant from the National Science Foundation, leading manufacturers and the State of Michigan, Professors Yoram Koren and A. Galip Ulsoy inaugurate the Engineering Research Center for Reconfigurable Manufacturing Systems (RMS). It was a massive response to industry's need for speedier transformation of manufacturing in an era of overwhelming technological change. The RMS Center was the first NSF-sponsored ERC in the U-M College of Engineering.
From 2007 to 2010 the ERC/RMS has continued its stream of innovations, funded by sole industry support. ERC/RMS methodologies, patents and machines have been implemented in industry and improved product quality and factory productivity by significant margins. Professor Koren was the Center Director from its launch in 1996 through 2010 and Professors Ulsoy and Jun Ni have served as deputy directors.
Total funding for the Center through 2009 was $48M. The testbed, facilities, student areas and conference rooms were built and furnished using ERC/RMS.
Environmental and Sustainable Technology Laboratory
The Environmental and Sustainable Technology Laboratory (EAST) is dedicated to technology, knowledge, and policy innovations that reduce the impact of engineering design and manufacturing decisions on the environment. Primary activities include the life cycle evaluation of technology systems and fundamental research leading to novel technologies that minimize environmental and health risks in manufacturing.
Fuel Cell Control Systems Laboratory
The experimental set-up in the Fuel Cell Control Systems Laboratory allows the implementation of multivariable controllers, fault detection, and diagnostic algorithms for the regulation of reactant flow and pressure, stack temperature, and membrane humidity. It is anticipated that the development and testing of real-time control and diagnostic systems will accelerate the use of Fuel Cells by enhancing their safety, increasing their efficiency, and ensuring their robustness in real world applications. The lab collaborates with The Schatz Energy Research Center, Ford Motor Company, United Technologies, National Science Foundation and the Automotive Research Center.
General Motors/University of Michigan Collaborative Research Laboratory in Advanced Vehicle Manufacturing
University Co-Director: Jack Hu
The General Motors Collaborative Research Lab in Advanced Vehicle Manufacturing (GM/UM AVM CRL) was established to carry out research and development activities in areas that are of critical importance to GM's vehicle manufacturing operations, with particular emphasis on automotive body manufacturing processes and systems. It also helps facilitate the exchange of technical personnel and knowledge between GM Research and Development and the University of Michigan. Current research thrust areas include assembly, welding and joining, metal forming, and manufacturing systems.
General Motors/University of Michigan Engine Systems Research Collaborative Research Laboratory
The General Motors/University of Michigan Collaborative Research Lab in Engine Systems Research (GM/UM ESR CRL) was established to carry out research and development activities in areas that are of critical importance to GM's internal combustion engine and aftertreatment systems research and development. The GM/UM ESR CRL leverages the special expertise of the University of Michigan to understand and exploit the fundamental processes which control engine operation in order to maximize efficiency and minimize emissions. It also helps facilitate the exchange of technical personnel and knowledge between GM Research and Development and the University of Michigan. Current research thrust areas include development and application of optical diagnostics to direct-injection engines, thermal characterization of direct-injection engines, premixed diesel combustion and aftertreatment, and modeling of engine and aftertreatment systems.
GM/UM Advanced Battery Coalition for Drivetrains
The GM/UM Advanced Battery Coalition for Drivetrains (ABCD) is designed to create validated battery material, cell, and pack models, to speed their insertion into advanced electrified drivetrains, and to educate successive generations of industrial and academic workers to execute the resulting technology plans. ABCD is designed further to promote collaboration with university, government, and industrial partners in advanced technology workstreams that admit new technology challenges and workers and integrate them with ABCD's overall aims.
GM/UM Smart Materials & Structures Collaborative Research Laboratory
University Co-Director: Diann Brei
The mission of the GM/UM SMS CRL is to exploit the emerging capabilities of smart materials and structures to create and support innovative advanced device technologies for automotive applications of value and interest to GM and extension to dual technologies for strategic partners.
Ground Robotics Research Center
The GRRC conducts research in autonomous ground vehicles and mobile robots.
Director: Brent Gillespie
The Haptix Laboratory is home to a set of research projects aimed at developing and applying human/machine interface devices to exploit the human sense of touch (haptics).
Heat Transfer Physics
The Laboratory on Transport, Reaction, and Phase Change in Porous Media synthesizes and analyzes porous media for heat and mass transfer applications. The approach of the lab combines the fundamentals and applications of thermal transport, and materials with special functions for this particular medium. Scientists/engineers trained in this discipline acquire the knowledge in fundamental sciences, with a large range of length and time scales and physical and chemical phenomena, and in scores of applications, that directly affect the industry and the environment. Objective: Our research is on transport and transformation kinetics of thermal energy involving phonon, electron, fluid particle and photon, with innovative use in new technologies. Our current projects include, molecular design of thermoelectric materials used for cooling or power generation. While small electronic band gaps and relatively high carrier concentrations help with desirable enhancing electrical properties (Seebeck coefficient and electrical conductivity), enhancing phonon scatterings help with desirable lowering phonon conductivity. Using quantum and molecular dynamics computation, we search for molecular structures (including nano-structures) with high thermoelectric figure of merit. In laser cooling of ion-doped crystals, the absorbed photon has a deficit in overcoming the electronic gap and this is made up by absorbing phonons (thus cooling the crystal). We look at increasing the efficiency (and extending the cooling range to cryogenic temperatures) of this laser cooling by optimizing the photon absorption using nano powders, and by examining the role of crystal phonon density of states and the dopant concentration. In MEMS cryo-cooler project, we use a novel staged micro thermoelectric cooler designed to cool functional microstructures. The thermoelectric materials used are telluride compound films, and with complete back etching and using suspension posts, we plan to eliminate substrate parasitic heat transfer. We also examine onset of motion of dropwise condensate (on inclined substrate) under applied DC potential, experimentally, with theoretical description based on overcoming of the static three-phase contact line (TCL) friction by electrowetting (i.e., exerting electrostatic force thus causing an imbalance in TCL surface tension forces).
Human Biomechanics and Control Laboratory
The Human Biomechanics and Control Laboratory (HBCL) studies the mechanics, energetics, and control of human movement. Mechanics refers to the importance of the dynamics of the human body in nearly all movements. Inertia of the limbs and other body segments places constraints on what movements are possible, and how much effort is needed to produce them. Muscles have mechanical properties such as elasticity that also constrain or determine movements. Laboratory techniques for studying mechanics includes analytical models, computational simulations, and recordings of kinematics and forces produced during movements. Energetics refers to the metabolic or chemical energy expended by humans to produce movement. Minimization of energy expenditure is an important factor in most movements. It may be estimated through measurements of oxygen consumption. The HBCL incorporates models and/or measurements of energetics in many studies. Control refers to the central nervous system's influence through feedback and feedforward commands to the muscles. The HBCL applies methods of control systems design and analysis to the study of human movement.
Hybrid Vehicle Systems Lab
The lab develops tools and methodologies for design, analysis and optimization of complex hybrid vehicle propulsion systems. The fundamental insight related to energy conversion and storage supports development of predictive models and system integration. The lab pursues modeling and simulation of new concepts and demonstrations using the engine- or powertrain-in-the-loop capability.
Integrated Manufacturing Systems Laboratory
Director: Jun Ni
1100 HH Dow
The Integrated Manufacturing Systems Laboratory is the largest manufacturing laboratory in the US, with numerous machine tools, measurement and inspection systems and other research equipment. This facility houses the activities of the Engineering Research Center for Reconfigurable Machining Systems (ERC-RMS) and the S. M. Wu Manufacturing Research Laboratory.
Jianping Fu's Group
My group's interests lie at the nexus of micro/nanoengineering, applied physics, biology and biotechnology. In the coming years, we will focus on developing integrated systems for high throughput quantitative micro/nanoscale analysis of molecular and cellular functions. More specifically, we will develop integrated techniques to investigate biomolecules confined in micro/nanofluidic environments. We will study molecular interactions with nanofluidic structures and explore the opportunity of using nanofluidic devices for ultra-sensitive biosensing and detection. We are also interested in developing synthetic micro/nanoscale ex vivo stem cell microenvironment to direct stem cell behaviors, and further employing them to identify the extrinsic physical factors and their downstream signaling pathways that regulate stem cell functions.
Laboratory for Automation and Mechanical Structures (LAMS)
The focus of research in LAMS is in two areas: (1) Automation of mechanical systems, and (2) dynamics and vibration of mechanical structures.
Laboratory for Innovation in Global Health Technology (LIGHT)
The Laboratory for Innovation in Global Health Technology focuses on the co-creative design of low-cost and simple technology solutions to healthcare challenges in resource-limited settings.
Laboratory for Transport & Interaction in Porous Media
The Laboratory on Transport and Interaction in Porous Media synthesizes and analyzes porous media for heat and mass transfer applications. The approach of the lab combines the fundamentals of thermal transport (phonon, electron, fluid particle, and photon) and interaction (energy coversion), with special functions for this particular medium. Scientists/engineers trained in this discipline acquire the knowledge in fundamental sciences, with a large range of length and time scales and physical and chemical phenomena, and in scores of applications, that directly affect the industry and the environment.
Laboratory for Turbulence Physics and Computation
Director: Rayhaneh Akhavan
2016 GG Brown
The Laboratory for Turbulence Physics and Computation seeks basic insight into the complex physics of turbulent flows through numerical simulations in order to develop novel turbulence control and turbulence modelling strategies.
Laser Materials Processing Laboratory
The Laser Materials Processing Laboratory conducts research in many facets of laser manufacturing including weld pool fluid flow, heat affected zone microstructure, thermal analysis of dual beam laser welding, on-line monitoring of laser weld quality, and process monitoring.
Materials Characterization Lab
Mechanical Properties of Materials Laboratory
The Mechanical Properties of Materials Laboratory does numerical and experimental research in the fracture and deformation of engineering materials.
Mechanical Testing Lab
The Mechanosynthesis Group is led by Prof. John Hart in the Department of Mechanical Engineering at the University of Michigan. Our research focuses on nanostructured materials, ranging from fundamental studies of synthesis and structure, to development of novel material and device applications, to creation of production techniques which realize these applications at commercial scales. Many of our initial projects involve carbon nanotubes, which are long molecular structures having exceptional mechanical stiffness and strength, high electrical and thermal conductivity, and unique chemical and optical functionalities. We aim to foster a highly creative, energetic, and focused research environment. We utilize skills and insights from many disciplines in engineering and science, and we apply these tools to build elegant solutions to our research questions. We collaborate with many research groups and industrial partners throughout the world. Please contact us if you'd like to join the group, collaborate, visit, or comment on our work.
Michigan Industrial Energy Center (MIEC)
The Michigan Industrial Energy Center is located at the University of Michigan within the Department of Mechanical Engineering. The MIEC team consists of industrial energy efficiency experts who have conducted over 300 industrial energy assessments, published numerous articles on industrial energy efficiency, and provided training to thousands of energy managers nationwide.
Microsystems Technology and Science Laboratory
Mobile Robotics Laboratory
The Mobile Robotics Laboratory develops and prototypes experimental mobile robot systems including innovative mobile robots, obstacle avoidance systems, positioning systems, and robotic aids for the disabled.
Multiscale Computational Nanoscience Laboratory
The research carried in this laboratory aims to develop a multiscale computational nanoscience to study the formation and fate of nanoparticles in the environment. The use of multiscale methods, such as the Kinetic Monte Carlo technique combined with Molecular Dynamics, makes it possible to follow the transformations that occur during nanoparticle formation and their interactions with other systems in a chemically specific way, providing information on both the chemical structure and the configuration of the system (i.e. their agglomerates).
The research interest/mission/fields of the Nanomechanics Laboratory include molecular and cellular biomechanics, single molecule biophysics, biomolecular nanotechnology, cell physiology, comparative functional morphology and ultrastructure, development of microscopy-based techniques for the manipulation and detection of single molecules.
Optimal Design Laboratory
The Optimal Design (ODE) Laboratory is dedicated to research in design methods and tools that improve the design process and the quality of designed artifacts. The analytical decision-making paradigm is used to study product development methods from an interdisciplinary perspective that includes engineering, business, psychology, art and architecture. Studies in automotive systems, such as hybrid propulsion technologies, are specifically emphasized.
Orthopaedic Research Laboratory
Director: Steven Goldstein
G-161 NIB, 400 North Ingalls
Research in the Orthopaedic Research Laboratories is categorized into ten project groups: clinical research, fracture healing, growth and development, lower extremity sports research, physical force effects on tissues in vivo, physical force effects on cells in vitro, shoulder and knee joint biomechanics research, structure and function of bone and bone constructs, tissue engineering and aging fragility in bone and cartilage.
Powertrain Control Laboratory
The Powertrain Control Laboratory's research addresses the theory and design of control systems for internal combustion engines and advanced powertrains. The lab focuses on transient system behavior for engines equipped with innovative mechanisms: electronic primary throttle, intake runner valves, air by-pass valve, variable camshaft timing actuators, variable valve timing actuators, exhaust gas recirculation valves, variable nozzles turbine and hybrid turbochargers.
Precision Systems Design Lab
This lab conducts research in the design of high-precision high-bandwidth motion systems for macro, micro and nano scale applications. Our design philosophy is based on the principles of Precision Engineering and Mechatronics, and relies heavily on the engineering disciplines of kinematics, mechanics, dynamics and controls.
Quantitative Laser Diagnostics Laboratory
The Quantitative Laser Diagnostics Laboratory is involved in the development and application of quantitative laser diagnostic tools for reactive and non-reactive flows with a particular emphasis on internal combustion engines.
S.M. Wu Manufacturing Research Center
The S. M. Wu Manufacturing Research Center conducts basic and applied research in manufacturing science and engineering. Its broad scope of research consists of six different research laboratories for: assembly and materials joining, dimensional measurement, drill research, in-process quality improvement, machine tools and machining, and sheet metal stamping and material forming.
Sensory Augmentation and Rehabilitation Laboratory (SARL)
The Sensory Augmentation and Rehabilitation Laboratory focuses on the design, development, and assessment of medical devices, especially for balance-impaired populations such as vestibular-deficient patients, patients with sensory deficits (peripheral neuropathies), and the elderly. We also study the effects of aging (and specialized balance disorders) on postural control and balance as well as the design of preventative and rehabilitative devices for these populations.
Smart Materials and Structures Laboratory
The Smart Materials and Structures Laboratory designs smart structures, with particular concentration on the development of innovative actuators incorporating smart materials such as piezoelectrics, electrostrictives, and shape memory alloys. Lab researchers are interested in continuing research in actuators as well as branching out into other smart structure applications such as vibration control, shape control and health monitoring.
Soft Tissue Mechanics Laboratory
The Soft Tissues Mechanics Laboratory (STML) at the University of Michigan studies the soft tissues of the human body, such as skin and heart. The goal is to build on the current understanding of the mechanics of these tissues through experimentation and modeling. At this time, there is particular interest in measuring the constitutive behavior of soft tissues and in developing a better constitutive model that relates the complex structure of the tissue to its mechanical response. Research in the STML is divided into three areas: experimental investigation, constitutive modeling, and finite element simulations.
Solid State Thermal Physics Laboratory
The Solid State Thermal Physics Laboratory conducts research in heat transfer at micro and nano size scales, especially examining electronic/optoelectronic devices and thermoelectric/thermionic effects.
Structural Dynamics and Controls Lab
The research missions of the Structural Dynamics and Controls Lab (SDCL) are to develop better understanding of the dynamic characteristics of mechanical structures, and to create novel analysis, design, and control methodologies for achieving better system performance (e.g. low vibration, high stability, high precision, etc.).
Technical Fluid Dynamics Laboratory
The Technical Fluid Dynamics Laboratory is used to conduct research in a wide range of fluid mechanical and acoustic topics. It currently houses research efforts involving multi-dimensional measurements of liquid polymer flow, detection and localization of hydroacoustic sound sources in reverberant environments, and instrumentation development work for high Reynolds number wall-bounded turbulent flows.
Variable Gravity Research Laboratory
Coordinator: Bill Schultz
Research areas include buble dynamics, dryout/rewetting of heated surfaces under microgravity conditions, pool boiling curves in microgravity, and origin of the dynamic growth of vapor bubbles associated with vapor explosions.
Vibrations and Acoustics Laboratory
Coordinator: Noel Perkins
Affiliated Member: David Dowling, Bogdan Epureanu, Karl Grosh, Kenn Oldham, Christophe Pierre
1106 GG Brown / 2200 EECS
Phone: (734) 936-3824
The Vibrations and Acoustics Laboratory conducts research in vibrations, acoustics, structural dynamics, nonlinear dynamics, and wave propagation.
Walter E. Lay Automotive Laboratory
Coordinator: Volker Sick
Affiliated Member: Aris Babajimopoulos, Stani Bohac, Zoran Filipi, John Hoard
1089 / 2045 W. E. Lay Automotive Lab
True to its namesake, former Mechanical Engineering professor Walter E. Lay (BSE ME '15), the Lay Automotive Lab has supported education and research since the early 1900s. Today, the Lab's research interests are wide-ranging but generally associated with: engine friction, combustion, emissions control, fuel efficiency, vehicular electronics design, and vehicle aerodynamics. It encompasses 20 engine test cells, a five-bay vehicle laboratory, machine shops, and instructional and computer laboratories, including Fluid Mechanics. Michigan Engineering's proximity to Detroit -- the heart of the nation's auto industry -- has made the Lay Automotive Lab a vital contributor to industry.
Wilson Student Team Project Center
Coordinator: Don Geister
Wilson Center Building, 2603 Draper Dr.
Description: meets a critical need by providing students with dedicated space and facilities of teams to compete nationally, 10,000 square-foot center, located behind the Francios-Xavier Bagnoud Building and adjacent to Wave Field.