Campus Labs and Resources
College of Engineering and Computer Science students have access to many campus labs and resources, such as:
- Computer labs across campus, including 1180 HPEC and 183 ELB which specialize in Engineering applications
- UPrint, a networked printing service for students
- UM-Dearborn Wireless Network throughout the campus
Learn more about UM-Dearborn's technology, support, and services from Information Technology Services (ITS).
ME Department Labs
The objectives of the acoustics and vibrations laboratory are twofold: (1) to provide the student with hands-on experience on the use of transducers and instruments to conduct sound and vibration measurements, and (2) to acquire noise and vibrations control experience by completing a self-initiated project with team members. Types of measurements include frequency response function measurement, modal analysis, order tracking, sound intensity, acoustical material absorption and sound transmission loss, binaural sound recording and sound quality evaluation, sound pressure level and acceleration level measurement.
This laboratory has a 10'x10'x12' anechoic chamber with cut-off frequency at 200 Hz. It is also equipped with: four LMS CADAS III FFT digital analyzers, one impedance tube, one artificial head, three sound pressure meters, a sound intensity probe, two standard sound sources, a vibrations stroboscope, one electromagnetic shaker, two force transducers, and various microphones and accelerometers. In addition, four computers plus a laser printer are available for data acquisition and reduction. Analysis and computing software include LMS TestLab Version 10A for structure and acoustics analysis, B & K sound quality program, LMS OPTIMUS, and RAYNOISE software. This equipment is used for research and as teaching tools in the courses ME 349, ME 4461, ME 540, and ME 545.
Location: 1251 HPEC
Faculty in charge: Prof. Cherng
The Additive Manufacturing Processes Laboratory is used for faculty and student research projects in the area of materials synthesis and rapid prototyping. The laboratory is equipped to work with all major thermal spray technologies, consisting of atmospheric plasma spray (APS), low pressure plasma spray (LPPS), high velocity oxy-fuel (HVOF), and twin wire arc spray. Plasma spraying of liquid-based precursors of various materials is routinely being done in the lab. Additionally, this laboratory has cold-spray capabilities and is equipped to work with surface and microstructure modification using a Lambda Physik 3000 200 W KrF excimer laser, operating at 248 nm wavelength. The laser is coupled to a chamber which works under vacuum and ambient conditions, thus offering the capability for microstructure modification under both conditions. Another major piece of equipment in this laboratory is the 5-axis direct metal deposition (DMD) machine, which uses laser cladding technology. Two different lasers, a disc laser and a diode laser, are utilized for manufacturing a variety of materials. The laboratory has a Creaform Handyscan 3D scanner, used for scanning real 3D objects for prototyping and manufacturing inside the DMD machine. The laboratory also has various other tools, such as an electrodeposition system, an ultrasonic homogenizer, an ultrasonic bath, a vacuum furnace, and high-temperature tube furnaces (1200 °C).
Faculty in charge: Prof. Mohanty
The biodynamics research laboratory is designed and equipped to support large scale state-of-the-art human motion studies that address community health issues and provide an experimental environment for federal and industry sponsored projects. Current research applications include the examination of wearable sensors to prevent sport-related knee injury in adolescents and the examination of head impacts and head acceleration in girls’ sports by quantifying the number of head impacts and the linear and angular head acceleration of each impact.
Faculty in charge: Prof. Esquivel
In the biomechanics lab, measurements and mathematical modeling are conducted on soft biological tissues directed toward understanding the behavior of these tissues in the human body, the fundamental response of the collagenous microstructure of soft tissues and their injury response to high rate impact loading. Of particular interest is the behavior of the human eye. Many eye diseases and vision problems are related to the mechano-biological behavior of the eye—the synergy of its mechanical and biological behaviors and functions. Interdisciplinary studies are currently in progress with geneticists and surgeons concerning the disease glaucoma, which is one of the world’s leading causes of blindness.
Faculty in charge: Prof. Argento
The biomicrofluidics and photonics lab leverages novel engineering and untapped physics phenomena to address biomedical needs with a focus on diabetes and wound healing applications. The lab focuses on innovating oxygen microfluidics, pioneering 3D printed microTesla turbines and realizing low cost LED-based frequency domain tissue lifetime imaging to differentiate tissue collagen non-invasively. Members of our team apply these transformative techniques to probe potential diabetes mechanisms, accelerate ultrasensitive biodetections and enable point-of-care applications.
Faculty in charge: Prof. Lo
The bioprocessing and cellular engineering laboratory aims to seamlessly integrate cutting-edge academic research with modern teaching approaches. Core research objectives of the laboratory focuses on characterizing basic cellular functions using a novel technology platform while developing applications in the areas of metabolic disease detection, disease progression and biostabilization. Research employs Raman microspectroscopy based techniques for native state elemental analysis, which affords a non-invasive avenue for quantifying the biomolecules and molecular signatures of interest. The lab team has developed and patented several desiccation techniques for dry-state preservation of cells.
Faculty in charge: Prof.Chakraborty
The Combustion Engines Laboratory has dual purposes: (1) it is used for instructional support in combustion engines courses, including ME 496, ME/AENG 596, and ME 597, and (2) it is used for faculty research and student projects. The laboratory is equipped with several engines, some of which have computer-based controls for fuel management and ignition. The engines are coupled to dynamometers (eddy current, water-brake, and motoring/absorbing types), some of which have microprocessor-based controls and data acquisition systems. As an integral part of the engines laboratory, the test cells have emissions measuring equipment to measure gaseous exhaust species such as CO, NOx, hydrocarbons, etc.
Location: ELB 176,180,182
Faculty in charge: Prof. Varde
The Crash Mechanics Laboratory is used for faculty and student research projects in the area of material behavior subjected to mechanical and thermal fatigue loading at low- and high-strain rates. The laboratory is equipped with an 810 material test system of 25 kN at a strain rate range of 10-5/s to 10-2/s and a temperature range of 100-300 degrees C.; a 810 material test system of 50 kN at a strain rate range of 10-1/s to 10 1/s and a temperature range of 100-300 degrees C. In addition, the laboratory is equipped with a split Hopkinson pressure bar at a strain rate range of 10 2/s to 10 3/s and temperatures up to 150 degrees C. For non-destructive measurement and detection of micro-macro defects in engineering materials, a high-energy and high-accuracy micro-focus X-ray computer tomography system is available.
Location: 1070 IAVS
Faculty in charge: Profs. Chow, Kang
The DENSO Climate Control Education and Research Laboratory is well-equipped to conduct basic and applied research in thermally-related automotive climate control and thermal management projects. The lab is to be used to facilitate research, testing, and educational opportunities in the field of automotive climate control and thermal management. Current research focus is on heat exchanger modeling, design, and development. The lab is also available to provide testing to industry. This service can provide students with unique and exceptional opportunities.
Location: ELB 107
Faculty in charge: Prof. Ratts
The Design and Fatigue Laboratory is intended to illustrate the fundamentals of planned experiments in the mechanical testing of machine components. The individual laboratory experiments are chosen to support the concept that proper testing involves the appropriate loading, environment, material processing, geometry, etc. Thus, the lab is intended to provide the motivation and background for future mechanical reliability tests.
The fatigue component of this lab has five Sonntag fatigue machines: one SF10U with a solid-state mean load controller; two SF1Us, one with and one without a solid-state mean load controller; and two SF01Us, neither of which has a mean load controller. The SF10U is used primarily for fatigue testing of bolted composite joints. The SF1Us and the SF01Us are used primarily for composite specimen testing. The design component of this lab consists of a relatively extensive collection of failure exhibits to illustrate the fracture surface characteristics associated with various modes of failure for a wide range of materials.
Location: ELB 141B
Faculty in charge: Prof. Little
The Dynamics and Control Laboratory is designed to provide students with hands-on experience involving the principles of control engineering and system dynamics. The laboratory is equipped with electromechanical torsional plants, brushless DC servo motors, high-resolution encoders, adjustable inertias, power amplifiers, and data acquisition systems. The electromechanical instruments may be transformed into a variety of dynamic configurations, from rigid bodies to up to three degrees of freedom, which represent important classes of real-life systems. The laboratory enables students to acquaint themselves with real-time implementation of various control strategies as well as system identifications. The laboratory is used primarily to complement the control course (ME 442). It also supports the advanced instrumentation and control course (ME 563) through demonstrations.
Location: ELB 146D
Faculty in charge: Profs. Mei, Shim
This laboratory is used for experimental research and education on the dynamic response and vibration of materials and structures. Tests are conducted in the facility focused on determining: (1) rate dependency, impact response, and energy absorption of materials; (2) constitutive relations; and (3) damping behavior and vibration modes. The laboratory is equipped with high-rate tensile and compression impact testing machines, vibration testing equipment, data processing devices, and a high-speed strain imaging system. Special emphasis is placed on research into the behavior of novel and complex materials, including foamed rigid polymers, shape memory alloys, ocular tissues, plant-fiber reinforced composites, soy foams and elastomers, and nano-materials.
Location: ELB 184A
Faculty in charge: Prof. Argento
This laboratory is designed to provide students with hands-on experience involving the principles of instrumentation and measurement systems. The laboratory is equipped with sensors (accelerometers, strain gages, and microphones), actuators (shakers, impact hammers, and sound sources), charge amplifiers, power amplifiers, oscilloscopes, data acquisition systems, and spectrum analyzers, etc. Students perform a series of measurements that include acceleration measurement, frequency response measurement, strain measurement, and acoustical measurement. Students practice analyzing, interpreting, and presenting their hands-on experimental results. This laboratory is used primarily to complement the instrument and measurement systems course (ME 349).
Location: 1252 HPEC
Faculty in charge: Profs. Cherng, Mei
The Manufacturing Processes Laboratory enables students to learn about tensile testing, rolling, welding, metallographic sample preparation, hardness measuring equipment, heat-treated microstructures, and cold-worked and recrystallized microstructures. Furthermore, the lab introduces students to the evaluation of quality, properties, and manufacturing methods of commercial parts through visual examination, sectioning, digitizing, and printing of microstructures. The lab is used primarily to complement the lectures in the courses ME 381 and ME 481.
This lab is equipped with: a rolling mill used for demonstration and sample preparation with (a) AC/DC stick welders, (b) a DC/MIG welder, (c) a submerged arc welder, and (d) a spot welder; furnace equipment used for preparing samples; hardness testing equipment such as (a) Rockwell testers, (b) Brinnel testers, and (c) a Tukon micro-hardness tester; micro-sample preparation equipment which includes (a) a belt sander, (b) polishing wheels, and (c) a mounting press; micro-sample viewing, digitizing, and printing setups which include (a) microscopes, (b) metallographs, (c) closed-circuit television, and (d) Amiga computer equipment; and two tensile testing units, (a) a Baldwin universal testing machine, and (b) a Tinius Olsen universal testing machine.
Location: 160 MSEL
Faculty in charge: Prof. Reyes
The Nanoscience and Engineering Laboratory has dual objectives: (1) instructional purposes in the introduction to the nanoscience and engineering course (ENGR 350), and (2) faculty and student research projects. The laboratory provides hands-on experience to students on nanoscale phenomena and nano-devices. Various research projects in the area of amorphous and nanocrystalline materials, battery materials, and sensors are being carried out in this laboratory. The laboratory was developed with grants from the National Science Foundation and is currently equipped with an optical microscope, an Hitachi scanning electron microscope with EDX facility, and an Hitachi transmission electron microscope unit (funded by NSF in 2009). Additional funding was provided by NSF and was used to procure an atomic force microscope (AFM), a scanning tunneling microscope (STM), a scanning electrochemical microscope (SECM), and a nanolithography facility. Additional equipment in the lab includes an X-ray diffractometer (XRD), a differential scanning calorimeter (DSC) with thermal gravimetric analysis capabilities, a Tribometer, a high temperature Tribometer, and a Solartron electrochemical analysis system. This laboratory also houses a glove box to handle active materials and facilities for battery testing.
Location: ELB 152, 153, 154, IAVS 1025
Faculty in charge: Prof. Mohanty
The goal of the nanotheranostics research laboratory is to contribute in the fields of nanotechnology, drug delivery and biotransport research and teaching activities. The lab is designed and equipped to support nanoparticle development and characterization, biochemical and biophysical characterization of protein aggregation, and cellular efficacy studies. Current research focuses include application of nanotheranostics in stress related pathologies such as cancer and neurodegenerative diseases. The research could aid in the development of novel nanoformulations with high therapeutic index and minimal toxicity.
Faculty in charge: Prof. Kanapathipillai
The focus of the soft biomaterials laboratory is fundamental understanding as well as development of hydrogels (polymeric networks) for biomedical applications with special emphasis on tissue regeneration and tumor engineering. There is a great demand for replacing diseased organs and tissue. However, the huge gap between demand and supply of organs/tissues highlights the need of alternative treatment modalities. Advances in synthetic chemistry and improved understanding of cellular behavior can potentially help to bridge this gap. The research team is involved in 1) developing and tuning the biochemical and biophysical properties of novel polymeric materials, 2) investigating interaction of cells with these materials, 3) 3D printing scaffolds with desired porous architecture and 4) applying tissue engineering principles to bioprint tumor models for drug screening.
Faculty in charge: Prof. Ghosh
The Thermal-Fluids Laboratory is designed to enhance the undergraduate students' understanding of thermal-fluids principles within the context of engineering applications. The laboratory assists students in developing their laboratory skills and experimental capabilities. In addition to performing pre-designed experiments in fluid mechanics, thermodynamics, and heat transfer areas, students also work on projects which demonstrate their ability to apply knowledge of engineering thermal-fluid principles and instrumentation to new problems.
The laboratory is equipped with a Technovate convection unit to predict the convection heat transfer coefficients over objects such as discs and cylinders; a Technovate conduction unit to measure transient and steady state temperature distributions in various materials, including the prediction of thermal contact resistance; a lab science setup for the measurement of effectiveness of cross flow heat exchangers (and also for prediction of surface emissivities of plates); an Oriel system for the spectral measurements of radiative properties; a setup to demonstrate the temperature distribution on extended surfaces; laser Doppler velocimetry; water tables for studying flow through pipes and channels; various devices such as laminar flow elements, micro-manometers, and velocity meters; a refrigeration system; humidity analysis equipment; and transparent Otto cycle engines. Some of these experiments are connected to data acquisition systems for data logging and analysis. The laboratory also has several portable devices for measuring temperature, pressure, flow, and other quantities which are used by students in their projects.
Location: 1241 HPEC
Faculty in charge: Prof. Ratts