ME8 Research Capabilities
The Mechanical Engineering Department has faculty, staff, graduate, and undergraduate students involved in research projects in various areas. Overall, the unit is very strong in materials and thermal related research. Examples of current research include biofuels testing, high temperature materials for efficient and clean power generation, structural materials for aerospace systems, and piping systems for petrochemical industry and infrastructure applications.
- Research Focus Areas and Capabilities
- Selected Research and Development (R&D) Activities
- Faculty Members and Expertise
- Research and Instructional Labs
- Available Equipment (under construction)
- Faculty Research Projects (under construction)
- Research Publications (under construction)
- Faculty Resumes (under construction)
Research Focus Areas and Capabilities
Manufacturing: Computer Integrated Manufacturing, Data Dependent systems, Machine Vision/Image Processing, Manufacturing, Mechatronics, Metrology, Robotics and Statistical Data Processing
Materials: High Temperature Testing, Industrial Metallurgy and Materials Engineering, Materials Processing, Mechanical Behavior of Materials/Microstructure and Nanocrystalline Materials
Thermal Science/Fluids: Combustion and Reacting Flows, Computational Fluid Dynamics and Heat Transfer, High Heat Flux Applications and Multi-phase Transport Processes and Phase change in Porous Media and in Manufacturing Processes
Energy Conservation: HVAC, Solar Energy System Design, Alternative Energy, Computer-based Preventative Maintenance, Energy Management Control System Analysis, and Computer Simulation of Buildings
Composite Materials: Chemical Characterization and Surface Analysis, Composites Manufacturing, Mechanical and Impact Testing, Thermal Analysis
Experimental Solid Mechanics: Thermal Stresses, Mechanics of Materials and Material Properties
Failure Criteria and Stress Analysis: Solid Modeling & Finite Element Analysis
Selected Research and Development (R&D) Activities
- Providing technical training in the form of a seminar presenting:
- § On current thermal characterization data for the materials of interest
- § On structural characteristics (tensile/compressive strength vs. temperature, etc.)
- § On cost comparisons
- § On manufacturing technologies and limitations
- § Any other data relevant to possible use of the material in a space environment
- Investigate processing of high temperature thermal barrier coatings (TBC) materials for structural applications, thermal protection, and gas turbine engines
- Design and performance analyses of coatings
- Conduct research on coatings deposition science and technology and characterization of coatings structure / property relations - collaborative research with other institutions
- Applications of high temperature advanced composite materials, thermo-physical property measurements and evaluations
- Conduct research on thermal and mechanical performance of high temperature materials
- Electron microscopy and structure evaluations
- Investigate fuel cell systems and materials for clean power generation
Faculty Members and Expertise
For research assistance or contract work in these areas, please contact the following researcher(s): Reference: Revised COE Capabilities Statement-09-30-08
Blevins, Edgar R., Ph.D. Professor; Project/Engineering Management, Automotive Technology, Computer-Aided Design and Drafting & Computer Integrated Manufacturing Systems.
Karen Crosby PhD, Professor; Characterization of Material Properties
Ravinder Diwan, PhD, Professor; Advanced materials, characterization of material, structure-property relations, quantitative microscopy, fractography, materials modeling
Samuel Ibekwe, PhD, PE, Professor; Impact response of composite materials, experimental solid mechanics, and finite element analysis of engineering structures
Amitava Jana, PhD, Professor; Numerical Computations Control and Simulation
H. Dwayne Jerro, PhD, Professor and Chair; Robotics, Wind Energy Modeling, Computational Materials
Ghanashyan Joshi, Professor:, High-temperature materials: processing and testing; computational modeling for design, manufacutrung processes, control, and optimization; prognotics and health management; staistical analysis; sutainability; automation and machine vision
Guoqiang Li, PhD, Professor; Joint Faculty with LSU; Fiber Reinforced Composite Materials and Nanocomposites
Patrick F. Mensah, PhD, Professor; Heat Transfer and Thermo-Mechanical Characterization of Advanced Composite Materials and Polymeric Materials, Computational Fluid Dynamics and Two phase flow systems
Habib Mohamadian, PhD, PE Professor and Dean; Material characterization, solid modeling, failure analysis, and assessment
Eyassu Woldesenbet, PhD, PE, Professor, Joint Faculty with LSU: Advanced Composite Materials and Structures
Research & Instructional Labs
Room No. Laboratory Professor(s) In-Charge 399 Aeronautical (Thermal Characterization) Drs. Mensah, Jerro 157 CAVE Dr. Jana, Li 131 Energy Conversion (Renewable and Internal Combustion) Dr. Mensah 160 Composite Drs. Woldesenbet, Li 156 Computer Aided Manufacturing / Materials Characterization Drs. Joshi, Jana 159 Corrosion Drs. Diwan, Crosby 392 Fluid Mechanics (Instructional) Dr. Huang 397 Heat Transfer (Thermal Characterization) Dr. Mensah 134 Machine Shop Dr. Joshi 150 Manufacturing Drs. Joshi, Jana 163 Materials Processing Drs. Crosby, Diwan, Li 398 Measurements Dr. Jana 396 Mechatronics Dr. Jana 448 Model Shop Dr. Blevins 118 Solid Modeling and CADD (Instructional) Dr. Jerro, Blevins 148 Structures/Mechanics Drs. Woldesenbet, Li, Crosby
Aeronautical (Thermal Characterization)
Drs. Mensah, Jerro
Dr. Jana, Li
Energy Conversion (Renewable and Internal Combustion)
Drs. Woldesenbet, Li
Computer Aided Manufacturing / Materials Characterization
Drs. Joshi, Jana
Drs. Diwan, Crosby
Fluid Mechanics (Instructional)
Heat Transfer (Thermal Characterization)
Drs. Joshi, Jana
Drs. Crosby, Diwan, Li
Solid Modeling and CADD (Instructional)
Dr. Jerro, Blevins
Drs. Woldesenbet, Li, Crosby
Aerospace - Room 399
The aerodynamic and fluid mechanics laboratories with a 0-140 fps wind tunnel, a water tunnel, and a 3-D Laser Doppler Anemometer are used in funded research project and part of instructional experiments for MEEN313 (Fluid Dynamics).
Composite Materials and Structures Laboratory (CMSL) - Rooms 158 & 160
CMSL is a center for composites research in the state of Louisiana established in 1999. It encompasses Southern University and Louisiana State University of Baton Rouge which are actively involved in the research of composite materials.
The objective of CMSL apart from acting as a research facility in the area of composite materials is to provide research opportunities to young undergraduates who are interested in pursuing a career in the area of composites. In this direction, courses are being offered in composite materials to introduce the students to basics. Undergraduate students are also actively involved in the various research projects.
The research activities of CMSL comprise of fabrication, testing, and analysis of composite materials and structures, including nanocomposites, syntactic foam, smart composites, particulate-filled composites, grid stiffened composite structures, sandwich structures, laminated composite structures, fiber reinforced polymer tube encased concrete cylinders, repair/rehabilitation/reinforcement/ reconstruction of degraded or damaged infrastructures using composites, composite piping systems, pressure vessels, and smart composite joints. CMSL is excelled in its various state-of-the-art equipment and facilities to conduct materials characterization and to evaluate structural response. The research activities in CMSL have been funded by NSF, DOE, NASA, ARO, ONR, AFRL, FHWA, NGA, USDA, USACE, TRB, LaBoR, LTRC, MBTC, LaSPACE, and various industries. Faculty members associated with this lab have many high quality refereed journal publications, book chapters, conference proceedings/ presentations, and invited/distinguished talks. The typical equipment in CMSL is listed below:
- A Cordin 550 High Speed Imaging System (up to 1.5 million frames per second);
- Split Hopkinson Pressure Bar;
- A Home-Made Two-stage Light Gas Gun Device (capable of velocity 2,000m/s);
- 16mm/40mm Two Stage Light Gas Gun by Physics Applications Inc. (purchasing in process);
- UltraPAC Ultrasonic Imaging System;
- Sonic Model VC-750 ultrasonic mixer for nanocomposite;
- Airtech Vacuum Assisted Resin Infusion Molding (VARIM) System;
- NETZSCH type 50 bench-top three-roll mill for nanocomposites;
- Nanotrac 150 particle size analyzer;
- Instron 3200 series internal pressure tester;
- RAZ-IR Infrared Camera;
- A Cooper LVDT system;
- A Yokogawa DC-100 data acquisition system;
- Dynamic Mechanical Analyzer (DMA) Q800;
- A dedicated lathe machine for composites machining;
- QUV Accelerated Weathering Tester-simulate every possible environment;
- Environmental Chamber-used for humidity and temperature control;
- Precision Automatic Surface Cutter-3D High precision cutting;
- A 50-ton Laboratory Press with 2 Platens;
- Hot Press-used for the fabrication of composite plates;
- RTM-resin transfer molding equipment;
- A WLH two-axis filament winder.
Computer Integrated Manufacturing Laboratory - Room 156
In design and manufacturing area a CAD/CAM laboratory coupled with a computer-integrated manufacturing (CIM) laboratory provide hands-on experience and an understanding of the design to manufacturing concept. Computer Integrated Manufacturing (CIM) embodies three components essential to the implementation of flexible design & manufacturing -- the means for information storage, retrieval, manipulation and presentation; the mechanisms by which to sense state, and modify substance; and the methodologies by which to unite them. The Computer Integrated Manufacturing Laboratory (CIM Lab), founded in 1994, provides students and research associates with necessary facilities to contribute to the success of this goal. The CIM laboratory houses a fully computer-integrated manufacturing cell equipped with a robot, CNC milling machine and lathe, Allen-Bradley PLC and machine vision system. Mazak CNC lathe, a Bridgeport CNC milling machine, and Brown & Sharp Gage 2000 R co-ordinate measuring machine (CMM) are also available in CIM laboratory.
The IMTL Facility Laboratory - Room 148
The Integrated Mechanical Testing Laboratory is a facility for:
- Mechanical properties of materials
- Tension, compression, bending, shear, Impact, fatigue, residual stresses, high temperature testing
- Variety of materials such as metals, ceramics, plastics, composites.
- Stress analysis
- Vibration testing
- Failure analysis
- Crack growth characterization. Fracture tests for toughness determination.
- Materials testing per ASTM specifications
- Computational mechanics and finite element modeling and verification
- Durability studies
- Undergraduate mechanical testing lab
- LabView Programming and Instrumentation Interfaces
Several state of the art closed loop uniaxial test systems for testing of materials and structures are available for general testing purposes. These test machines are rated from 450 N to 500 kN (100 lbs - 110 kips) in axial force capacity and are computer controlled. Facilities include hardware and software systems in digital controller technology, instrumentation for displacement and strain measurement, multi-channel data acquisition, digital data processing software. Environmental chambers exist for testing specimens from -100ºF to 3,000ºF. Experiments such as fracture, creep, fatigue, and cyclic loading can be conducted on various materials and structures.
The department's material testing capabilities in the area of materials science and engineering consist of an Instron 1230, a 55 kips rated MTS 810 Servo-hydraulic Universal Testing Machine equipped with numerical controlled hardware and software for mechanical testing up to 1000° C, a Dynatup Model 8250HV High Velocity Impact equipment integrated with an environment conditioning system for a testing temperature range of -50° to 175° C, fully computer control and data acquisition system, and a multi-specimen fatigue machine.
- MTS 810 Servohydraulic Testing Frame, 100 kN capacity equipped with MTS TestStarIIS control system and Multipurpose Testware software
- Furnaces for high temperature testing: 400 C, 1100 C (2), 1500 C
- High pressure cell
- Load Cells: 10 kN, 100 kN (2), 250 kN
- Extensometers for tensile testing
- Clip gauges for fracture mechanics testing
- Fixtures: Hydraulic Wedge grips for tensile testing, Collet grips for tensile testing, Wedge action grips for tensile testing, Clevis grips for fracture mechanics testing
Both the CSML and IMTL research laboratories resulted from the synergy between the mechanical programs of Southern University, and Louisiana State University. The Joint faculty members coordinate these laboratories.
Engineering Materials Laboratory - Room 163
This laboratory facility houses equipment for characterization of engineering materials. The department's material testing capabilities in this area of materials science and engineering consist of an in-house microscopic image processor, and a Scanning Electron Microscope (Hitachi S-2460N) for fractography and microstructure analysis. Also, a complete set of equipment for light microscopy and metallography is available. Metallographic equipment is shared with instructional laboratory.
Mechatronics - Room 396
Mechatronics technology emerged from the fusion of Mechanical Engineering, Electrical Engineering and Computer Science. In order to accommodate this emergent technology in the engineering curriculum, the Mechanical Engineering Department developed an interdisciplinary mechatronics laboratory and a course (in collaboration with Electrical Engineering) with support from the National Science Foundation and the Louisiana Board of Regents.
The present mechatronics laboratory includes various physical systems such as fluid, manufacturing, robots, DC motors, stepper motors, and toy trains. Some general-purpose instruments such as an oscilloscope, function generator, and multimeter are also available in the laboratory for testing and troubleshooting. All these physical systems can be controlled by computers through a suitable electronic interface. The main objective is to provide hands-on interdisciplinary mechatronics design experience to the students.