Manufacturing systems and processes, CNC machine tools, mechanical and mechatronics design and analysis, high performance machining, CAD/CAM/CAE, production technologies
Transportation planning and policy analysis; Environmental impact of motor vehicles.
Vivek J. Srinivasan
Biophotonics technologies for basic and translational research and clinical diagnostics , neuroimaging, neurovascular coupling, cerebral blood flow and metabolism, in vivo functional optical imaging, light-tissue interactions.
Professor Stroeve conducts fundamental work on colloid and surface science, self-assembled monolayers, Langmuir-Blodgett films, supramolecular structures on surfaces, supported lipid bilayers, transport in colloids and tissues, nanotechnology, bio-nanotechnology, lithium ion batteries, solar energy, and membrane separations.
My research interests span programming languages, software engineering, and computer security, focusing on developing methodologies, techniques and tools for improving software reliability & security and programming productivity.
Computational solid mechanics, applied mathematics, finite elements and meshfree methods, fracture mechanics, ab initio (Kohn-Sham equations of density functional theory) electronic-structure calculations, computational geometry, level set and fast marching methods, convex optimization, parallel computing.
Julie L. Sutcliffe
Development of novel imaging probes and chemistries for PET.
Our lab’s interests span a variety of topics related to evolutionary, synthetic and systems biology. We employ machine learning, graph theory, mathematical optimization, multiscale modeling and HPC simulation methods to address questions in these fields. Computational predictions are experimentally tested in our microbiology lab, where we perform laboratory evolution of microbial cultures, and we construct novel synthetic gene circuits for biotechnological applications.
The development of next generation spintronic devices, sensors, and low temperature solid oxide fuel cells requires the development of materials with new functional properties not found in conventional bulk materials. A novel route involves harnessing the unexpected physical phenomena that result from the changes in structure and chemistry which occur over nanometer scales at surfaces and interfaces.
Cheemeng received his B.Eng. degree (first class honors) from National University of Singapore and his M.S. degree in High Performance Computing from Singapore-MIT Alliance. In 2005, he started his doctoral research in the Department of Biomedical Engineering at Duke University., where he evolved into a hybrid computational and microbial biologist. His Ph.D. thesis focused on implications of bacterial growth on antibiotic treatment and synthetic gene circuits.
Surface modifications and coatings to reduce friction, wear, and fretting of engineering components. Surface Characterization and Analysis for MEMS. Exploring research directions and opportunities with an emphasis on creating, maintaining, and enhancing Corporate/University partnerships, joint projects, and technology exchange programs.
Shrini K. Upadhyaya
Precision agriculture or SSCM, Sensor development, Instrumentation, Machinery design, Variability and mapping, GIS, Mathematical Modeling of biological and physical processes, Soil dynamics, Tillage, Traction, Soil compaction, and Infiltration and irrigation management
Klaus van Benthem
Klaus van Benthem is interested in the investigation of the functionalities of novel nano-materials. He uses electron microscopy tools to image nano-materials with atomic resolution and correlate their morphologies and atomic structures with nano-scale and macro-scale physical properties. His interests are also in the development of new strategies to investigate materials under more realistic environmental conditions, such as gas phases, liquids, electrical and mechanical fields, etc. His overall vision is the characterization of functional materials with atomic resolution under their anticipated working conditions, i.e., “at work”.
Case C.P. van Dam
We are actively involved in a variety of projects including wind tunnel testing of airfoils, wings, and wind energy conversion systems; computational fluid dynamic analysis of airfoils, wings, aircraft, and rotors; and full-scale aerodynamic testing of various systems.
We work closely with engineers and researchers of various companies and institutions on the above problems and this has resulted in long-term cooperative research, development & demonstration efforts with these groups and, subsequently, outstanding job opportunities for the graduates.
One project that is receiving significant recognition is the research on active control of the aerodynamic loads acting on wind turbine blades. Work in this area was initiated at UC Davis in the late 1990s and has now become a major field of research in Europe and the USA.
Dr. VanderGheynst’s research addresses problems that involve the transformation, decomposition and conversion of plant biomass to products. Plants include dedicated crops and algae, food processing residues and urban and agricultural wastes.
Steve A. Velinsky
My research interests are in mechanical systems analysis and design. I have been involved in the analysis and design of a wide variety of systems including: wire ropes and cables, vehicles, air bearings, ballscrew mechanisms, eye surgery, and automated highway maintenance and construction machinery. I am Director of the Advanced Highway Maintenance & Construction Technology (AHMCT) Research Center at the University of California, Davis. The AHMCT Center is aimed at advancing the methods used for highway operations by incorporating advanced automation and robotics technologies for the purposes of improving safety and efficiency of these operations.
Stavros G. Vougioukas
Professor Vougioukas works in the area of mechanization and automation of specialty crops, focusing on the design, development, and testing of actuators, sensors and control systems for optimal management of inputs and products.
Wesley W. Wallender
Research includes modeling and measurement of precipitation- and irrigation-driven watersheds from submeter to kilometer scales. Specific subject matter interest includes water, energy and chemical transport for sustainable agroecosystems.
Our research focuses on understanding the atmospheric processes that transport and transform particulate pollutants between their emission and their reception. Experimental, numerical, and theoretical approaches are employed. Focus is on urban and regional smog, and global climate change.