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Research Area |
Faculty Expertise |
Strategic Initiatives |
NAME |
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Aerospace Engineering |
Biomechanics |
Design Science |
Dynamics & Control Theory |
Fluid Mechanics |
Heat Transfer & Thermodynamics |
Materials Engineering |
Solid Mechanics |
Energy |
Environment |
Life & Health Sciences |
Global Initiative |
Advani Suresh G. Advani |
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X Characterization and Transport Phenomena for Fuel Cells, Hydrogen Production and Storage and Hybrid Transit Vehicles |
X Rheology, Process Modeling and Manufacturing Science in Composites Manufacturing |
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X Flow of Viscous Resins, Suspensions and Non-Newtonian Fluids |
X Heat transfer in material processing and transport in fuel cells |
X Characterization of Composite Materials and Fuel Cell Membrane, Gas Diffusion Media and Flow Fields |
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X Light Weight Materials, Solar Thermal Cycles for Hydrogen Production, Wind Blade Manufacturing |
X Fuel Cells and Hydrogen Storage |
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Buchanan  Thomas S. Buchanan |
X Engineering: musculoskeletal modeling, neural control of movement, patient-specific modeling using MRI and ultrasound, muscle mechanics. Medicine: orthopaedics, radiology, neurology, rehabilitation. |
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X Mechanical models of how muscles generate forces and how such forces affect loads in cartilage and ligaments; applications to osteoarthritis, stroke and sports medicine. |
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X Director of the Delaware Rehabilitation Institute, which brings together faculty across campus to study physical rehabilitation. |
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Buckley  Jenni Buckley |
X Medical device design & mechanical testing |
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X Medical device design & mechanical testing; Biomechanical optimization of orthopaedic surgical procedure |
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X Medical device design; best practices in medical industry-academic research partnerships |
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Burris  David L. Burris |
X Soft tissue tribology including cartilage, meniscus, hydrogels; lubrication and load support mechanisms; Osteoarthritis; tissue wear and degeneration, biomaterials engineering and joint replacement |
X Wind turbine design, tribology, and reliability; energy conservation via design and synthesis of novel low friction tribomaterials |
X Design and synthesis of tribological composite materials, functionally graded materials, hierarchically structured materials, multifunctional materials (strength, lubricity, dissipation of frictional power) |
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X Low friction, low wear polymer nanocomposites for tribological applications; design; synthesis; characterization of dispersion, mechanical properties, crystallinity, crystalline morphology, interphase, tribology |
X Tribo-materials to lubricate moving mechanical assemblies in extreme air and space environments |
X Cartilage load support and lubrication, relating tissue structure and function, relating deterioration of tissue structure and function, and understanding role in Osteoarthritis |
X Precision instrument design |
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X Solid lubricant engineering; polymers science, composites, and nanocomposites; metal matrix composites, nanocomposite tribological coatings, diamond-like carbon, Polytetrafluoroethylene, Molybdenum disulfide and composites |
X Contact and interface mechanics, failure of materials |
X Wind turbine design, tribology, and reliability; energy conservation via design and synthesis of novel low friction tribomaterials |
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X Osteoarthritis (OA); functional consequences of tissue wear and degeneration, early stage OA and treatment, biomaterials engineering and joint replacement |
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Chou  Tsu-Wei Chou |
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X Modeling & characterization of polymer-,metal- and ceramic-based fiber composites; nanocomposites |
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X Carbon nanotube based damage sensing of composites; modeling and characterization of carbon nanotube fibers and their composites |
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X Fiber composites; nanocomposites; piezoelectric materials |
X Micro- and nano-mechanics of anisotropic and inhomogeneous material systems |
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X International collaborative research programs; exchange of students and researchers |
Glancey  James Glancey |
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X Automation and controls for composite manufacturing processes. |
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X The use of composites to reduce vibration induced vascular damage in the hand and arm. |
X Teaching design methods and the forensics of product failures. |
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Hertz  Joshua Hertz |
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X Fuel cells; Solid oxide fuel cells; Thin film batteries; TiO2-based solar cells |
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X Thin film growth; Physical vapor deposition; Nanocomposites; Multilayer and epitaxial oxides; Micro-power sources |
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X Ceramic materials; Oxides; Powder processing; Thin film processing; Materials for microdevices |
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X Fuel cells; advanced batteries; solar cells |
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Higginson  Jill S. Higginson |
X muscle coordination; normal and pathological movement; experimental and simulation studies; musculoskeletal modeling |
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X Muscle coordination of normal and pathological movements; upper and lower extremity function; musculoskeletal modeling and simulation |
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X osteoarthritis; stroke; rehabilitation science |
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Keefe  Michael Keefe |
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X modeling & simulation of fabric-based flexible composites; ballistic impact loading; design tools |
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X modeling & simulation tools for design applications, senior-design capstone |
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X yarn & fiber-level effects; e.g., friction, geometry, on ballistic response of flexible, fabric-based composites |
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Lu  Xin (Lucas) Lu |
X Soft Tissue Biomechanics; Cartilage Tissue Engineering; Cell Biomechanics |
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X Theory, modeling and simulation of articular cartilage; Bio-tribology of temporomandibular joint; Cell force in chondrocytes |
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X Mixture theory for connective tissue |
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X Repair of cartilage lesion; Bone marrow involved cartilage repair |
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Manal  Kurt Manal |
X human movement, motion analysis, neuromuscular modeling, EMG, muscle & joint contact force |
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X human movement, motion analysis, neuromuscular modeling, EMG, muscle & joint contact force |
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X human movement, motion analysis, neuromuscular modeling, EMG, muscle & joint contact force |
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Poulakakis  Ioannis Poulakakis |
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X Dynamics & control of legged robots; collaborative decision making |
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X Nonlinear control theory; hybrid systems; dynamics and dynamical systems |
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Prasad  Ajay K. Prasad |
X Use of in-vitro models of the human nasal passage, bronchi, and alveoli to experimentally study flow patterns and mixing during breathing for pulmonary drug delivery. |
X Fuel cells, Li-ion batteries, wind and ocean current energy, solar-powered energy efficient homes. Director of UD Center for Fuel Cell Research. |
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X Use of carbon nanotubes in polymer electrolytes, and nanoengineered structures in PEM fuel cell electrodes for improved performance and durability |
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X Development of PIV and stereoscopic PIV; industrial mixing flows, entrainment in jets and plumes, biofluid mechanics, reactant flows in fuel cells, optimal spacing of wind turbines. |
X Modeling and measuring heat transfer phenomena in fuel cells, metal hydride-based hydrogen storage, and Li-ion batteries; thermochemical reactor design for generating hydrogen from concentrated sunlight. |
X Novel polymeric materials for fuel cell membranes; novel electrocatalysts and catalyst supports for PEM and DMFCs; novel metal foil gas diffusion layers for PEM fuel cells. |
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X Fuel cells for transportation; hydrogen generation using renewable solar-based methods; Li-ion batteries; wind and ocean current energy; solar-powered energy efficient homes. |
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X Measurement of flow patterns and mixing in the human respiratory tract using anatomically accurate in-vitro models and imaging-based diagnostic tools for pulmonary drug delivery. |
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Roy  R. Valery Roy |
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X Modeling & fabrication of nano-engineered fuel cell electrodes, Optimal multiscale design of systems for electrochemical conversion, Optimal control. |
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X Optimal shape and topological design of engineering systems with application in fluid/structures. |
X Rigid body mechanics, vibration and nonlinear dynamics |
X Thin film flows, flow in porous media, interfacial mechanics |
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X Fuel cells & batteries: design, fabrication, and optimal control |
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Santare  Michael H. Santare |
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X Mechanics of electrolyte and Fuel Cell materials and structures |
X Micromechanics and failure analysis and characterization of Composites and Nano-composites |
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X Orthopedic biomechanics |
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X Mechanics and failure of complex material systems with micro-structure or nano-structure including advanced composites and biomaterials |
X Mechanics of electrolyte and Fuel Cell materials and structures |
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Schwartz  Leonard W. Schwartz |
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X Wind power engineering; blade aerodynamics; rotor dynamics; economics |
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X Airplane aerodynamics |
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X All aspects and speeds; Flow of liquid coatings |
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X Wind power engineering |
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Suhr  Jonghwan Suhr |
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X Energy absorbing composites; nanocomposites, multiscale composites; polymer composites |
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X Synthesis and characterization of nanomaterials, nanostructured materials, and nanocomposites |
X Lightweight multifunctional composites; Aircraft and rotorcraft structures |
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Tanner  Herbert Tanner |
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X Multi-agent cyber-physical systems; hybrid systems; sensor networks; nonholonomic motion planning, navigation and control |
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X Stability and control design |
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X Modeling and analysis of hybrid dynamical systems; control design for nonholonomic systems; switching and discontinuous control |
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X National Security: Intelligence, surveillance and reconnaissance systems; mobile sensor networks for search and exploration; radiation detection and mapping |
Thostenson  Erik Thostenson |
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X Processing and Characterization of Composite Materials Focusing on Carbon Nanotube and Advanced Fiber Reinforcements, Novel Multifunctional Composites, Micro/Nano Mechanics Modeling Techniques, Structural Health Monitoring and Nanotube-Based Damage Sensing. |
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X Carbon Nanotubes, Polymer Nanofibers, Nanocomposites, in situ Sensing with Carbon Nanotubes, Nanomaterials Dispersion. |
X Composite Materials Manufacturing, Characterization and Analysis. Air Force Young Investigator Award Recipient. |
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X Processing, Characterization and Modeling of Fiber Composites and Nanostructured Materials, Structure/Property Relations, Carbon Nanotubes, Nanoparticles. |
X Modeling and Characterization of Composite Materials, Experimental Mechanics, Nanomechanics. |
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X Co-PI of Global Research Lab Program (Korea Institute of Materials Science). |
LP Wang  Lian-Ping Wang |
X Modeling and analysis of multiphase flow and flow through porous media |
X Simulation and modeling of complex and multiphase flows |
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X Transport of nanoparticles in the environment |
X Dynamics of moving body, simulation of flows around moving objects |
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X Turbulence, multiphase flow, particle-laden flow, and interfacial flow |
X Heating, ventilation, and air-conditioning, thermal power systems |
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X Cloud physics, warm rain processes, turbulent collision-coalescence of cloud droplets, contaminant transport |
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X Interactions and research collaborations with institutions in China |
LY Wang  Liyun Wang |
X Mechanobiology of skeletal tissues, bioimaging, mathematical modeling, porous media |
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X Biomechanics of bone and cartilage, advanced bioimaging, mathematical/computatinal modeling |
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X Osteoporosis and osteoarthritis, mechanobiology |
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Wei  Bingqing Wei |
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X Nano-enabled energy conversion and storage science and technology including supercapacitors, batteries, hydrogen generation, fuel cells and solar cells. |
X Synthesis and characterization of multifunctional nanocomposites |
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X Synthesis and device applications of different nanomaterials, including carbon nanotubes, graphene, metal oxides. |
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X Materials science, structures, properties, and processes. |
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X Nano-enabled energy conversion and storage science and technology including supercapacitors, batteries, hydrogen generation, fuel cells and solar cells. |
X Nanomaterials and nanotechnology for environmental applications, including separation, purification, and gas sensing. |
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X Research and educational collaborations with Chinese universities including Tsinghua University, Beijing Institute of Technology, and Wuhan University. |