Materials science and engineering/micro- and nanofabrication, materials characterization, smart materials.
In my group, research is focused on investigating and developing new techniques for patterning a variety of functional polymers on the micro- and nanoscale, and understanding how their properties change as a result. My core experimental research areas involve formulating and characterizing stimulus-responsive polymers, developing processes for patterning these (and other materials) through micro- and nanofabrication, implementing surface functionalization techniques to modify polymers for adhesion or specific binding, and characterizing the mechanical properties of polymers. While my research is based mainly in experimental work, I frequently utilize numerical analysis to explore the way design characteristics (including materials and architecture) affect phenomenon including fluid flow, heat transfer, and mechanical stress and strain within devices (note that these phenomenon are difficult/impossible to measure directly over small length scales). My students are working in a variety of application areas, from smart packaging for food products to neural interfaces.
Mechanical testing by tensile testing and dynamic mechanical analysis (DMA), primarily for polymers; peel testing available; thermal analysis by differential scanning calorimetry (DSC), photo-DSC analysis, assistance with micro-and nanofabrication process design.
- Agriculture, animal science and food
- Life sciences, pharmaceuticals and medical equipment
Specialized labs and equipment
Equipment |
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Instron Tensile Tester 5943 with 10 N load cell, 1 kN load cell, and peel tester. |
PerkinElmer DMA 8000 |
Diamond DSC (PerkinElmer) |