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Notes 1 Because interdisciplinary training is crucial, close collaborations are emphasized in this program. 2 This overview table is not an exhaustive listing, but is intended to provide the reader with a flavor of the topics available to trainees. The following table represents hypothetical examples of possible research projects. We are providing these examples for the convenience of prospective trainees. 3 Not all listed faculty will be associated with each trainee. The list indicates the many options trainees have in defining their projects and matching up with faculty mentors. |
Materials design, synthesis and optimization for medical applications
• Combinatorial design and synthesis of polymer libraries • Design and use of dendrimers in tissue engineering and drug delivery • Synthesis and characterization of ceramics and oxides, including hydroxyapatite • Development of high-throughput assays to characterize physicomechanical properties • Imaging of nano- and microscale polymer morphology by transmission electron microscopy • Computational methods of materials design, optimization, and modeling of polymer properties • Muliphoton confocal microscopy imaging of cell-scaffold interactions and cellular dynamics
Analysis and understanding of cell-material interactions
• ECM structure and function • Stem cell biology and use of stem cells in tissue engineering • Computational methods to understand and predict the bioresponse of cells in contact with biomaterials • Integrin-fibronectin interactions during wound healing, in 3D-culture, and in tissue scaffolds
Translational research projects involving clinicians and/or industrial partners
• Vascular tissue engineering • Cardiac valve regeneration • Skin tissue engineering • Regeneration of peripheral nerve
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