Prof. Thomas J. Webster's research team has 2 of the 10 most read articles in the International Journal of Nanomedicine (5 year impact factor: 5.008) at www.dovepress.com: Machado et al. "...
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- B.S. (Chemical Engineering) University of Pittsburgh, 1995
- Ph.D. (Biomedical Engineering) Rensselaer Polytechnic Institute, 2000
- Fellow, American Institute for Medical and Biological Engineers
- Fellow, American Society for Nanomedicine
- Fellow, Biomaterials Science and Engineering
- Fellow, Biomedical Engineering Society
- Fellow, Ernst Strungmann Foundation
- Fellow, International College of Fellows - Biomaterials Science and Engineering
- G. Mi, D. Shi, W. Herchek, T.J. Webster, Self-Assembled Arginine-Rich Peptides as Effective Antimicrobial Agents, Journal of Biomedical Materials Research Part A, 105(4), 2017, 1046-1054
- B.M. Geilich, I. Gelfat, S. Sridhar, T.J. Webster, Superparamagnetic Iron Oxide-Encapsulating Polymersome Nanocarriers for Biofilm Eradication, Biomaterials, 119, 2017, 78-85
- P. Tran, L. Sarin, R. Hurt, T.J. Webster, Titanium Surfaces with Adherent Selenium Nanoclusters as a Novel Anti-Cancer Orthopedic Material, Journal of Biomedical Materials Research, 93(4), 2014, 1417-1428
- P. Tran, L. Sarin, R. Hurt, T.J. Webster, Opportunities for Nanotechnology-Enabled Bioactive Bone Implants, Journal of Materials Chemistry, 19, 2009, 2653-2659
- E.M. Christenson, K. Anseth, T.J. Webster, A.G. Mikos, et al., Nanobiomaterial Applications in Orthopaedics, Journal of Orthopaedic Research 25, 2007, 11-22
Joined the Chemical Engineering Department in Fall 2012.
The primary focus of our research is the design, synthesis, and evaluation of nanomaterials for various medical applications. This includes self-assembled chemistries, nanoparticles, nanotubes, and nanostructured surfaces. Medical applications include inhibiting bacteria growth, inflammation, and promoting tissue growth. Tissues of particular interest are bone, cartilage, skin, nervous system, bladder, cardiovascular, and vascular. There is also an interest in anti-cancer applications where nanomaterials can be used to decrease cancer cell functions without the use of pharmaceutical agents. There is also a large interest in developing in situ sensors which can sense biological responses to medical devices and respond in real time to ensure implant success. Lastly, there is an interest in understanding the environmental and human health toxicity of nanomaterials.
Research & Scholarship Interests
Department Research Areas
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Honors & Awards
The nano spinal implant device developed by ChE Professor & Chair Thomas Webster that was recently approved by the Food and Drug Administration could help prevent complications from surgical implants.
ChE Professor and Chair Thomas Webster's nano spinal implant commercialized by Nanovis, LLC just received FDA approval for implantation. The novel spinal implant design includes the first...
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