George Chumanov Ph.D.
| Position |
Department / Business Unit |
| Associate Professor |
Analytical Chemistry |
| Institution |
Disciplines |
| Clemson University |
Chemistry |
| City |
State / Provence |
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| Country |
Website |
| USA |
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Dr. Chumanov's current research consists of three parts: the preparation and modification of different nanoparticles, including one-, two- and three-dimensional regular structures; the investigation of their properties using different spectrochemical techniques together with optical, electron, atomic force and scanning tunneling microscopy; and the development of new materials and devices for environmental and biomedical diagnostic applications.
His concentration is on metal, metal/semiconductor and metal/dielectric hybrid nanoparticles, which exhibit unique optical properties due to the excitation of so-called plasmon resonances (plasmons). Plasmons can be effectively tuned by changing the size, shape, composition and local environment of nanoparticles, making them the ideal building blocks for the next generation of optical materials, electronic and photonic devices.
Education
Chumanov received his B.S. at Moscow Engineering Physics Institute and his Ph.D. (1988) from Moscow State University, working with Professor Edward Manykin in the field of optics and spectroscopy of biomolecules.
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Particle Technology and Applications presents the theoretical and technological background of particle science and explores up-to-date applications of particle technologies in the chemical, petrochemical, energy, mechanical, and materials industries. It looks at the importance of particle science and technology in the development of efficient chemical processes and novel functional materials.
Dr. Kuo's research interests include: Translation Medical Systems, systems biology, genomics, and cancer.
Researchers at University of California at Los Angeles (UCLA) have developed a supercapacitor or electrochemical capacitor (EC) composed of an expanded network of graphene — a one-atom-thick layer of graphitic carbon. The team demonstrated excellent mechanical and electrical properties as well as exceptionally high surface area.
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