Search: Materials Science and Engineering

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Alivisatos, Paul

Name of Person: 
Paul Alivisatos
Picture: 
PaulAlivisatos.jpg
Department: 
Chemistry, Professor
Research Interests: 
Physical Chemistry of Semiconductor Nanocrystals. Optical, electrical, and thermodynamic properties of a new class of materials, semiconductor nanocrystals, are investigated.
Achievements: 
Chemist Paul Alivisatos's pioneering research into tiny nanocrystals and nanorods is paying off in big ways. Chemically-pure clusters of anywhere from 100 to 100,000 atoms, Alivisatos's nanocystals and nanorods have myriad applications that impact the macroworld -- from tagging biological samples for genetic analysis and drug discovery to the creation of plastic solar cells that can be painted onto any surface. Alivisatos's latest small tech innovation nanotechnology is potentially a giant leap in solar energy. Several months ago, the group reported a technique to make flexible solar cells that could someday provide power for next-generation mobile phones, handheld computers, and wearable electronics. The first prototypes boast efficiencies of 1.7 percent. This means that they can only convert 1.7 percent of the energy they receive from the sun into electricity, far less than the 10 percent efficiency of today's commercial photovoltaics. The contributions of Alivisatos and his colleague Eicke Weber hold the promise to drop the cost of solar cells by an order of magnitude, with a related movement away from poly-crystalline silicon to amorphous silicon, plastic, and organic cells.

Gronsky, Ronald

Name of Person: 
Ronald Gronsky
Picture: 
gronsky.jpg
Department: 
Materials Science and Engineering, Professor
Research Interests: 
Biomaterials, electrochromics, nano-phovoltaics, nanowires, and novel control of phase transformations.

Doyle, Fiona

Name of Person: 
Fiona Doyle
Picture: 
doyle.jpg
Department: 
Materials Science and Engineering, Professor
Research Interests: 
Fiona Doyle's research focuses on solution chemistry in the processing and behavior of minerals, materials, wastes and effluents. The applications range in scale from the templated precipitation of nanoscaled structures, through chemical mechanical planarization in the electronics industry to the remediation of contamination at abandoned and inactive mine sites.

Weber, Eicke

Name of Person: 
Eicke Weber
Picture: 
eickeweber.jpg
Department: 
Materials Science and Engineering, Professor
Research Interests: 
Current research areas are nature and electronic properties of defects in III/V thin films and interfaces; Low-temperature MBE growth of III/V thin films for micro- and ultrafast optoelectronics; MBE growth and properties of III-nitrides for high power transistors and blue and white light emission; Gettering of transition metals in Silicon for IC and photovoltaic applications Scanning tunneling microscopy and spectroscopy of semiconductor thin films and interfaces.
Achievements: 
Eicke Weber and his team use techniques like electron microscopy and laser spectroscopy - enabled by UC Berkeley and the Lawrence Berkeley Laboratory's state-of-the-art arsenal of nanotechnological tools - to better understand how the structure and chemistry of the quantum wells may affect the efficiency and brightness of the light generated by the LEDs. Professor Eicke Weber and his students also research new materials to improve photovoltaics or solar cells. He is author or co-author of more than 500 refereed publications in journals and conference proceedings; has presented 51 invited talks at international conferences; is editor or co-editor of six books as well as being co-editor of the series “Materials Processing” (Springer, 1998-2002) and of the series "Semiconductors and Semimetals" (Academic Press 1991).

Photovoltaic Materials; Modern Technologies in the Context of a Growing Renewable Energy Market

Department: 
MAT SCI
Course Number: 
C226
Course Title: 
Photovoltaic Materials; Modern Technologies in the Context of a Growing Renewable Energy Market
Instructor: 
Kammen, Haller
Description: 
This technical course focuses on the fundamentals of photovoltaic energy conversion with respect to the physical principals of operation and design of efficient semiconductor solar cell devices. This course aims to equip students with the concepts and analytical skills necessary to assess the utility and viability of various modern photovoltaic technologies in the context of a growing global renewable energy market.
Units: 
3
Offered: 
Fall
Course Type: 
Graduate

Materials Science and Engineering (M.S., Ph.D.)

Name of Degree Program: 
Materials Science and Engineering (M.S., Ph.D.)
Course Type: 
Graduate

Materials Science and Engineering

Name of Degree Program: 
Materials Science and Engineering
Course Type: 
Undergraduate