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Hydrogen production / Solar cells / Photoelectrochemistry / Photochemistry / Photoelectrochemical cell / Water splitting / Solar energy / Band gap / High-temperature electrolysis / Energy / Energy conversion / Chemistry


Maximizing Solar-to-Fuel Conversion Efficiency in Oxide Photoelectrochemical Cells Using Heat and Concentrated Sunlight Investigators William C. Chueh, Assistant Professor of Materials Science & Engineering Nick A. Melos
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Document Date: 2014-09-22 12:17:38


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City

Strandwitz / Tilley / /

Company

Melosh N. A. / BiVO4 Heterojunction Films / Nanostructured r-Fe2O3 Films / Earth-Abundant Catalysts / Wireless Solar Water Splitting Using Silicon-Based Semiconductors / /

Country

United States / /

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IndustryTerm

low carrier mobility / oxide material systems / renewable solar energy / excess thermal energy resulting / photo-electrochemical device / chemical stability / minority carrier transport / intermittent solar energy / high carrier mobility / high energy densities / improved minority carrier diffusion length / activation energy / carrier mobility / energy / /

Organization

American Chemical Society / /

Person

William C. Chueh / Jarvi / Nocera / Nick A. Melosh / /

Position

absorber and mixed ionic and electronic conductor / T. D. / Associate Professor / Professor of Materials Science / /

ProvinceOrState

South Dakota / North Carolina / /

PublishedMedium

Solar Energy Materials and Solar Cells / Journal of the American Chemical Society / Nature Materials / /

Technology

radiation / laser / recombination / /

SocialTag