short minority carrier diffusion lengths / gas flow / chemical cleaning / research grade photolithography equipment / carrier collection / chemical vapor deposition / microwire-array devices / energy-conversion properties / imaging / photovoltaic applications / chemical etch / carrier extraction / photovoltaic devices / photovoltaic manufacturing / chemical vapor deposition furnace / photovoltaic technology / microwire devices / homebuilt peel-off tool / model using software / gas injection / /
Organization
California Institute of Technology / Defense Advanced Research Projects Agency / U.S. Department of Energy / National Science Foundation / Department of Physics / Colorado School of Mines / Department of Applied Physics / Division of Chemistry and Chemical Engineering / /
Person
J. R. Maiolo / E. L. Warren / K. E. Plass / N. S. Lewis / Michael D. Kelzenberg / M. C. Putnam / Nat / Nathan S. Lewis / J. M. Spurgeon / M. G. Walter / S. W. Boettcher / M. D. Kelzenberg / Daniel B. Turner-Evans / R. M. Briggs / H. A. Atwater / J. R. McKone / B. S. Brunschwig / Adele C. Tamboli / Christopher T. Chen / B. M. Kayes / J. Y. Baek / Emily L. Warren / /
ProvinceOrState
California / /
RadioStation
AM 1 / /
Technology
3-D / photolithography / chemical vapor deposition / laser / Digital Object Identifier / CVD / Electrochemistry / /
This article has been accepted for inclusion in a future issue of this journal. Content is final as presented, with the exception of pagination. IEEE JOURNAL OF PHOTOVOLTAICS 1 Wafer-Scale Growth of Silicon Microwire Ar