TY - JOUR
T1 - Roadmap on Optical Energy Conversion
AU - Beard, Matthew
AU - Lany, Stephan
AU - Zakutayev, Andriy
AU - Boriskina, Svetlana
AU - Green, Martin
AU - Catchpole, Kylie
AU - Yablonovitch, Eli
AU - Okada, Yoshitaka
AU - Gershon, Talia
AU - Tahersima, Mohammad
AU - Sorger, Volker
AU - Naughton, Michael
AU - Kempa, Krzysztof
AU - Dagenais, Mario
AU - Yao, Yuan
AU - Xu, Lu
AU - Sheng, Xing
AU - Bronstein, Noah
AU - Rogers, John
AU - Alivisatos, A
AU - Nuzzo, Ralph
AU - Gordon, Jeffrey
AU - Wu, Di
AU - Wisser, Michael
AU - Salleo, Alberto
AU - Dionne, Jennifer
AU - Bermel, Peter
AU - Greffet, Jean-Jacques
AU - Celanovic, Ivan
AU - Soljacic, Marin
AU - Manor, Assaf
AU - Rotschild, Carmel
AU - Raman, Aaswath
AU - Zhu, Linxiao
AU - Fan, Shanhui
AU - Chen, Gang
N1 - Publisher Copyright:
© 2016 IOP Publishing Ltd.
PY - 2016/7
Y1 - 2016/7
N2 - For decades, progress in the field of optical (including solar) energy conversion was dominated by advances in the conventional concentrating optics and materials design. In recent years, however, conceptual and technological breakthroughs in the fields of nanophotonics and plasmonics combined with a better understanding of the thermodynamics of the photon energy-conversion processes reshaped the landscape of energy-conversion schemes and devices. Nanostructured devices and materials that make use of size quantization effects to manipulate photon density of states offer a way to overcome the conventional light absorption limits. Novel optical spectrum splitting and photon-recycling schemes reduce the entropy production in the optical energy-conversion platforms and boost their efficiencies. Optical design concepts are rapidly expanding into the infrared energy band, offering new approaches to harvest waste heat, to reduce the thermal emission losses, and to achieve noncontact radiative cooling of solar cells as well as of optical and electronic circuitries. Light-matter interaction enabled by nanophotonics and plasmonics underlie the performance of the third- and fourth-generation energy-conversion devices, including up- and down-conversion of photon energy, near-field radiative energy transfer, and hot electron generation and harvesting. Finally, the increased market penetration of alternative solar energy-conversion technologies amplifies the role of cost-driven and environmental considerations. This roadmap on optical energy conversion provides a snapshot of the state of the art in optical energy conversion, remaining challenges, and most promising approaches to address these challenges. Leading experts authored 19 focused short sections of the roadmap where they share their vision on a specific aspect of this burgeoning research field. The roadmap opens up with a tutorial section, which introduces major concepts and terminology. It is our hope that the roadmap will serve as an important resource for the scientific community, new generations of researchers, funding agencies, industry experts, and investors.
AB - For decades, progress in the field of optical (including solar) energy conversion was dominated by advances in the conventional concentrating optics and materials design. In recent years, however, conceptual and technological breakthroughs in the fields of nanophotonics and plasmonics combined with a better understanding of the thermodynamics of the photon energy-conversion processes reshaped the landscape of energy-conversion schemes and devices. Nanostructured devices and materials that make use of size quantization effects to manipulate photon density of states offer a way to overcome the conventional light absorption limits. Novel optical spectrum splitting and photon-recycling schemes reduce the entropy production in the optical energy-conversion platforms and boost their efficiencies. Optical design concepts are rapidly expanding into the infrared energy band, offering new approaches to harvest waste heat, to reduce the thermal emission losses, and to achieve noncontact radiative cooling of solar cells as well as of optical and electronic circuitries. Light-matter interaction enabled by nanophotonics and plasmonics underlie the performance of the third- and fourth-generation energy-conversion devices, including up- and down-conversion of photon energy, near-field radiative energy transfer, and hot electron generation and harvesting. Finally, the increased market penetration of alternative solar energy-conversion technologies amplifies the role of cost-driven and environmental considerations. This roadmap on optical energy conversion provides a snapshot of the state of the art in optical energy conversion, remaining challenges, and most promising approaches to address these challenges. Leading experts authored 19 focused short sections of the roadmap where they share their vision on a specific aspect of this burgeoning research field. The roadmap opens up with a tutorial section, which introduces major concepts and terminology. It is our hope that the roadmap will serve as an important resource for the scientific community, new generations of researchers, funding agencies, industry experts, and investors.
KW - high efficiency solar energy conversion
KW - MEG
KW - semiconductor nanocrystals
KW - solar-photochemistry
UR - http://www.scopus.com/inward/record.url?scp=84978208871&partnerID=8YFLogxK
U2 - 10.1088/2040-8978/18/7/073004
DO - 10.1088/2040-8978/18/7/073004
M3 - Article
AN - SCOPUS:84978208871
SN - 2040-8978
VL - 18
JO - Journal of Optics (United Kingdom)
JF - Journal of Optics (United Kingdom)
IS - 7
M1 - Article No. 073004
ER -