Synergizing Photo-Thermal H 2 and Photovoltaics into a Concentrated Sunlight Use

Solar hydrogen and electricity are promising high energy-density renewable sources. Although photochemistry or photovoltaics are attractive routes, special challenge arises in sunlight conversion efficiency. To improve efficiency, various semiconductor materials have been proposed with selective sun...

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Veröffentlicht in:iScience 2020-04, Vol.23 (4), p.101012
Hauptverfasser: Tang, Sanli, Xing, Xueli, Yu, Wei, Sun, Jie, Xuan, Yimin, Wang, Lu, Xu, Yangfan, Hong, Hui, Jin, Hongguang
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container_issue 4
container_start_page 101012
container_title iScience
container_volume 23
creator Tang, Sanli
Xing, Xueli
Yu, Wei
Sun, Jie
Xuan, Yimin
Wang, Lu
Xu, Yangfan
Hong, Hui
Jin, Hongguang
description Solar hydrogen and electricity are promising high energy-density renewable sources. Although photochemistry or photovoltaics are attractive routes, special challenge arises in sunlight conversion efficiency. To improve efficiency, various semiconductor materials have been proposed with selective sunlight absorption. Here, we reported a hybrid system synergizing photo-thermochemical hydrogen and photovoltaics, harvesting full-spectrum sunlight in a cascade manner. A simple suspension of Au-TiO in water/methanol serves as a spectrum selector, absorbing ultraviolet-visible and infrared energy for rapid photo-thermochemical hydrogen production. The transmitted visible and near-infrared energy fits the photovoltaic bandgap and retains the high efficiency of a commercial photovoltaic cell under different solar concentration values. The experimental design achieved an overall efficiency of 4.2% under 12 suns solar concentration. Furthermore, the results demonstrated a reduced energy loss in full-spectrum energy conversion into hydrogen and electricity. Such simple integration of photo-thermochemical hydrogen and photovoltaics would create a pathway toward cascading use of sunlight energy.
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title Synergizing Photo-Thermal H 2 and Photovoltaics into a Concentrated Sunlight Use
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