Investigation the absorption efficiency of GaAs/InAs nanowire solar cells

Abed, Farah A.; Ali, Latef M.

doi:10.1016/j.jlumin.2021.118171

Cited by 7 publications

(1 citation statement)

References 36 publications

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“…Secondly, NW solar cell structures allow for innovative designs, which are very complicated for planer solar cells. Other benefits of NWA 'group III-V compound' solar cell designs are low fabrication cost, fast growth rate, and use of much less material than their planer counterparts, as maximum solar radiation absorption can be achieved by optimizing the length, diameter, and pitch of the nanowire arrays [104,123,125,126]. Adibzadeh et al (2020) determined the optimum length, radius, and pitch of NWs for maximum light absorption [104].…”

Section: Nano Wire Arrays (Nwas) and Nano-particles (Nps)mentioning

confidence: 99%

Advancing efficiency: comprehensive strategies for minimizing optical and electrical losses in group III-V compound tandem solar cells for future photovoltaic technology

Soley,

Verma,

Khatri

et al. 2024

Eng. Res. Express

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Global energy consumption is rising, and fossil resources are dwindling, driving demand for clean, affordable energy. Solar power is the most promising alternative energy source and can meet future energy needs. In terrestrial photovoltaics, low-cost Silicon solar cells dominate. However, as the single junction silicon solar cells are approaching their highest achievable efficiency of 30%, high-efficiency, “group III-V Compound” semiconductor tandem solar cells are being considered as an alternative energy source. The absorption capacity of the wide range of solar radiation photons enables them to achieve high efficiency. However, further improvement in efficiency is constrained due to the various loss mechanisms that occur during the physical process of converting light to electrical energy in “group III-V compound” tandem solar cells. Extensive research is being conducted to develop solution approaches to minimize the loss mechanisms in order to improve efficiency. Although many published review articles have studied the research progress of “group III-V compound” solar cells based on fabrication techniques, applications, status, and challenges, there is no article mentioning a comprehensive and comparative study of strategies employed by researchers to enhance efficiency in “group III-V compounds” tandem solar cells considering loss mechanisms. The present study focuses on discussing the fundamental losses in “group III-V compounds” tandem solar cells and various strategies employed by researchers to reduce optical and electrical losses to improve the efficiency of these devices so that they may be employed in terrestrial applications.

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