Light capture
Light capture
The efficient capture of light is an essential factor for consideration in all solar cell designs. This chapter explores antireflective and light trapping schemes designed to reduce optical losses in solar cells with the aim of improving device efficiency. After a survey of the different mechanisms available for antireflection and light trapping, the various schemes employing these mechanisms are described. This begins with the traditional methods of thin film antireflective coatings and large (micron) scale texturing before moving onto more recent developments in the use of subwavelength texturing, taking inspiration from natural ‘moth-eye’ antireflective surfaces. Finally, the rapidly emerging field of plasmonics for photovoltaics is explored in which metal nanoparticles scatter incoming light through the generation of localized surface plasmons. In each section, the simulation techniques used for design optimization are introduced and methods for experimental realization and implementation in a range of photovoltaic devices are described. The associated increases in cost and complexity conferred to the solar cell fabrication process are also considered because these are the main hindrances to wide scale adoption of new strategies of light capture
978-1-84973-187-4
247-296
Royal Society of Chemistry
Boden, Stuart A.
83976b65-e90f-42d1-9a01-fe9cfc571bf8
Temple, Tristan L.
8f71e243-a483-454c-bf9a-bee866a7692d
9 December 2014
Boden, Stuart A.
83976b65-e90f-42d1-9a01-fe9cfc571bf8
Temple, Tristan L.
8f71e243-a483-454c-bf9a-bee866a7692d
Boden, Stuart A. and Temple, Tristan L.
(2014)
Light capture.
In,
Irvine, Stuart J.C.
(ed.)
Materials Challenges: Inorganic Photovoltaic Solar Energy.
(RSC Energy and Environment Series, 12)
London, GB.
Royal Society of Chemistry, .
(doi:10.1039/9781849733465-00247).
Record type:
Book Section
Abstract
The efficient capture of light is an essential factor for consideration in all solar cell designs. This chapter explores antireflective and light trapping schemes designed to reduce optical losses in solar cells with the aim of improving device efficiency. After a survey of the different mechanisms available for antireflection and light trapping, the various schemes employing these mechanisms are described. This begins with the traditional methods of thin film antireflective coatings and large (micron) scale texturing before moving onto more recent developments in the use of subwavelength texturing, taking inspiration from natural ‘moth-eye’ antireflective surfaces. Finally, the rapidly emerging field of plasmonics for photovoltaics is explored in which metal nanoparticles scatter incoming light through the generation of localized surface plasmons. In each section, the simulation techniques used for design optimization are introduced and methods for experimental realization and implementation in a range of photovoltaic devices are described. The associated increases in cost and complexity conferred to the solar cell fabrication process are also considered because these are the main hindrances to wide scale adoption of new strategies of light capture
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Published date: 9 December 2014
Organisations:
Nanoelectronics and Nanotechnology
Identifiers
Local EPrints ID: 380510
URI: http://eprints.soton.ac.uk/id/eprint/380510
ISBN: 978-1-84973-187-4
PURE UUID: 9a7bb11a-6445-40e3-8d37-91d56469845b
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Date deposited: 11 Sep 2015 11:01
Last modified: 15 Mar 2024 03:21
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Contributors
Author:
Stuart A. Boden
Author:
Tristan L. Temple
Editor:
Stuart J.C. Irvine
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