Repository logo
Research Data
Publications
Projects
Persons
Organizations
English
Français
Log In(current)
  1. Home
  2. Publications
  3. Article de recherche (journal article)
  4. Potential of amorphous and microcrystalline silicon solar cells

Potential of amorphous and microcrystalline silicon solar cells

Author(s)
Meier, Johannes
Spitznagel, J.
Kroll, U.
Bucher, C.
Faÿ Sylvie
Moriarty, T.
Shah, Arvind
Date issued
2004
In
Thin Solid Films, Elsevier, 2004/451-452//518-524
Subjects
amorphous silicon mcrocrystalline silicon tin-film silicon solar cells light-trapping LP-CVD ZnO VHF-PECVD
Abstract
Low pressure chemical vapour deposition (LP-CVD) ZnO as front transparent conductive oxide (TCO), developed at IMT, has excellent light-trapping properties for a-Si:H p-i-n single-junction and ‘micromorph’ (amorphous/microcrystalline silicon) tandem solar cells. A stabilized record efficiency of 9.47% has independently been confirmed by NREL for an amorphous silicon single-junction p-i-n cell (~1 cm<sup>2</sup>) deposited on LP-CVD ZnO coated glass. Micromorph tandem cells with an initial efficiency of 12.3% show after light-soaking a stable performance of 10.8%. The monolithic series connection by laser-scribing for module fabrication has been developed at IMT as well, for both amorphous single-junction and micromorph tandem cells in combination with the LP-CVD ZnO technique. Mini-modules (areas between 22 and 24 cm<sup>2</sup>) with an aperture efficiency of 8.7% in the case of amorphous single-junction p-i-n cells (independently confirmed by NREL), and of 9.8% in the case of micromorph tandem cells, have been obtained. Micromorph tandem cells with an intermediate TCO reflector between the amorphous top and the microcrystalline bottom cell show an almost stable performance (η=10.7%) with respect to light-soaking.
Publication type
journal article
Identifiers
https://libra.unine.ch/handle/20.500.14713/61274
DOI
10.1016/j.tsf.2003.11.014
File(s)
Loading...
Thumbnail Image
Download
Name

Meier_J._-_Potential_of_amorphous_and_microcrystalline_20080812.pdf

Type

Main Article

Size

367.83 KB

Format

Adobe PDF

Université de Neuchâtel logo

Service information scientifique & bibliothèques

Rue Emile-Argand 11

2000 Neuchâtel

contact.libra@unine.ch

Service informatique et télématique

Rue Emile-Argand 11

Bâtiment B, rez-de-chaussée

Powered by DSpace-CRIS

libra v2.1.0

© 2025 Université de Neuchâtel

Portal overviewUser guideOpen Access strategyOpen Access directive Research at UniNE Open Access ORCIDWhat's new