one-dimensional solar cell simulation program scaps v.3.2.01 (SCAPS GmbH)
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SCAPS GmbH
one-dimensional solar cell simulation program scaps v.3.2.01
One Dimensional Solar Cell Simulation Program Scaps V.3.2.01, supplied by SCAPS GmbH, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/solar+cell+simulation+program/scaps+1d/us12238943-330-14-18
Average 90 stars, based on 1 article reviews
One Dimensional Solar Cell Simulation Program Scaps V.3.2.01, supplied by SCAPS GmbH, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/solar+cell+simulation+program/scaps+1d/us12238943-330-14-18
Average 90 stars, based on 1 article reviews
one-dimensional solar cell simulation program scaps v.3.2.01 - by Bioz Stars,
2026-11
90/100 stars
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Extraction:Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: Section 2 (Methodology) describes the simulation process used in the Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: Comparison of Article Title: Supporting Information for Molecular Surface Programming of Rectifying Junctions between InAs Colloidal Quantum Dot Solids Article Snippet: Analysis of the photodiode performance before and after incorporation of the QHTL using SCAPS software. a, Band alignment and electron-hole extraction mechanisms in the photodiode with control structure of ITO/ZnO/SWIR-InAs/MoOx/Ag and b, modified photodiode architecture of ITO/ZnO/SWIR-InAs/QHTL/MoOx/Ag. c, d present the results of Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: The presented theoretical band alignment analysis was further corroborated by Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: The good agreement between the experimental and simulated data supports the accuracy of the Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: The Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: By using systematic Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer Article Snippet: By using Control:Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: Section 2 (Methodology) describes the simulation process used in the Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: Comparison of Article Title: Supporting Information for Molecular Surface Programming of Rectifying Junctions between InAs Colloidal Quantum Dot Solids Article Snippet: Analysis of the photodiode performance before and after incorporation of the QHTL using SCAPS software. a, Band alignment and electron-hole extraction mechanisms in the photodiode with control structure of ITO/ZnO/SWIR-InAs/MoOx/Ag and b, modified photodiode architecture of ITO/ZnO/SWIR-InAs/QHTL/MoOx/Ag. c, d present the results of Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: The presented theoretical band alignment analysis was further corroborated by Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: The good agreement between the experimental and simulated data supports the accuracy of the Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: The Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: By using systematic Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer Article Snippet: By using Modification:Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: Section 2 (Methodology) describes the simulation process used in the Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: Comparison of Article Title: Supporting Information for Molecular Surface Programming of Rectifying Junctions between InAs Colloidal Quantum Dot Solids Article Snippet: Analysis of the photodiode performance before and after incorporation of the QHTL using SCAPS software. a, Band alignment and electron-hole extraction mechanisms in the photodiode with control structure of ITO/ZnO/SWIR-InAs/MoOx/Ag and b, modified photodiode architecture of ITO/ZnO/SWIR-InAs/QHTL/MoOx/Ag. c, d present the results of Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: The presented theoretical band alignment analysis was further corroborated by Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: The good agreement between the experimental and simulated data supports the accuracy of the Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: The Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer. Article Snippet: By using systematic Article Title: Optimizing photovoltaic efficiency in CZTS solar cells by investigating the role of different advanced materials as back surface field layer Article Snippet: By using |