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TITLE:

A Flexible Photovoltaic Fatigue Factor for Quantification of Mechanical Device Performance - imarina:9423951

URV's Author/s:Almora Rodríguez, Osbel
Author, as appears in the article.:Sun, LL; Fukuda, K; Guo, RQ; Castriotta, LA; Forberich, K; Zhou, YH; Someya, T; Brabec, CJ; Almora, O
Author's mail:osbel.almora@urv.cat
osbel.almora@urv.cat
osbel.almora@urv.cat
Author identifier:0000-0002-2523-0203
0000-0002-2523-0203
0000-0002-2523-0203
Journal publication year:2025-05-01
Publication Type:Journal Publications
APA:Sun, LL; Fukuda, K; Guo, RQ; Castriotta, LA; Forberich, K; Zhou, YH; Someya, T; Brabec, CJ; Almora, O (2025). A Flexible Photovoltaic Fatigue Factor for Quantification of Mechanical Device Performance. ADVANCED FUNCTIONAL MATERIALS, 35(19), 2422706-. DOI: 10.1002/adfm.202422706
Paper original source:ADVANCED FUNCTIONAL MATERIALS. 35 (19): 2422706-
Abstract:Flexible emerging photovoltaic technologies, such as organic and perovskite photovoltaics, hold great potential for integration into tents, wearable electronics, and other portable applications. Recently, Fukuda et al. (2024) propose a bending test protocol for standardizing the mechanical performance characterization of flexible solar cells, focusing on 1% strain over 1 000 bending cycles. This marked an important step toward establishing consistency and good practices in the literature. However, even with this unified protocol, accurately comparing the mechanical flexibility of solar cells is hindered by the variated influence of parameters like thickness, bending radius, and power conversion efficiency (PCE) evolution during mechanical testing. Herein, a new figure of merit is introduced, the flexible photovoltaic fatigue factor (F), which integrates PCE retention, strain, and bending cycles into a cohesive framework. Guided by a detailed multilayer mechanical model, this metric enables more accurate strain analysis and promotes consistent reporting, paving the way for performance optimization in flexible photovoltaics.
Article's DOI:10.1002/adfm.202422706
Link to the original source:https://advanced.onlinelibrary.wiley.com/doi/10.1002/adfm.202422706
Paper version:info:eu-repo/semantics/publishedVersion
licence for use:https://creativecommons.org/licenses/by/3.0/es/
Department:Enginyeria Informàtica i Matemàtiques
Licence document URL:https://repositori.urv.cat/ca/proteccio-de-dades/
Thematic Areas:Physics, condensed matter
Physics, applied
Nanoscience and nanotechnology
Nanoscience & nanotechnology
Materials science, multidisciplinary
Materials science (miscellaneous)
Materials science (all)
General materials science
General chemistry
Electronic, optical and magnetic materials
Electrochemistry
Condensed matter physics
Chemistry, physical
Chemistry, multidisciplinary
Chemistry (miscellaneous)
Chemistry (all)
Biomaterials
Astronomia / física
Keywords:Robus
Progress
Perovskite solar-cells
Operational photovoltaic stability
Operational photovoltaic stabilit
Mechanical strain
Mechanical stability
Flexible solar cells
Films
Bending test
Entity:Universitat Rovira i Virgili
Record's date:2026-05-09
Journal volume:35
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