Particle‐induced degradation of III–V multi‐junction solar cells under different configurations of displacement damage dose

Author:

Duzellier Sophie1,Nuns Thierry1,Rey Romain1,Pons Claude1,Yjjou Soufian2,Varotsou Athina2,Baur Carsten3,Noemayr Christel4,Gras Ana5ORCID,de Olcoz Ainhoa Martinez6

Affiliation:

1. ONERA/DPHY Toulouse France

2. TRAD Labege France

3. ESA, European Space Agency Noordwijk The Netherlands

4. ADS, Airbus DS GmbH Munich Germany

5. INTA‐SPASOLAB, Torrejon de Ardoz Madrid Spain

6. ISDEFE as External Consultant at INTA‐SPASOLAB Madrid Spain

Abstract

AbstractThe solar arrays of spacecrafts are subjected to a severe radiative environment. Associated degradation rates are dependent on operational orbit configuration. The current approach used in models and tools to determine power degradation shall thus be validated to ensure good prediction accuracy. This paper reports on extensive irradiation test campaigns realized on triple‐junction solar cells to compare degradation induced by different configurations of irradiation reproducing nominally the same displacement damage dose (DDD) in the active layer. These test campaigns data are used to support the validation of a new tool developed to optimize prediction accuracy of solar cell degradation. The DDD equivalence between front/rear irradiation on solar cell assemblies and on bare solar cells, between different electron and proton energies, as well as the verification of the superposition principle are addressed. Results are conclusive regarding the equivalence of degradation obtained with electrons, protons and/or combined electrons and protons, accounting for local shielding.

Publisher

Wiley

Subject

Electrical and Electronic Engineering,Condensed Matter Physics,Renewable Energy, Sustainability and the Environment,Electronic, Optical and Magnetic Materials

Reference14 articles.

1. https://www.spenvis.oma.be/announcement.php

2. Electric orbit raising radiation environment and solar array degradation ARTES AT 4F.126 ESA AO/1–9732/19/NL/N.

3. Scream: A new code for solar cell degradation prediction using the displacement damage dose approach

4. https://www.trad.fr/spatial/logiciel-omere

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