Evaluation of Microlenses, Color Filters, and Polarizing Filters in CIS for Space Applications

For the last two decades, the CNES optoelectronics detection department and partners have evaluated space environment effects on a large panel of CMOS image sensors (CIS) from a wide range of commercial foundries and device providers. Many environmental tests have been realized in order to provide i...

Full description

Saved in:
Bibliographic Details
Published in:Sensors (Basel, Switzerland) Switzerland), 2023-06, Vol.23 (13), p.5884
Main Authors: Durnez, Clémentine, Virmontois, Cédric, Panuel, Pierre, Antonsanti, Aubin, Goiffon, Vincent, Estribeau, Magali, Saint-Pé, Olivier, Lalucaa, Valérian, Berdin, Erick, Larnaudie, Franck, Belloir, Jean-Marc, Codreanu, Catalin, Chavanne, Ludovic
Format: Article
Language:English
Subjects:
Aerospace environments
Cellular telephones
CMOS image sensors
Color
color filter array
Complementary metal oxide semiconductors
Diagnostic Imaging
Efficiency
Environmental effects
Environmental testing
Foundries
Light
Microlenses
Noise
optical stack
Optoelectronics
polarizing filter
Quantum efficiency
Scanning electron microscopy
Semiconductors
Sensors
space application
Space missions
Technology application
Vision systems
Citations: Items that this one cites
Online Access:Get full text
Tags: Add Tag
No Tags, Be the first to tag this record!
Description
Summary:For the last two decades, the CNES optoelectronics detection department and partners have evaluated space environment effects on a large panel of CMOS image sensors (CIS) from a wide range of commercial foundries and device providers. Many environmental tests have been realized in order to provide insights into detection chain degradation in modern CIS for space applications. CIS technology has drastically improved in the last decade, reaching very high performances in terms of quantum efficiency (QE) and spectral selectivity. These improvements are obtained thanks to the introduction of various components in the pixel optical stack, such as microlenses, color filters, and polarizing filters. However, since these parts have been developed only for commercial applications suitable for on-ground environment, it is crucial to evaluate if these technologies can handle space environments for future space imaging missions. There are few results on that robustness in the literature. The objective of this article is to give an overview of CNES and partner experiments from numerous works, showing that the performance gain from the optical stack is greater than the degradation induced by the space environment. Consequently, optical stacks can be used for space missions because they are not the main contributor to the degradation in the detection chain.
ISSN:1424-8220
1424-8220
DOI:10.3390/s23135884