Y.-C. Wang, F. Cipriani, F. Johansson, M. Sperl, M. Adachi | 2024 | Advances in Space Research
DOI 10.1016/j.asr.2024.07.082Review state
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The paper investigates the performance of the electrostatically actuated micro-electromechanical system (MEMS) micro-mirror under various operating conditions. The study focuses on the effects of voltage, temperature, and environmental factors on the mirror's motion and stability. The results show that the mirror's response is highly sensitive to voltage changes, with a nonlinear relationship observed between the applied voltage and the angular displacement. Additionally, the mirror's performance is affected by temperature, with a decrease in displacement observed at higher temperatures. The study also highlights the importance of environmental factors such as humidity and air pressure in determining the mirror's behavior. The findings suggest that careful control of these parameters is essential for achieving optimal performance in MEMS micro-mirror applications. The paper discusses the performance of an electrodynamic dust removal system under various UV conditions and material coatings. It evaluates the system's response to different environmental factors, including UV exposure and surface materials, and examines the impact on solar cell output and dust particle behavior. The st
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Electrodynamic dust shield efficiency characterisation under UV in vacuum for lunar application
characterisation
Dust removal efficiency
40 to 80 percentage points
Primary force
electrostatic repulsion
dust removal efficiency (DRE)
quantitative measure of the efficiency of the EDS in removing dust particles from a surface in a given environment
Dust Removal Efficiency (DRE)
high
Color effect on transmission
darker simulant (LMS-1) has lower transmission
Chemical composition
analyzed by SEM-EDS