M. Li, Q. Xia, M. Cai, L. Xu, T. Yang, X. Jia | 2025 | Journal of Electrostatics
DOI 10.1016/j.elstat.2025.104112Review state
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Last approved reanalysis
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This study investigates the triboelectric charging behavior of lunar dust under simulated lunar conditions. The research focuses on the interaction between lunar dust particles and various materials, including Teflon, polyethylene, and polypropylene, to understand the mechanisms of charge generation and accumulation. The findings have implications for the design of spacecraft and equipment that operate in the lunar environment, as well as for the safety of astronauts during lunar missions. The paper investigates triboelectrification of dielectric materials in the lunar environment, focusing on the behavior of lunar dust and its interaction with rover wheels. It references data from Apollo missions and simulated lunar dust (CLDS-i) to analyze charging potential under different conditions such as speed, atmospheric pressure, and temperature. The study highlights the importance of understanding these phenomena for future lunar exploration, including missions like Chang'e 6 and potential manned missions. This paper investigates triboelectrification effects between materials and simulated lunar dust under vacuum, UV light, and varying temperatures. It highlights the risks of electrostat
These are the records this paper contributes to the simulant, returned sample, method, and property browsers.
lunar dust simulant
No returned samples extracted yet.
Charging potential variation with speed
Experimental
Charging potential under different environments
Experimental
Triboelectrification between materials and simulated lunar dust
Electrostatic charging | Lunar mission safety
Teflon charging under different environmental conditions
Electrostatic charging | Material charging behavior
Triboelectrification at different temperatures
Electrostatic charging | Thermal effects on charging
Charging of lunar rover wheels
Electrostatic charging | Lunar mission safety
Charging of Apollo spacesuits
Electrostatic charging | Lunar mission safety
Charge dissipation times under illumination and dark conditions
Electrostatic discharge | Lunar mission safety
Charging potential
Measured under different conditions (speed, environment, temperature)
Environmental conditions
Including atmosphere, vacuum, and UV light
Future missions
Context for Chang'e 6 and potential manned missions
Voltage under vacuum
375 V
Voltage under UV light
200 V
Voltage under atmospheric conditions
39 V
Maximum voltage under temperature variation
1975 V
Charging of lunar rover wheels
5000 V