[1] GRüN E, HORANYI M, STERNOVSKY Z. The lunar dust environment.[J] Planetary and Space Science, 2011, 59(14): 1672-1680.
[2] GAIER J R. Interpretation of the Apollo 14 Thermal Degradation Sample experiment. [J] Icarus, 2012, 221(1): 167-173.
[3] ZHANG H, WANG Y, CHEN L, et al. In-situ lunar dust deposition amount induced by lander landing in Chang’E-3 mission. [J] Science China Technological Sciences, 2020, 63(3): 520-527.
[4] JIN H, LI X Y, WEI G F, et al. Properties of Lunar Dust and Their Migration on the Moon. [C] Space: Science & Technology, 2024, 4.
[5] GOLUB’ A P, POPEL S I. On the Fluxes of Dust Particles Detected near the Lunar Surface by the Chang’e 3 Lander. [J] Solar System Research, 2021, 55(5): 389-397.
[6] LEMELLE L, ROUQUETTE S, MOTTIN E, et al. Passive limitation of surface contamination by perFluoroDecylTrichloroSilane coatings in the ISS during the MATISS experiments. [J] NPJ Microgravity, 2022, 8(1): 31.
[7] POPEL S I, ZELENYI L M, GOLUB A P, et al. Lunar dust and dusty plasmas: Recent developments, advances, and unsolved problems. [J] Planetary and Space Science, 2018, 156: 71-84.
[8] CAIN J R. Lunar dust: The Hazard and Astronaut Exposure Risks. [J] Earth, Moon, and Planets, 2010, 107(1): 107-125.
[9] ZANON P, DUNN M, BROOKS G. Current Lunar dust mitigation techniques and future directions. [J] Acta Astronautica, 2023, 213: 627-644.
[10] BRADDOCK M: Hazards of Lunar Regolith for Respiratory, Central Nervous System, [C] Cardiovascular and Ocular Function. In: M.B. S, K. (EDS). The Human Factor in the Settlement of the Moon. Space and Society., 2021.
[11] CANNON K M, DREYER C B, SOWERS G F, et al. Working with lunar surface materials: Review and analysis of dust mitigation and regolith conveyance technologies. [J] Acta Astronautica, 2022, 196: 259-274.
[12] BARKER D C, OLIVAS A, FARR B, et al. Adhesion of lunar simulant dust to materials under simulated lunar environment conditions. [J] Acta Astronautica, 2022, 199: 25-36.
[13] LEE R G, WORTHY E S, WILLIS E M, et al. Development of a comprehensive physics-based model for study of NASA gateway lunar dust contamination. [J] Acta Astronautica, 2023, 210: 616-626.
[14] JIANG J, LU Y, ZHAO H, et al. Experiments on dust removal performance of a novel PLZT driven lunar dust mitigation technique. [J] Acta Astronautica, 2019, 165: 17-24.
[15] HIRABAYASHI M, HARTZELL C M, BELLAN P M, et al. Electrostatic dust remediation for future exploration of the Moon. [J] Acta Astronautica, 2023, 207: 392-402.
[16] FARR B, WANG X, GOREE J, et al. Improvement of the electron beam (e-beam) lunar dust mitigation technology with varying the beam incident angle. [J] Acta Astronautica, 2021, 188: 362-366.
[17] DOVE A, DEVAUD G, WANG X, et al. Mitigation of lunar dust adhesion by surface modification. Planetary and Space Science, 2011, 59(14): 1784-1790.
[18] JIANG J, LU Y F, YAN X T, et al. An optimization dust-removing electrode design method aiming at improving dust mitigation efficiency in lunar exploration. [J] Acta Astronautica, 2020, 166: 59-68.
[19] FARR B, WANG X, GOREE J, et al. Dust mitigation technology for lunar exploration utilizing an electron beam. [J] Acta Astronautica, 2020, 177: 405-409.
[20] JIANG J, ZHAO H Y, WANG L, et al. Analysis of influence factors on dust removal efficiency for novel photovoltaic lunar dust removal technology. [J] Smart Materials and Structures, 2017, 26(12).
[21] GAIER J, BERKEBILE S: Implication of Adhesion Studies for Dust Mitigation on Thermal Control Surfaces. [C] In. 50th AIAA Aerospace Sciences Meeting including the New Horizons Forum and Aerospace Exposition.
[22] ZHANG H, WANG X, ZHANG J, et al. Adhesion effect analysis of ultra-fine lunar dust particles on the aluminum-based rough surface based on the fractal theory. [J] Advances in Space Research, 2022, 69(7): 2745-2755.
[23] GUANGLU Z, JINDONG H, LUOSHU W, et al. Design and fabrication of dust removal nanoarray structure on the surface of solar cell glass cover. [J] Journal of Science: Advanced Materials and Devices, 2023, 8(2).
[24] WANG X, WANG W, SHAO H, et al. Lunar Dust-Mitigation Behavior of Aluminum Surfaces with Multiscale Roughness Prepared by a Composite Etching Method. [J] ACS Appl Mater Interfaces, 2022, 10.1021/acsami.2c07237.
[25] LEE S S, MICKLOW L, TUNELL A, et al. Engineering Large-Area Antidust Surfaces by Harnessing Interparticle Forces. [J] ACS Appl Mater Interfaces, 2023, 15(10): 13678-13688.
[26] ZHANG J, WANG W, ZHOU S, et al. Transparent dust removal coatings for solar cell on mars and its Anti-dust mechanism. [J] Progress in Organic Coatings, 2019, 134: 312-322.
[27] ALIJANI M, SOPHA H, NG S, et al. High aspect ratio TiO2 nanotube layers obtained in a very short anodization time. [J] Electrochimica Acta, 2021, 376.
[28] ROY P, BERGER S, SCHMUKI P. TiO2 nanotubes: synthesis and applications. [J] Angew Chem Int Ed Engl, 2011, 50(13): 2904-2939.
[29] Liu, Y., Park, J.S., Hill, E., et al., Morphology and Physical Characteristics of Apollo 17 Dust Particles. [R] In: 10th ASCE Aerospace Division International Conference. American Society for Civil Engineers Proceedings, Houston, CD-ROM. 2006 (188）38.
[30] PENG M, HAN X, XIAO G-Z, et al. Spherical volume elements scheme for calculating van der Waals force between irregular particles and rough surfaces. [J] Chinese Journal of Physics, 2021, 72: 645-654.
[31] PEILLON S, AUTRICQUE A, REDOLFI M, et al. Adhesion of tungsten particles on rough tungsten surfaces using Atomic Force Microscopy. [J] Journal of Aerosol Science, 2019, 137.
[32] Hasegawa, M., Liu, J., Okuda, K., et al. Calculation of the fractal dimensions of machined surface profiles. [J] Wear 1996, 192: 40-45
[33] Hasegawa, M., Liu, J., Okuda, K., et al. Calculation of the fractal dimensions of machined surface profiles. [J] Wear 1996, 192: 40-45
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