Spacecraft Recovery & Remote Sensing, Volume. 46, Issue 1, 45(2025)
Research Progress in Lightweight Metal-based Optical Payload Technology
[1] [1] SCOTT A, HACKETT J, MAN K. Onbit Results f Canada''s Sapphire Optical Payload[C]Proceedings of the Advanced Maui Optical Space Surveillance Technologies Conference. Wailea, Maui, Hawaii: The Maui Economic Development Board, 2013: E41.
[3] [3] SCHWARTZ N, PEARSON D, TODD S. A Segmented Deployable Primary Mirr f Earth Observation from a CubeSat Platfm[C]29th Annual AIAAUSU Conference on Small Satellites. Blackfd Hill, Edinburgh: AIAA, 2012: SSC16WK23.
[4] [4] VIEVERING J T, SHREKENHAMER D, VOURLIDAS A, et al. Development of MultiLayer Achromatic Metasurface Risley Prisms f a Scanning Conal Heliospheric Imager[C]Proceedings Volume 12676, UVOpticalIR Space Telescopes Instruments: Innovative Technologies Concepts XI. San Diego, Califnia, United States, 2023: 126760N. DOI: 10.111712.2677651.
[5] [5] HALLIBERT P. Technologies f Future Large Optical Missions: Current Perspectives f Astronomy Earth Observation at ESA[C]Proceedings Volume 12180, Space Telescopes Instrumentation 2022: Optical, Infrared, Millimeter Wave. Montréal, Québec, Canada: SPIE, 2018: 1218006. DOI: 10.111712.2637336.
[7] [7] DAVINIC N M, NAGEL D J. Spacecraft Applications of Compact Optical Mass Spectrometers[R]. Washington, DC: Naval Research Labaty, 1995: 122.
[9] [9] SAMPATH D, AKERSTROM A, BARRY M, et al. The Wise Telescope Scanner: Design Choices Hardware Results[C]Proceedings Volume 7796, An Optical Believe It Not: Key Lessons Learned II. San Diego, Califnia, United States: SPIE, 2010: 779609. DOI: 10.111712.864347.
[10] BARTSCHI B Y, MORSE D E, WOOLSTON T L. The Spatial Infrared Imaging Telescope III[J]. Johns Hopkins APL Technical Digest, 17, 215-225(1996).
[11] [11] PIETERS C, BOARDMAN J, BURATTI B, et al. The Moon Mineralogy Mapper (M3) on Chrayaan1[C]Lunar Reconnaissance biter Science Targeting Meeting. Tempe, Arizona, United States: Arizona State University, 2009: 500505.
[12] [12] GRABARNIK S, TACCOLA M, MARESI L, et al. Compact Multispectral Hyperspectral Imagers Based on a Wide Field of View TMA[C]International Conference on Space OpticsICSO 2010. Rhodes Isl, Greece: SPIE, 2017: 1056505. DOI: 10.111712.2309101.
[13] [13] KIRSCHSTEIN S, KOCH A, SCHÖNEICH J, et al. Metal Mirr TMA, Telescopes of Jena Spacebne Scanners: Design Analysis[C]Proceedings Volume 5962, Optical Design Engineering II. Jena, Germany: SPIE, 2005: 59621M. DOI: 10.111712.624354.
[14] [14] MÜCKE M, SANG B, HEIDER B, et al. EnMAP: Hyperspectral Imager (HSI) f Earth Observation: Current Status[C]International Conference on Space OpticsICSO 2018. Chania, Greece: SPIE, 2019: 1118067. DOI: 10.111712.2536142.
[15] [15] FOLKMAN M A, PEARLMAN J, LIAO L B, et al. EO1Hyperion Hyperspectral Imager Design, Development, acterization, Calibration[C]Proceedings Volume 4151, Hyperspectral Remote Sensing of the L Atmosphere. Sendai, Japan: SPIE, 2000: 417022. DOI: 10.111712.417022.
[16] [16] WANG D, GARDNER L R, WONG W K, et al. SpaceBased Visible AllReflective Stray Light Telescope[C]Proceedings Volume 1479, Surveillance Technologies. lo, FL, United States: SPIE, 1991: 44519. DOI: 10.111712.44519.
[18] [18] HEGGE M J, BAER J W, HARDAWAY L M R, et al. Diamond Turned, Light Weight, Athermal, Visible TMA Telescope f the Planned New Hizons Mission to Pluto[C]Proceedings Volume 5877, Optomechanics 2005. Califnia, United States: SPIE, 2005: 58770K. DOI: 10.111712.617018.
[20] [20] CAMPO J, VAN A A, RIETJENS J, et al. SPEXone: A Compact MultiAngle Spectropolarimeter[C]American Geophysical Union, Fall Meeting 2018. herls: herls Institute f Space Research, 2018.
[21] [21] HANAFIN J, HARRIES J, RUSSELL J, et al. Geostationary Earth Radiation Budget Project: Status Results[EBOL]. [20240811]. https:wwwcdn.eumetsat.intfiles202004pdf_conf_p46_s5_03_hanafin_v.pdf .
[22] [22] BOSIGNI R, CADINI A, DROSSART P, et al. Virtis Visual Infrared Imaging Spectrometer f the Rosetta Mission[EBOL]. [20240823]. https:xueshu.baidu.comusercenterpapershowpaperid=2638989181f35a7fc51a0038d00658b5&site=xueshu_se&hitarticle=1.
[24] [24] DAVIS M W, GLADSTONE G R, RETHERFD K D, et al. The JUICE Ultraviolet Spectrograph: A NextGeneration Compact UVS f ESA''s JUICE Mission[C]International Conference on Space OpticsICSO 2020. Online: SPIE, 2021: 1185226. DOI: 10.111712.2599357.
[35] [35] VUKOBRATOVICH D, SCHAEFER J P. Large Stable Aluminum Optics f Aerospace Applications[C]The International Society f Optical Engineering. San Diego, Califnia, United States: SPIE, 2011: 81250T13 . DOI:10.111712.892039.
[36] [36] JASINEVICIUS R G, OTOBONI J A, BASSO I, et al. Size Effects in Ultraprecision Machining of Aluminum Alloys: Conventional AA6061T6 RSA 6061T6[J]. Journal of Manufacturing Processes, 2021, 68, Part B: 136157. DOI: 10.1016j.jmapro.2021.07.027.
[42] [42] RISSE S, GEBHARDT A, DAMM C, et al. Novel TMA Telescope Based on Ultra Precise Metal Mirrs[C]Proceedings Volume 7010, Space Telescopes Instrumentation 2008. Marseille, France: SPIE, 2008: 701016. DOI: 10.111712.789824.
[43] [43] TROMP N, DROST M, PRAGT J. Astron Extreme Lightweighting[C]Proceedings Volume 5495, Astronomical Structures Mechanisms Technology. Glasgow, United Kingdom: SPIE, 2004: 551940. DOI: 10.111712.551940.
[50] [50] XIN H W, LI Z L. Structural Design f Lightweight OffAxis TMA Space Telescope[C]2011 Second International Conference on Digital Manufacturing & Automation. Zhangjiajie, China: IEEE, 2011: 11251128. DOI: 10.1109ICDMA.2011.277.
[53] [53] SWEENEY M N. Advanced Manufacturing Technologies f LightWeight PostPolished SnapTogether Reflective Optical System Designs[C]Proceedings of SPIE The International Society f Optical Engineering. Seattle, WA, United States: SPIE, 2002.
[54] [54] SCHEIDING S, BEIER M, ZEITNER U D, et al. Freefm Mirr Fabrication Metrology Using a High Perfmance Test CGH Advanced Alignment Features[C]Proceedings of SPIE The International Society f Optical Engineering. Califnia, United States: SPIE, 2013: 2001690. DOI: 10.111712.2001690.
[55] [55] YUAN L Y, HE Z P, WANG Y M, et al. Manufacture, Alignment Measurement f a Reflective Triplet Optics in Imaging Spectrometer[C]Proceedings Volume 9684, 8th International Symposium on Advanced Optical Manufacturing Testing Technologies: Optical Test, Measurement Technology, Equipment. Suzhou, China: SPIE, 2016: 96840B. DOI: 10.111712.2246278.
[56] [56] RISSE S, SCHEIDING S, GEBHARDT A, et al. Development Fabrication of a Hyperspectral, Mirr Based IRTelescope with UltraPrecise Manufacturing Mounting Techniques f a SnapTogether System Assembly[C]Proceedings Volume 8176, Senss, Systems, NextGeneration Satellites XV. Prague, Czech Republic: 81761N, 2011: 898025. DOI: 10.111712.898025.
[57] [57] ATKINS C, FELDMAN C, BROOKS D, et al. Topological Design of Lightweight Additively Manufactured Mirrs f Space[C]Proceedings Volume 10706, Advances in Optical Mechanical Technologies f Telescopes Instrumentation III. Austin, Texas, United States: SPIE, 2018: 107060I. DOI: 10.111712.2313353.
[58] [58] WANG Y F, YU J, SHEN Z X, et al. Machining Process of Lightweight AlSi10Mg Optical Mirr Based on Additive Manufacturing Substrate[C]10th International Symposium on Advanced Optical Manufacturing Testing Technologies: Advanced Extreme MicroNano Manufacturing Technologies. Chengdu, China: SPIE, 2021: 120730I. DOI: 10.111712.2603970.
[63] [63] HEIDLER N, VON L H, HILPERT E, et al. Topology Optimization Additive Manufacturing of an Optical Housing f Space Applications[C]EPJ Web of Conferences 2019. Munich, Germany: EPJ, 2019: 01005. DOI: 10.1051epjconf201921501005.
[64] [64] WELLS J T, WESTSIK M, CHAHID Y, et al. Lightweighting Large Optomechanical Structures in Astronomy Instrumentation Utilising Generative Design Additive Manufacturing[C]Proceedings Volume 12669, Optomechanical Engineering 2023. San Diego, Califnia, United States: SPIE, 2023: 126690K. DOI: 10.111712.2676776.
[65] [65] HEIDLER N, HILPERT E, HARTUNG J, et al. Additive Manufacturing of Metal Mirrs f TMA Telescope[C]Proceedings Volume 10692, Optical Fabrication, Testing, Metrology VI. Frankfurt, Germany: SPIE, 2018: 106920C. DOI: 10.111712.2316343.
[66] [66] ATKINS C, BRZOZOWSKI W, DOBSON N, et al. Additively Manufactured Mirrs f CubeSats[C]Proceedings Volume 11116, Astronomical Optics: Design, Manufacture, Test of Space Ground Systems II. San Diego, Califnia, United States: SPIE, 2019: 1111616. DOI: 10.111712.2528119.
[68] [68] SNELL R, ATKINS C, SCHLER H, et al. Towards Understing Eliminating Defects in Additively Manufactured CubeSat Mirrs[C]Advances in Optical Mechanical Technologies f Telescopes Instrumentation V. Montréal, Québec, Canada: SPIE, 2022: 121880v. DOI: 10.111712.2629935.
[73] [73] SNELL R, ATKINS C, SCHLER H, et al. An Additive Manufactured CubeSat Mirr Incpating a Novel Circular Lattice[C]Advances in Optical Mechanical Technologies f Telescopes Instrumentation IV. Online: SPIE, 2020: 114510C. DOI: 0.111712.2562738.
[75] [75] PAENOI J, BOURGENOT C, ATKINS C, et al. Lightweight, Aluminum, Mirr Design Optimization f Conventional Additive Manufacturing Processes[C]Proceedings Volume 12188, Advances in Optical Mechanical Technologies f Telescopes Instrumentation V. Montréal, Québec, Canada: SPIE, 2022: 121880U. DOI: 10.111712.2627757.
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Yifan WANG, Jun YU, Pengfeng SHENG, Yang DU, Wei ZHANG, Zhanshan WANG. Research Progress in Lightweight Metal-based Optical Payload Technology[J]. Spacecraft Recovery & Remote Sensing, 2025, 46(1): 45
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Received: Sep. 25, 2024
Accepted: --
Published Online: Apr. 2, 2025
The Author Email: Jun YU (yujun_88831@tongji.edu.cn)