TECHNICAL MECHANICS
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Home > Journal Issues > No 3 (2021) Technical mechanics > 8
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UDC 629.78

Technical mechanics, 2021, 3, 70 - 82

STATE OF THE ART IN THE DEVELOPMENT OF ORBITAL INDUSTRIAL PLATFORMS

DOI: https://doi.org/10.15407/itm2021.03.070

Palii O. S.

      ABOUT THE AUTHORS

Palii O. S.
Institute of Technical Mechanics of the National Academy of Sciences of Ukraine and the State Space Agency of Ukraine

      ABSTRACT

      The goal of this article is to analyze the state of the art in the development of orbital industrial platforms and their components. The article proposes the general arrangement of a base orbital industrial platform, which consists of main supporting structures, onboard systems, an onboard control system, onboard service devices, receiving docks, a primary processing module, a secondary processing module, an industrial module, and an assembly module. The state of the art in the development of the key component modules of an orbital industrial platform is analyzed, and it is concluded that space conditions make it possible to produce new materials and substances whose characteristics are improved in comparison with their earth counterparts. The most interest in the development of production processes in vacuum and zero gravity conditions is shown by the USA, Russia, and the EU countries. It is shown that at the initial stage of development of orbital industrial platforms raw materials for the production of unique materials can be supplied from the Earth. With further technological development, it will be possible to use space resources. Orbital industrial platforms are a new class of engineering systems. To develop a mathematical model of an orbital platform and components thereof, its functional diagram with the key functional links between the platform components is presented. The problem of orbital industrial platform development is complex, and thus it has a wide range of different aspects of its solution. The need to develop a scientific methodology for the process of orbital industrial platform development has given rise to a package of scientific and technological problems generated by the features of this problem. This package includes the development of new classifiers, construction arrangements, mathematical models, and design methods for a base platform and components thereof.
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      KEYWORDS

industrialization of space, large space structures, orbital industrial platform, production processes in space

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      REFERENCES

1. Alpatov A. P., Gorbulin V. P. Space platforms for orbital industrial complexes: problems and prospects. Bulletin of NAS of Ukraine. 2013. No. 12. Pp. 26-38. (in Russian). https://doi.org/10.15407/visn2013.12.026

2. Alpatov A. P., Goldstein Yu. M. Ballistic analysis of orbits distribution of spacecraft for different functional missions. Teh. Meh. 2017. No. 2. Pp. 33-41. (in Russian). https://doi.org/10.15407/itm2017.02.033

3. Alpatov A. P. Space debris: the aspects of the problem. Teh. Meh. 2018. No 1. Pp. 30-47. (in Russian). https://doi.org/10.15407/itm2018.01.030

4. Alpatov A. P., Goldstein Yu. M. Assessment of perspectives for the orbital utilization of space debris. Space Sci. & Technol. 2021. V. 27. No. 3. Pp. 3-12. https://doi.org/10.15407/knit2021.03.003

5. Edwards J. Goldman Sachs: space-mining for platinum is 'more realistic than perceived'. URL: https://www.businessinsider.com/goldman-sachs-space-mining-asteroid-platinum-2017-4 (last accessed on July 5, .2021).

6. Belonozhko P. P. Space robotics: past experience and future considerations. Aerospace Sphere. 2018. No. 1 (94). Pp. 84-93. (in Russian). https://doi.org/10.30981/2587-7992-2018-94-1-84-93

7. Belonozhko P. P. Space robotics: current status, long-term objectives, and development trends. Analytical Review. Science and Education of the Bauman MSTU. Electronic journal. 2016. No. 10. Pp. 110-153. (in Russian). https://doi.org/10.7463/1216.0853919

8. Belonozhko P. P. Advanced assembly and service robotic space modules. Robotics and Technical Cybernetics. 2015. No. 2 (7). Pp. 18-23. (in Russian).

9. Stockman B., Boyle J., Bacon J. International Space Station Systems Engineering Case Study. URL: https://www.nasa.gov/sites/default/files/atoms/files/design_iss_systems_engineering_case_study.pdf (last accessed on July 20, 2021).

10. Pugachenko S. E. Design of Orbital Stations. Tutorial. Moscow: N. E. Bauman MSTU, 2009. 175 pp. (in Russian).

11. Gaponov V. A., Zheleznyakov A. B. Station "Mir": from triumph to ... Saint Petersburg: SYSTEM, 2007. 380 pp. (in Russian).

12. ARCHINAUT. Technology Overview. FOR SPACE, IN SPACE. Made In Space. URL: https://madeinspace.us/capabilities-and-technology/archinaut/. (last accessed on July 5, 2021).

13. Bioemulsiya. TSNIIMASH. Coordinating Scientific and Technical Advisory Council. URL: https://tsniimash.ru/science/scientific-experiments-onboard-the-is-rs/cnts/experiments/bioemulsiya/ (last accessed on June 24, 2021). (in Russian).

14. Verbitskaya N. B., Dobrolezh O. V., Kobatov A. I., Petrov L. N. Features of obtaining and using bacterial probiotics on board the ISS in the conditions of long space expeditions. Cosmonautics and Rocketry. 2011. No.3 (64). Pp. 130-135. (in Russian).

15. Patent RF No. RU 2425576, IPC A23C9/123; A61K35/75. Dry probiotically active biopreparation and method for production of fermented milk drink based on it. Kobatov À. I., Dobrolezh Î. V., Verbitskaja N. B., Petrov L. N., Dobritsa V. P. 2010108378/10 ; filed on March 10, 2010 ; published on August 10, 2011, Bul. No. 22. (in Russian).

16. Magnetic 3D bioprinter. TSNIIMASH. Coordinating Scientific and Technical Advisory Council. URL: https://tsniimash.ru/science/scientific-experiments-onboard-the-is-rs/cnts/experiments/magnitnyy_3d_bioprinter/ (last accessed on June 24, 2021). (in Russian).

17. Mironov V., Visconti R. P., Kasyanov V., Forgacs G., Drake C. J., Markwald R. R. Organ printing: Tissue spheroids as building blocks. Biomaterials. 2009. V. 30. Iss. 12. Pp. 2164-2174. https://doi.org/10.1016/j.biomaterials.2008.12.084

18. BioFabrication Facility. NASA. URL: https://www.nasa.gov/mission_pages/station/research/experiments/explorer/Facility.html#id=7599 (last accessed on June 24, 2021).

19. About the 3D BioFabrication Facility (BFF). BioFabrication Facility. Techshot. URL: https://techshot.com/bioprinter/ (last accessed on June 24, 2021).

20. Astrovaccine. TSNIIMASH. Coordinating Scientific and Technical Advisory Council. URL: https://tsniimash.ru/science/scientific-experiments-onboard-the-is-rs/cnts/experiments/astrovaktsina/ (last accessed on June 24, 2021). (in Russian).

21. Antigen. TSNIIMASH. Coordinating Scientific and Technical Advisory Council. URL: https://tsniimash.ru/science/scientific-experiments-onboard-the-is-rs/cnts/experiments/antigen/. (last accessed on June 24, 2021). (in Russian).

22. Aryl. TSNIIMASH. Coordinating Scientific and Technical Advisory Council. URL: https://tsniimash.ru/science/scientific-experiments-onboard-the-is-rs/cnts/experiments/aril/ (last accessed on June 24, 2021). (in Russian).

23. BIF. TSNIIMASH. Coordinating Scientific and Technical Advisory Council. URL: https://tsniimash.ru/science/scientific-experiments-onboard-the-is-rs/cnts/experiments/bif/ (last accessed on June 24, 2021). (in Russian).

24. Vaktsina-K. TSNIIMASH. Coordinating Scientific and Technical Advisory Council. URL: https://tsniimash.ru/science/scientific-experiments-onboard-the-is-rs/cnts/experiments/vaktsina_k/ (last accessed on June 24, 2021). (in Russian).

25. POP3D printer. ESA. URL: https://www.esa.int/ESA_Multimedia/Images/2014/11/POP3D_printer (last accessed on June 23, 2021).

26. Patent USA No. US10759089, IPC B29B17/00; B29C48/285; B29C48/92; B29C64/106; B29C64/357; B33Y10/00; B33Y40/00; B33Y70/00; C22B1/00. Recycling materials in various environments including reduced gravity environments. Snyder M., Dunn J., Kemmer A., Gonzalez E. US16/105966 ; filed on August 20, 2018 ; published on January 9, 2020.

27. Patent USA No. US10099467, IPC B33Y80/00; C25B1/04; C25B9/06; C25B15/02. 3D printed environmental control and life support system. Snyder M., Riley D. US15/155216; filed on May 16, 2016 ; published on October 16, 2018.

28. Patent USA No. US10899651, IPC C03B37/02; C03B37/012; C03B37/025; C03B37/027; C03B37/029; C03B37/03; C03B37/07; C03C13/04; C03C25/105; C03C25/106; C03C25/6226; G02B6/02. System and method for manufacturing optical fiber. Clawson J., White R., Pickslay N., Snyder M., Powers G. Y., Paul-gin N. US16/045732; filed on July 25, 2018 ; published on January 26, 2021.

29. Patent USA No. US10927032, IPC C03B37/02; B01D29/56; B01D29/60; C03B37/012; C03B37/025; C03B37/027; C03B37/029; C03B37/03; C03B37/07; C03C13/04; C03C25/105; C03C25/106; C03C25/6226; G02B6/02. System and method for manufacturing optical fiber. Clawson J., White R., Pickslay N., Snyder M., Powers G. Y., Paul-gin N. US16/045730; filed on July 25, 2018; published on February 23, 2021.

30. Patent USA No. US10953571, IPC B29C33/38; B22D17/14; B22D17/20; B22D17/22; B29C64/118; B29C33/40. Metal casting methods in microgravity and other environments. Snyder M., Napoli M., Dunn J., Kemmer A. US14/555234; filed on November 26, 2014 ; published on March 23, 2021.

31. Patent USA No. US10675811, IPC B29C64/10; B29C64/106; B29K101/12. Additive manufacturing of extended structures. Kemmer A., Snyder M., Chen M., Dunn J. US16/105964; filed on August 20, 2018 ; pubished on September 6, 2020.

32. Patent USA No. US10751988, IPC B33Y30/00; B29D11/00; B33Y10/00; B33Y80/00. Additive manufactured waveguides. Snyder M., Chen M., Dunn J. US15/372204; filed on July 12, 2016 ; published on May 8, 2020.

33. Patent USA No. US10350820, IPC B29C64/20; B29C64/106; B29C64/141; B29C64/386; B33Y10/00; B33Y30/00; B33Y40/00; B33Y50/02. Remote operations of additive manufacturing devices. Chen M., Snyder M., Dunn J. Kemmer A. US14/520154; filed on October 21, 2014 ; published on July 16, 2019.

34. Patent USA No. US10086568, IPC B29C67/00; B29C64/386; G05B19/4099; B33Y50/02. Seamless scanning and production devices and methods. Snyder M., Dunn J., Kemmer A., Chen M. US14/860085; filed on September 21, 2015 ; published on February 10, 2018.

35. Patent USA No. US10640237, IPC B64G1/10; B33Y80/00; B64G1/00; B64G99/00. Spacecraft having electronic components as structural members and related methods. Dunn J., Snyder M. US14/596999; filed on January 14, 2015 ; published on May 5, 2020.

36. Patent USA No. US10307970, IPC B33Y40/00; B29C64/00; B29C64/165; B29C67/00; B29L9/00; B33Y10/00; B33Y30/00. In-situ resource preparation and utilization methods. Snyder M., Dunn J. US14/628040; filed on February 20, 2015 ; published on April 6, 2019.

37. Patent USA No. US10401832, IPC B29C67/00; B29C64/106; B29C64/20; B29C64/35; B29C70/68; B33Y10/00; B33Y30/00; B33Y40/00; G05B19/4099. Terrestrial and space-based manufacturing systems. Snyder M., Dunn J. US14/628040; filed on February 20, 2015 ; published on April 6, 2019.

38. In-Space Manufacturing. In-space services. Tether Unlimited Inc. URL: https://www.tethers.com/in-space-services/ (last accessed on June 23, 2021).

39. NASA installs tether refabricator aboard iss for in-space 3d printing. 3D Printing Industry. URL: https://3dprintingindustry.com/news/nasa-installs-tether-refabricator-aboard-iss-for-in-space-3d-printing-148728/ (last accessed on June 23, 2021).

40. Ignatiev A. Advanced thin-film materials processing in the ultra-vacuum of space. Acta Astronautica. 2001. V. 48. .Iss. 2-3. Pp. 115-120. https://doi.org/10.1016/S0094-5765(00)00148-X

41. Pchelyakov O.P. Semiconductor vacuum technologies in space: history, status, prospects. Spacecrafts & Technologies. 2018. V. 2. No. 4. Pp. 229-235. (in Russian). https://doi.org/10.26732/2618-7957-2018-4-229-235

42. Blinov V. V., Vladimirov V. M., Kushnarev N. A., Nikiforov A. I., Pridachin D. B., Pchelyakov D. O., Pchelyakov O. P., Skorodelov V. A., Sokolov L. V. Growing semiconductor structures for high-performance solar cells in open space. Spacecrafts & Technologies. 2020. V. 4. No. 1. Pp. 45-54. (in Russian). https://doi.org/10.26732/j.st.2020.1.06

43. Blinov V. V., Vladimirov V. M., Kulinich S. N., Nikiforov A. I., Pridachin D. B., Pchelyakov D. O., Pchelyakov O. P., Sokolov L. V., Yarockiy D. V. Equipment for growing semiconductor heterostructures in outer space. . Spacecrafts & Technologies. 2021. V. 5. No. 2. Pp. 110-115. https://doi.org/10.26732/j.st.2021.2.06

44. Best in class flouride-based fiber for medical, telecom and research. Fiber optics. Made In Space. URL: https://madeinspace.us/capabilities-and-technology/fiber-optics/ (last accessed on June 23, 2021).

45. Belyakov I. T. Technology in Space. Ìoscow: Mashinostroyeniye, 1974. 292 pp. (in Russian).

46. Kovacik J., Minarikova N, Emmer S. and other. Titanium solar metallurgy - Earth and Space. 9th EASN International Conference on "Innovation in Aviation & Space", 17 December 2019, MATEC Web Conf. URL: https://www.matec-conferences.org/articles/matecconf/pdf/2019/53/matecconf_easn2019_07005.pdf (last accessed on July 25, 2021).

47. Berezin A. A company established in the United States for the extraction of minerals in space. URL: https://ru-universe.livejournal.com/466637.html (last accessed on July 5, 2021). (in Russian).

48. Mission success: Arkyd-6 tests key technologies for commercial space resource exploration. URL: https://spacenewsfeed.com/index.php/news/1233-mission-success-arkyd-6-tests-key-technologies-for-commercial-space-resource-exploration (last accessed on July 5, 2021).

49. Planetary Resources And The Government Of Luxembourg Announce ˆ25 Million Investment And Cooperation Agreement. URL: https://www.spaceforum.com/blog/planetary-resources-and-the-government-of-luxembourg-announce-25-million (last accessed on July 5, 2021).

50. Patent USA No. US9266627, IPC B64G1/24; B64G1/66. Method, apparatus, and system for asteroid prospecting and mining. Anderson E., Diamandis P. H., Lewicki C., Voorhees C. US13/869643 ; filed on April 24, 2013 ; published on February 23, 2016.

51. Patent USA No. US 9409658, IPC B64G99/00; B64G1/00; B64G1/24; B64G1/62; C22B9/00; E21C51/00. Space-based structures and methods of delivering space-sourced materials. Diamandis P. H., Anderson E., Lewicki C., Voorhees C. US14/218430 ; filed on March 18, 2014 ; published on September 8, 2016.

52. Prospector-1 -first commercial interplanetary mining mission. By Deep Space Industries. URL: https://phys.org/news/2016-08-prospector-1first-commercial-interplanetary-mission.html (last accessed on July 5, 2021).

53. Asteroid Retrieval Feasibility Study. Prepared for the: Keck Institute for Space Studies California Institute of Technology Jet Propulsion Laboratory Pasadena, California. 2 April 2012. 51 pp. URL: https://kiss.caltech.edu/final_reports/Asteroid_final_report.pdf (last accessed on July 5, 2021).

54. Patent USA No. US 10307970, IPC B33Y40/00; B29C64/00; B29C64/165; B29C67/00. In-situ resource preparation and utilization methods. Snyder M., Dunn J. US14/628040 ; filed on February 20, 2015 ; published on June 4, 2019.

55. The Orbital Debris Quarterly News. NASA JSC Houston. 2020. V. 24. No. 2. P. 11.

56. Patent USA No. US3781647, IPC B64G1/42; B64G1/44; H02J17/00; H02N6/00; H02S99/00. Method and apparatus for converting solar radiation to electrical power. Glaser P. US05/165893 ; filed on July 26, 1971 ; published on December 25, 1973.

57. SPS-ALPHA: The First Practical Solar Power Satellite via Arbitrarily Large Phased Array (A 2011-2012 NASA NIAC Phase 1 Project). Final Report. Principal Investigator Mr. John C. Mankins. Artemis Innovation Management Solutions LLC, Santa Maria, California, 15 September 2012. URL: https://ntrs.nasa.gov/api/citations/20190002466/downloads/20190002466.pdf (last accessed on July 21, 2021).

58. Sysoev V. K., Barabanov A. A., Dmitriev A. O., Nesterin I. M., Pichkhadze Ê. Ì., Suymenbaev B. T. Analysis of demonstration solar power space station layout scheme. Proceedings of the MAI, Electronic journal URL: http://trudymai.ru/published.php?ID=52959 (last accessed on June 24, 2021). (in Russian).

59. Here comes the sun: space-based solar power is on the horizon. URL: https://www.power-technology.com/comment/here-comes-the-sun-space-based-solar-power-is-on-the-horizon/. (last accessed on June 24, 2021').

60. SpaceLogistics. Our Life Extension Services. Mission Extension Vehicle. Northrop Grumman. URL: https://www.northropgrumman.com/space/space-logistics-services/ (last accessed on June 21, 2021).





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