Managing multiple satellite architectures by spatial grasp technology.
DOI:
https://doi.org/10.34121/1028-9763-2021-1-3-16Keywords:
Strategic Defense Initiative, Brilliant Pebbles, Next-Generation Space Architecture, hypersonic gliders, custody layer, virtual layer, Spatial Grasp Technology, Spatial Grasp Language, mobile recursive scenarios, Стратегічна оборонна ініціатива, супутники «Brilliant Pebbles» («Блискучі камінці»), Космічна архітектура наступного покоління, гіперзвукові планери, система охорони, віртуальний рівень, Технологія просторового захоплення, Мова просторового захоплення, мобільні рекурсивні сценаріїAbstract
The paper reviews some advanced space projects oriented on many satellites moving around the globe in low Earth orbits, and investigates how to organize their collective operation for solving important world problems, especially those related to global security and defense. It analyzes the application of the developed Spatial Grasp model and Technology (SGT), successfully tested on numerous applications, for simulation and management of multiple satellite architectures. Of particular interest is the latest Space Development Agency Next-Generation Space Architecture that uses a great number of cooperating satellites organized on different layers, which appears to be much more advanced than the known Strategic Defense Initiative project of the eighties. SGT is based on mobile recursive scenarios in a special high-level Spatial Grasp Language (SGL) which can self-navigate and self-match distributed environments while leaving throughout them powerful spatial infrastructures capable of solving any distributed problems. Providing basics of the latest SGT version, the paper describes examples of solutions in it of such problems as distributed tracing and elimination of complexly moving cruise missiles and hypersonic gliders, organization of effective custody layer which will be able to observe not only localized dangerous objects on the Earth but also any distributed terrestrial infrastructures as a whole. It also shows how to introduce a higher virtual layer for satellite constellation which may simplify formulation and solution of many problems in both terrestrial and celestial environments, including advanced command and control of complex national and international operations and campaigns from space.References
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