Utilization of in Situ resources is a fundamental capability to be developed for the construction of permanent and semi-permanent structures on Mars and the Moon. Nevertheless, direct human contact with regolith would jeopardize crew health. New design strategies that address such problems need to be explored and developed. This paper presents a feasible design for a hybrid class 2 / class 3 outpost that includes ISRU structures integrated with prefabricated inflatable and solid elements, both for pressurized and infrastructure elements. The Architectural Design Thesis Laboratory of the Polytechnic University of Bari conducted research on this topic, and, under the name of archi.mars, the group designed a permanent and self-sufficient settlement: “HiveMars”. The proposal explores a concept for the integration of ISRU-enabled and prefabricated structures to create a scalable infrastructure capable of supporting human life on the surface. To reduce mission costs and launch load from Earth, eight different automated rovers will prepare the site area before the crew’s arrival. Following the site exploration phase (identified in the Hellas Planitia, in the martian southern hemisphere) the automated surface assets will proceed with the material collection, processing, and construction of the main infrastructures, including Landing pads and roads. The first habitat nucleus is composed of three self-supporting, inter-connected domes, built with Martian regolith using additive manufacturing, and outfitted with an inflatable, pressurized core that hosts the pre-integrated ECLSS systems and the internal infrastructure. A pre-integrated dome on the top of the prefabricated core ensures the right amount of natural light while protecting the internal habitat from radiations and micro-meteoroid impacts.
HiveMars: Design of a Hybrid-class, scalable Settlement on the martian surface / Vlahovljak, Mirha; Paradiso, Isabella; Buono, Federica; Angione, Alessandro; Zecevic, Hana; Fuscello, Ivana; Netti, Vittorio; Fallacara, Giuseppe. - ELETTRONICO. - (2021). (Intervento presentato al convegno 50th International Conference on Environmental Systems, ICES-2021 tenutosi a Lisboa, Portugal nel June 12-15, 2021).
HiveMars: Design of a Hybrid-class, scalable Settlement on the martian surface
Alessandro Angione;Vittorio Netti;Giuseppe Fallacara
2021-01-01
Abstract
Utilization of in Situ resources is a fundamental capability to be developed for the construction of permanent and semi-permanent structures on Mars and the Moon. Nevertheless, direct human contact with regolith would jeopardize crew health. New design strategies that address such problems need to be explored and developed. This paper presents a feasible design for a hybrid class 2 / class 3 outpost that includes ISRU structures integrated with prefabricated inflatable and solid elements, both for pressurized and infrastructure elements. The Architectural Design Thesis Laboratory of the Polytechnic University of Bari conducted research on this topic, and, under the name of archi.mars, the group designed a permanent and self-sufficient settlement: “HiveMars”. The proposal explores a concept for the integration of ISRU-enabled and prefabricated structures to create a scalable infrastructure capable of supporting human life on the surface. To reduce mission costs and launch load from Earth, eight different automated rovers will prepare the site area before the crew’s arrival. Following the site exploration phase (identified in the Hellas Planitia, in the martian southern hemisphere) the automated surface assets will proceed with the material collection, processing, and construction of the main infrastructures, including Landing pads and roads. The first habitat nucleus is composed of three self-supporting, inter-connected domes, built with Martian regolith using additive manufacturing, and outfitted with an inflatable, pressurized core that hosts the pre-integrated ECLSS systems and the internal infrastructure. A pre-integrated dome on the top of the prefabricated core ensures the right amount of natural light while protecting the internal habitat from radiations and micro-meteoroid impacts.I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.