TY - GEN
T1 - Bio-regenerative life support system development for Lunar/Mars habitats
AU - Giacomelli, Gene A.
AU - Furfaro, Roberto
AU - Kacira, Murat
AU - Patterson, Lane
AU - Story, David
AU - Boscheri, Giorgio
AU - Lobascio, Cesare
AU - Sadler, Phil
AU - Pirolli, Marzia
AU - Remiddi, Roberta
AU - Thangavelu, Madhu
AU - Catalina, Maria
PY - 2012
Y1 - 2012
N2 - Bio-regenerative Life Support Systems (BLSS) uses biological processes to support an astronaut crew, and includes atmosphere revitalization, water recycling, food production, and organic waste recycling. The University of Arizona Controlled Environment Agriculture Center (UA-CEAC), Systems and Industrial Engineering Department, Sadler Machine Co. (USA) and Italian collaborators, Thales Alenia Space Italia (TAS-I), Aero-Sekur, SpA, and University of Naples Federico II are developing BLSS for future Lunar/Mars surface missions. Current efforts at UA-CEAC include operation of four BLSS Lunar Greenhouse (LGH) Prototype Units with the primary purpose of demonstrating poly-culture production of food crops in a semi-closed gaseous cycle, and preliminary efforts of waste DWE-Composting, Solar Concentrating Plant Lighting/Power System, and System Monitoring/Telepresence Support. TAS-I, the University of Naples, and Aero-Sekur BLSS efforts in Italy include operation of Recyclab, the EDEN chamber, and the development of space plant growth chambers. UA-CEAC efforts are supported by NASA Ralph Steckler Phase II Space Grant while the Italian collaborators have been supported by ESA, ASI, and regional, and internal sources. Based on NASA crop production area estimates the LGH with its four modules will support a four person crew with 100% of their water/atmosphere recycling, and 50%of their total daily dietary caloric intake, (~1000 kcal per person). The use of BLSS in conjunction with physicochemical life support systems offers redundant life support systems for increased crew safety and a healthy diet. Unique features of the LGH effort are its closed system approach, poly-culture production for a diverse vegetarian diet, efforts to close the water cycle, integration of composting into the water and air revitalization cycles, fiber-optic delivery of concentrated sunlight for crop production, and near real-time remote decision support capabilities.
AB - Bio-regenerative Life Support Systems (BLSS) uses biological processes to support an astronaut crew, and includes atmosphere revitalization, water recycling, food production, and organic waste recycling. The University of Arizona Controlled Environment Agriculture Center (UA-CEAC), Systems and Industrial Engineering Department, Sadler Machine Co. (USA) and Italian collaborators, Thales Alenia Space Italia (TAS-I), Aero-Sekur, SpA, and University of Naples Federico II are developing BLSS for future Lunar/Mars surface missions. Current efforts at UA-CEAC include operation of four BLSS Lunar Greenhouse (LGH) Prototype Units with the primary purpose of demonstrating poly-culture production of food crops in a semi-closed gaseous cycle, and preliminary efforts of waste DWE-Composting, Solar Concentrating Plant Lighting/Power System, and System Monitoring/Telepresence Support. TAS-I, the University of Naples, and Aero-Sekur BLSS efforts in Italy include operation of Recyclab, the EDEN chamber, and the development of space plant growth chambers. UA-CEAC efforts are supported by NASA Ralph Steckler Phase II Space Grant while the Italian collaborators have been supported by ESA, ASI, and regional, and internal sources. Based on NASA crop production area estimates the LGH with its four modules will support a four person crew with 100% of their water/atmosphere recycling, and 50%of their total daily dietary caloric intake, (~1000 kcal per person). The use of BLSS in conjunction with physicochemical life support systems offers redundant life support systems for increased crew safety and a healthy diet. Unique features of the LGH effort are its closed system approach, poly-culture production for a diverse vegetarian diet, efforts to close the water cycle, integration of composting into the water and air revitalization cycles, fiber-optic delivery of concentrated sunlight for crop production, and near real-time remote decision support capabilities.
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U2 - 10.2514/6.2012-3463
DO - 10.2514/6.2012-3463
M3 - Conference contribution
AN - SCOPUS:85066969171
SN - 9781600869341
T3 - 42nd International Conference on Environmental Systems 2012, ICES 2012
BT - 42nd International Conference on Environmental Systems 2012, ICES 2012
PB - American Institute of Aeronautics and Astronautics Inc.
T2 - 42nd International Conference on Environmental Systems 2012, ICES 2012
Y2 - 15 July 2012 through 19 July 2012
ER -