“…По оценке специалистов, биолого-техническими системами жизнеобеспечения (БТСЖО) длительного срока функционирова-ния будут системы гибридного типа, основан-ные на биологических и физико-химических способах утилизации отходов жизнедеятель-ности человека (Gitelson et al, 2003;Tikhomirov et al, 2003Tikhomirov et al, , 2007Bamsey et al, 2009). Исполь-зование почвоподобного субстрата (ППС) в БТСЖО является одним из перспективных биологических способов вовлечения во внут-рисистемный круговорот несъедобной рас-тительной биомассы (Manukovsky et al, 1997;Liu et al, 2008;Cheng et al, 2013;Hu et al, 2013;Tikhomirov et al, 2011) Минеральный состав образцов анали-зировали методами, описанными в работе (Kalacheva, 2002).…”
Use of the soil-like substrate (SLS) as a root-inhabited substrate is one of the most perspective ways of plants cultivation in biological-technical life support systems (BTLSS). Inclusion of plant inedible biomass seems to be necessary for closure increase of mass exchange processes of a long-functioning
BTLSS. The work presents estimation data of three ways of processing wheat and radish inedible biomass introduced into the SLS: a 'biological' method, a physical-technical way
“…По оценке специалистов, биолого-техническими системами жизнеобеспечения (БТСЖО) длительного срока функционирова-ния будут системы гибридного типа, основан-ные на биологических и физико-химических способах утилизации отходов жизнедеятель-ности человека (Gitelson et al, 2003;Tikhomirov et al, 2003Tikhomirov et al, , 2007Bamsey et al, 2009). Исполь-зование почвоподобного субстрата (ППС) в БТСЖО является одним из перспективных биологических способов вовлечения во внут-рисистемный круговорот несъедобной рас-тительной биомассы (Manukovsky et al, 1997;Liu et al, 2008;Cheng et al, 2013;Hu et al, 2013;Tikhomirov et al, 2011) Минеральный состав образцов анали-зировали методами, описанными в работе (Kalacheva, 2002).…”
Use of the soil-like substrate (SLS) as a root-inhabited substrate is one of the most perspective ways of plants cultivation in biological-technical life support systems (BTLSS). Inclusion of plant inedible biomass seems to be necessary for closure increase of mass exchange processes of a long-functioning
BTLSS. The work presents estimation data of three ways of processing wheat and radish inedible biomass introduced into the SLS: a 'biological' method, a physical-technical way
“…a lunar base or a mission to Mars (Melissa webpage). Several compartments constitutes its framework: (1) termophilic anaerobic bacteria for waste degradation, (2) photoheterotrophic bacteria for basic food syntheses, (3) nitrifying bacteria for nitrogen conversion, and (4) higher plant production and photoautotrophic bacteria for food, water and air production Recently, the Italian research group of the University of Naples has been involved in MELISSA providing its research experience, in synergy with other projects like Russian Bios-3 system (Tikhomirov et al 2007), to propose different BLSS configurations for long-term manned Space missions.…”
Section: Ongoing Projectsmentioning
confidence: 99%
“…It is not realistic to supply a Spaceship traveling towards Mars with all resources, in terms of food, water and oxygen, enough to fulfil the crew's needs for the years required for each mission. As a consequence, such interplanetary travels and the long permanence on Space platforms are strictly based on the development and on the efficient use of biological and physico-chemical regenerative Life Support Systems capable of sustaining the crew's needs through a continuous regeneration of resources with the objective of complete self-sufficiency (MacElroy et al 1987;Rummel and Volk 1987;Bartsev et al 1996;Wheeler et al 1996;Stutte et al 1997;Gros et al 2003;Tikhomirov et al 2007). Physico-chemical Life Support Systems can provide oxygen, reduce carbon dioxide and recycle water, whereas biological Life Support Systems (plants, bacteria, algae, etc.)…”
Section: Experiments On Pollen Tube Development Of Herbaceous and Woomentioning
“…Cyanobacteria could also be used to process human waste products and recycle their organic C, water, nitrates and mineral nutrients. Cultures could be used directly (Filali et al 1997;Godia et al 2002;Lehto et al 2006;Yang et al 2008) but also indirectly; for instance, H 2 O 2 generated from cyanobacterium-produced O 2 and H 2 O could be used to oxidize human wastes following a physicochemical process developed by researchers of the Institute of Biophysics of the Siberian Branch of the Russian Academy of Sciences (Kudenko et al 2000); nutrients could then be recycled in cyanobacterial cultures (Tikhomirov et al 2007). Cyanobacteria have also been suggested for the production, beyond Earth, of various chemicals including nutritional molecules, drugs, bioplastics and cellulosic building materials Menezes et al 2014).…”
Section: Other Applicationsmentioning
confidence: 99%
“…Even in the case where these are the backbones of life-support systems, biological modules could both complement them and provide safe redundancies. Consequently, various bioregenerative lifesupport systems (BLSS) are or have been under development for recycling food, water and gases both in space (e.g., Godia et al 2002;Gitelson et al 2003;Drysdale et al 2004;Lobascio et al 2007;Nelson et al 2010;Giacomelli et al 2012) and within lunar and Martian outposts (e.g., Gitelson 1992;Blüm et al 1994;Tikhomirov et al 2007;Nelson et al 2010). This may sound promising: instead of sending resources in amounts almost proportional to the mission length, only a few weeks' worth of consumables would be sent and recycled.…”
Even though technological advances could allow humans to reach Mars in the coming decades, launch costs prohibit the establishment of permanent manned outposts for which most consumables would be sent from Earth. This issue can be addressed by in situ resource utilization: producing part or all of these consumables on Mars, from local resources. Biological components are needed, among other reasons because various resources could be efficiently produced only by the use of biological systems. But most plants and microorganisms are unable to exploit Martian resources, and sending substrates from Earth to support their metabolism would strongly limit the cost-effectiveness and sustainability of their cultivation. However, resources needed to grow specific cyanobacteria are available on Mars due to their photosynthetic abilities, nitrogen-fixing activities and lithotrophic lifestyles. They could be used directly for various applications, including the production of food, fuel and oxygen, but also indirectly: products from their culture could support the growth of other organisms, opening the way to a wide range of life-support biological processes based on Martian resources. Here we give insights into how and why cyanobacteria could play a role in the development of self-sustainable manned outposts on Mars.
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