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000438195 010__ $$z  2009921645
000438195 020__ $$a9780387981918 (electronic bk.)
000438195 020__ $$z9780387981901
000438195 035__ $$a(OCoLC)ocn647920455
000438195 035__ $$a(CaPaEBR)ebr10383053
000438195 040__ $$aCaPaEBR$$cCaPaEBR
000438195 043__ $$azma----
000438195 05014 $$aTL795.7$$b.S44 2009eb
000438195 1001_ $$aSeedhouse, Erik.
000438195 24510 $$aMartian outpost$$h[electronic resource] :$$bthe challenges of establishing a human settlement on Mars /$$cErik Seedhouse.
000438195 260__ $$aNew York :$$bSpringer,$$c2009.
000438195 300__ $$a1 online resource (xxxi, 292 p.), [8] p. of plates :$$bill. (some col.).
000438195 4901_ $$aSpringer-Praxis books in space exploration
000438195 504__ $$aIncludes bibliographical references and index.
000438195 5050_ $$aPreface -- Acknowledgments -- About the author -- List of figures -- List of tables -- List of abbreviations and acronyms -- 1:  Why Go? -- Benefits of traveling to Mars -- Science -- Human expansion -- International cooperation -- Technological advancement -- Human performance -- Inspiration -- Role of NASA -- Inevitability of humans on Mars -- References -- 2:  Interplanetary Plans -- European space agency -- Aurora missions -- European politics -- Russia and China -- United States -- New vision -- American politics -- Global exploration strategy -- 3:  Mission Architectures -- Interplanetary trajectories -- Basic orbital mechanics -- Trajectory variables -- Trajectory options -- Braking into orbit -- In summary -- Das Marsprojekt -- Mission architecture -- Mars direct -- Mars direct architecture -- Medical aspects -- Surface architecture -- Radiation and mission risk -- Pros and cons of Mars direct -- Reference mission of the Marsdrive Consortium -- Mission architecture -- Mission hardware -- Mission analysis -- Project troy -- Mission architecture -- Mission parameters -- Lift mass and launch requirements -- Cost and timescale -- Mission requirements -- European space agency -- Mission architecture -- Global Aerospace Corporation -- Mars transit base -- Cycling orbits -- Transit stations -- Testing the plan -- Cycler analyzed -- NASA Design Reference Mission -- SpaceWorks Engineering Inc (SEI) -- Mission architecture -- Mission parameters -- Architecture flight hardware -- Entry, descent, landing and Mars ascent -- Architecture surface hardware -- Architecture masses -- Mars exploration campaign -- Mission risk -- DIRECT 2_0 -- Jupiter launch system -- Integration and utilization of shuttle-derived technology -- Integration and utilization of existing technology -- Mission architecture -- In summary -- References -- 4:  Abort Modes And The Challenges Of Entry, Descent And Landing -- Abort options -- Free return trajectory -- Challenges of entry, descent and landing -- Generic entry, descent and landing sequence -- Why landing on Mars won't be easy -- Resolving the EDL problem -- Approach and entry to Mars' atmosphere -- Skycrane option -- Space elevator -- In summary -- References --5:  Propulsion Systems -- Variable specific impulse magnetoplasma rocket -- Overview -- Plasma-based propulsion technology -- Rocket engine -- VASIMR today -- Nuclear propulsion -- History -- Nuclear thermal propulsion overview -- Nuclear thermal propulsion technology -- Nuclear thermal propulsion today -- Bimodal nuclear thermal rocket -- Liquid oxygen augmented nuclear thermal reactor -- Technology -- Magnetoplasmadynamic thrusters -- Overview -- Magnetoplasmadynamic thruster technology -- Magnetoplasmadynamic research today -- Magnetized target fusion -- Overview -- Magnetized target fusion technology -- Magnetized target fusion today -- Antimatter -- Overview -- Antimatter concept of operations -- Problems with antimatter -- Antimatter spaceships -- In summary -- References -- 6:  Mars Hardware -- Mars mission architecture review -- Exploration systems architecture study -- Ares V -- Design requirements -- Ares V overview -- Ares V core stage propulsion -- Ares I -- Design history -- Design endorsement -- Ares I design -- Ares I first stage design -- Ares I upper stage design -- Ares I avionics -- Ares I test flights -- Development problems -- Ares I and V propulsion -- J-2 and J-2X history -- J-2X concept of operations -- J-2X hardware -- Orion -- Concept of operations -- Orion module overview -- Designing Orion -- Orion systems and subsystems -- Orion abort modes -- Risk assessment -- Trans-Mars injection stage -- In-space propulsion stage -- In-space inflatable transfer habitats (TransHabs) -- Role -- Construction -- Systems -- Life support -- Mars excursion vehicle -- Role -- Heatshield -- Descent stage -- Ascent stage -- Mars surface habitat -- Life support system -- Extravehicular activity support -- Pressurized rover -- In summary -- References -- 7:  Crew Selection And Training -- Crew selection -- Crew composition -- Crew selection overview -- Selection criteria unique to Mars missions -- Genetic screening -- Precautionary surgery -- Crew training -- Basic crew training -- Pre-Mars mission-related training -- Pre-Mars mission -- Mars mission training -- Analog environments as training tools -- Antarctica -- Haughton Mars project -- Mars Desert Research Station -- NASA's Extreme Environments Mission Operations project -- Mars500 -- In summary -- References -- 8:  Biomedical And Behavioral Issues -- Biomedical risks -- Radiation -- Overview -- Radiation environment -- Radiation units -- Biological risks -- Radiation exposure guidelines -- Radiation countermeasures -- Radioprotective agents -- Radiation forecasting -- Bone loss -- Effect of microgravity on the skeletal system -- Mechanism of bone loss -- Space radiation-induced bone loss -- Bone loss -- Monitoring bone loss -- Countermeasures to bone demineralization -- Non-pharmacological intervention -- Bone loss:  a summary -- Muscle loss -- Cardiovascular changes -- Orthostatic intolerance -- Cardiac dysfunction -- Neurovestibular -- Space adaptation syndrome -- Sensorimotor and locomotion adaption -- Immunological -- Behavioral issues -- Expedition stressors -- Behavioral problems -- Psychiatric disorders -- Positive effects -- References -- 9:  Voyage To Mars -- Mission risk -- Pre-launch activities -- Launch and initial low Earth orbit operations -- Trans-Mars injection and interplanetary travel -- Life and death -- Sleeping -- Expedition clothes -- Hygiene -- Running to Mars -- Preparing meals -- Working en-route -- External communication -- Getting along -- Leadership -- Leisure time -- Habitability -- In-flight medical care -- Arrival at Mars and orbit capture -- Mars entry, descent and landing -- Approach phase -- Entry/atmospheric deceleration phase -- Parachute descent phase -- Powered descent phase -- Initial surface operations -- Long term surface operations -- Departure preparations and departure -- Rendezvous, docking and transfer to Earth return vehicle -- Trans-Earth injection and interplanetary travel -- Earth entry, descent and landing -- Post landing recovery -- Bone demineralization -- Muscle atrophy -- Neurovestibular problems -- References -- 10:  Exploration Activities And Surface Systems -- Surface exploration -- Exploration strategy -- Surface exploration considerations -- Surface objectives -- Surface systems -- Power generation and storage -- Extravehicular activity -- Life support systems -- Surface habitat -- In-situ resource utilization -- Surface mobility -- Martian communications and navigation capabilities -- Communications overview -- Surface-based communications network:  concept of operations -- Mars to Earth communications:  concept of operations -- Descent and landing navigation capability -- Surface mobility navigation capability -- Radiometric time architecture -- Surface communication systems -- Surface wireless mesh networking -- References -- 11:  Extreme EXPeditionary Architecture -- Mobile, adaptable systems for Mars exploration -- Revolutionary exploration objectives -- Extreme EXPeditionary architecture background -- EXP-Arch vehicle design concepts -- Design principles -- Initial conceptual designs -- Final vehicle design:  MSR Scorpion -- Final vehicle design:  Mini Rover -- Radiation and shelter strategy -- Advanced composite materials -- Thermo-sets -- Three-dimensional braided fabrics -- Bioinspired engineering of exploration systems -- Gecko-tech -- Entomopters -- Biomorphic explorers -- Yabbies -- References -- Epilogue -- Glossary -- Index.
000438195 506__ $$aAccess limited to authorized users.
000438195 520__ $$aFrom the Publisher:  Martian Outpost provides a unique and detailed insight into the various enabling technologies, mission architectures, medical requirements, and training needed to send humans to Mars. It focuses on the mission objectives and benefits, and the risks and complexities which are compounded when linked to an overall planet exploration program involving a permanent presence on the surface.
000438195 588__ $$aDescription based on print version record.
000438195 650_0 $$aSpace colonies.
000438195 650_0 $$aSpace tourism.
000438195 650_0 $$aManned space flight.
000438195 650_0 $$aSpace industrialization.
000438195 651_0 $$aMars (Planet)$$xExploration.
000438195 655_7 $$aElectronic books.$$2lcsh
000438195 77608 $$iPrint version:$$aSeedhouse, Erik.$$tMartian outpost.$$dBerlin ; New York : Springer ; Chichester, UK : In association with Praxis, c2009$$z9780387981901$$w(DLC) 2009921645$$w(OCoLC)312626136
000438195 830_0 $$aSpringer-Praxis books in space exploration.
000438195 8520_ $$bacq
000438195 85280 $$bebk$$hProquest Ebook Central
000438195 85640 $$3ProQuest Ebook Central$$uhttps://univsouthin.idm.oclc.org/login?url=https://ebookcentral.proquest.com/lib/usiricelib-ebooks/detail.action?docID=571765$$zOnline Access
000438195 909CO $$ooai:library.usi.edu:438195$$pGLOBAL_SET
000438195 980__ $$aEBOOK
000438195 980__ $$aBIB
000438195 982__ $$aEbook
000438195 983__ $$aOnline