126. Shafirovich, E. Ya. and Goldshleger, U. I, “The Superheat Phenomenon in the Combustion of Magnesium Particles”, Combustion and Flame, Volume 88, 1992, pp425 – 432 127. Shafirovich, E. Ya. and Goldshleger, U. I., “Mars Multi-Sample Return Mission”, Journal of the British Interplanetary Society, Volume 48, 1995, pp315 – 319 128. Shafirovich, E. Ya. and Goldshleger, U. I., “Comparison of Potential Fuels for Martian Rockets Using CO2”, Journal of Propulsion and Power, Volume 13, Number 3, May – June 1997, pp395 – 397 129. Shafirovich, E. Ya. and Goldshleger, U. I., “Pulsating Combustion of Magnesium Particles in CO”, Combustion Science and Technology, Volume 135, 1998, pp241 – 254 130. Shirley, Donna L. and McCleese, Daniel J., “Mars Exploration Strategy : 1995 – 2020”, AIAA 96- 0333, 24 th Aerospace Sciences Meeting & Exhibit, January 15 – 18, 1996, Reno, NV 131. Smith, Lawrence A., Gupta N., Sass, Bruce M., Bubenik, Thomas A., Byrer, C., Bergman, P., “Engineering and Economic Assessment of Carbon Dioxide Sequestration in Saline Formations”, Journal of Energy and Environmental Research, Volume 2, February 2002, pp 5 – 22 132. Sparks, D. R., “Hybrid Rocket Propellant from Lunar Materials”, Acta Astronautica, Vol. 17, No. 10, pp 1093 – 1097, 1988 133. Sridhar, K. R., “Mars Sample Return Mission with ISSP”, Journal of the British Interplanetary Society, Volume 49, Number 11, November 1996, pp 435 - 440 134. Sridhar, K. R. and Vaniman, B. T., “Oxygen Production on Mars using Solid Oxide Electrolysis”, Solid State Ionics, Volume 93, 1997, pp321-328 135. Sridhar, K. R., Gottmann, M. and Baird, R. S., “2001 Mars In-Situ Oxygen Production Flight Demonstration”, 35 th AIAA/ASME/SAE/ASEE Joint Propulsion Conference and Exhibit, 20 – 23 June 1999, AIAA 99-2413 136. Sridhar, K. R., Finn, J. E. and Kliss, M. H., “In-Situ Resource Utilisation Technologies for Mars Life Support Systems”, Advanced Space Research, Volume 25, Number 2, 2000, pp249 – 255 137. Stancati, M.L., Niehoff, J. C., Wells, W. C., Feingold, H and Ash, L., “In Situ Propellant Production for Improved Sample Return Mission Performance”, AAS 79-177, pp909-921 138. Stancati, M. L., Niehoff, J. C., and Wells, W. C., and Ash, R. L., “In Situ Propellant Production : A New Potential for Round Trip Spacecraft”, AIAA Paper No. 79-0906, presented at the AIAA/NASA Conference on Advanced Technology for Future Space Systems, Hampton, VA, May 1979 139. Stancati, M. L., German, D. J., Jacobs M. K. and Neihoff, J. C., “Mars In-Situ Propellant Production : Needs and Technologies”, Science Applications International Corporation, unpublished [just the abstract] 140. Stefanescu, D. M., Grugel, R. N. and Curreri, P. A., “In Situ Resourc e Utilization for Processing of Metal Alloys on Lunar and Mars Bases”, Source Unknown 141. Sullivan, T. A., Linne, D., Bryant, L., and Kennedy, K., “In-Situ Produced Methane and Methane/Carbon Monoxide Mixtures for Return Propulsion Systems on Mars”, Journal of Propulsion and Power, Volume 11, 1056-1062, 1995 142. Tamura, K., Kohno, M. and Akiba, R., “A Feasibility Study of a Jet Pump for Powder Rockets”, Proceedings of the 11 th International Symposium for Space Technology and Science, June 30th – July 4 th 1975, pp117-122 143. TeGrotenhuis, W. E., Wegeng, R. S., Vanderwiel, D. P, Whyatt, G. A., Viswanathan, V. V., Schielke, K. P., Sanders, G. B. and Peters, T. A., “Microreactor System Design for NASA In Situ Propellant Production on Mars”, pp5, Source Unknown
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Technology Requirements for Mars Sa
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Mineral Composition Cordierite Mg2A
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Mineral Composition Nesquehonite Mg
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Appendix B: European Gas Manufactur
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COUNTRY O2 H2 N2 CH4 CO2 COMPANY AD
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Appendix C: European Metal Producer
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COUNTRY Al Ti Mg Fe Si COMPANY ADDR
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Appendix D: PEP Outputs Carbon Diox
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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Carbon Dioxide (CO2) Chamber Pressu
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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DH DENS COMPOSITION CARBON DIOXIDE
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Liquid Oxygen (LOX) Chamber Pressur
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DH DENS COMPOSITION OXYGEN (LIQUID)
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DH DENS COMPOSITION OXYGEN (LIQUID)
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DH DENS COMPOSITION OXYGEN (LIQUID)
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DH DENS COMPOSITION OXYGEN (LIQUID)
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DH DENS COMPOSITION CARBON MONOXIDE
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DH DENS COMPOSITION OXYGEN (LIQUID)
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DH DENS COMPOSITION OXYGEN (LIQUID)
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DH DENS COMPOSITION OXYGEN (LIQUID)
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- Page 106 and 107: ***SOLUTION AT 2.00 SECONDS*** ABLA
- Page 108 and 109: NODE MATL NODE DEPTH TEMP (IN) (DEG
- Page 110 and 111: 2 1 .0500 3800.0000 3 1 .1000 3725.
- Page 112 and 113: 6 1 .2500 3491.7120 7 0 .3000 3337.
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- Page 118 and 119: 2 1 .0500 1747.1370 3 1 .1000 1641.
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