Порівняльний аналіз методів термічної дистиляції з тепловими насосами для тривалих космічних польотів
Ключові слова:
термоелектрика, тепловий насос, дистиляторАнотація
У роботі проведено порівняння відомих технологій вилучення води з продуктів життєдіяльності космонавтів в умовах тривалих космічних місій. Показана перевага використання відцентрової термічної дистиляції. Показані можливі відмови і недоліки компресійного вакуумного відцентрового дистилятора в порівнянні з відцентровим багатоступінчастим дистилятором з термоелектричним тепловим насосом. Бібл. 40, рис. 3, табл. 2.
The work compares technologies currently in use for water recovery from the vital products of astronauts in the conditions of long space missions. The advantage of using centrifugal thermal distillation is demonstrated. Possible failures and disadvantages of a compression vacuum centrifugal distiller compared with a centrifugal multistage distiller with a thermoelectric heat pump are shown. Bibl. 38, Fig. 3, Tabl. 2.
Посилання
Space biology (1972). Nauka [in Russian].
Hickman K. C. D. (1957). Industrial and Engineering Chemistry, 786.
Gorensek Max B., Baer-Peckham David. Space station water recovery trade study – Phase change technology. SAE paper 881015.
Roebelen G., Dehner G., and Winkler H. (1982). Thermoelectric integrated membrane evaporation water recovery technology. SAE Technical Paper 820849.
Muzhilko A.A., Rifert V.G., Barabash P.A. (1985). Flow of liquid film over the surface of a rotating disk. Heat transfer. Soviet research.
Butuzov A.I., Pukhovoy I.I. and Rifert V.G. (1976). Experimental determination of the minimum irrigation density in a thin-film rotating disk apparatus. Fluid Mechanics-Soviet Research, 5(1).
Butuzov A.I., Rifert V.G. (1972). An experimental study of heat transfer during condensation of steam at a rotating disk. Heat Transfer-Soviet Research, 4(6).
Butuzov A.I. and Rifert V.G. (1973). Heat transfer in evaporation of liquid from a film on a rotating disk. Heat Transfer-Soviet Research, 5(1).
Usenko V.I., Fainzilberg S.N. (1974). Effect of acceleration on the critical heat load with the boiling of freons on elements having small transverse dimensions. High Temperature.
Rifert V., Barabash P., Goliad N. (1990). Methods and processes of thermal distillation of water solutions for closed water supply systems. The 20th Intersociety Conference on Environmental Systems. (Williamsburg, July 1990). SAE Paper 901249.
Samsonov N., Bobe L., Novikov V., Rifert V. et al. (1994). Systems for water reclamation from humidity condensate and urine for space station. The 24th International society Conference on Environmental Systems (June, 1994). SAE Paper 941536.
Samsonov N.M., Bobe L.S, Novikov V., Rifert V.G., Barabash P.A et al. (1995). Development of urine processor distillation hardware for space stations. The 25th International Conference on Environmental Systems (San Diego, July 1995). SAE Paper 951605.
Samsonov N.M., Bobe L.S, Novikov V., Rifert V.G. et al. (1997). Updated systems for water recovery from humidity condensate and urine for the International space station. SAE Paper 972559. The 27th International Conference on Environmental Systems (Nevada, July 1997).
Samsonov N.M., Bobe L.S, Novikov V., Rifert V.G. et al. (1999). Development and testing of a vacuum distillation subsystem for water reclamation from urine. SAE Paper 1999-01-1993. The 29th International Conference on Environmental Systems.
Rifert V., Usenko V., Zolotukhin I., MacKnight A., Lubman A. (1999). Comparison of secondary water processors using distillation for space applications. SAE Paper 99-70466, 29th International Conference on Environmental Systems (Denver, July 1999).
Rifert V., Stricun A., Usenko V. (2000). Study of dynamic and extreme performances of multistage centrifugal distiller with the thermoelectric heat pump. SAE Technical Papers 2000. 30th International Conference on Environmental Systems (Toulouse, France, 10-13 July 2000).
Rifert V., Usenko V., Zolotukhin I., MacKnight A. and Lubman A. (2001). Design optimization of cascade rotary distiller with the heat pump for water reclamation from urine. SAE Paper 2001-01-2248, the 31st International Conference on Environmental Systems (Orlando, July 2001).
Rifert, V. G., Usenko V.I., Zolotukhin I.V., MacKnight A. and Lubman A. (2003). Cascade distillation technology for water processing in space. SAE Paper 2003-01-2625. 34st International Conference on Environmental Systems (Orlando, July 2003).
Lubman A., MacKnight A., Rifert V., Zolotukhin I. and Pickering K. (2006). Wastewater processing cascade distillation subsystem. Design and evaluation. SAE International, 2006-01-2273.
Lubman A., MacKnight A., Rifert V., and Barabash P. (2007). Cascade distillation subsystem hardware development for verification testing. SAE International, 2007-01-3177, July 2007.
Callahan M., Lubman A., MacKnight A. et al. Cascade distillation subsystem development testing. ICES-2008. SAE International, 2008-01-2195.
Callahan M., Lubman A., Pickering K. (2009). Cascade distillation subsystem development: progress toward a distillation comparison. 39th International Conference on Environmental Systems, ICES-2009. SAE International, 2009-01-2401.
McQuillan J., Pickering K., Anderson M., Carter L., Flynn M., Callahan M., Yeh J. (2010). Distillation technology down-selection for the exploration life support (ELS) water recovery systems element. 40th International Conference on Environmental Systems.
Callahan M.R., Patel V., and Pickering K.D. (2010). Cascade distillation subsystem development: early results from the exploration life support distillation technology comparison test. AIAA 2010-6149, 40th International Conference on Environmental Systems.
Loeffelholz David, Baginski Ban, Patel Vipul, MacKnight Allen, Schull Sarah, Sargusingh Miriam, and Callahan Michael (2014). Unit operation performance testing of cascade distillation subsystem. 44th International Conference on Environmental Systems (13-17 July 2014, Tucson, Arizona). ICES-2014-14.
Bruce A. Perry, Molly S. Anderson (2015). Improved dynamic modeling of the cascade distillation subsystem and analysis of factors affecting its performance. 45th International Conference on Environmental Systems (12-16 July 2015, Bellevue, Washington). ICES-2015-216.
Rifert V.G., Anatychuk L.I., Barabash P.A., Usenko V.I., Strikun A.P., Prybyla, A.V. (2017). Improvement of the distillation methods by using centrifugal forces for water recovery in space flight applications. J.Thermoelectricity, 1, 71-83.
Rifert Vladimir G., Barabash Petr A., Usenko Vladimir, Solomakha Andrii S., Anatychuk Lukyan I., Prybyla Andrii V. (2017). Improvement of the cascade distillation system for long-term space flights. 68th International Astronautical Congress (IAC) (Adelaide, Australia, 25-29 September 2017).
Rifert Vladimir G., Anatychuk Lukyan I., Solomakha Andrii S., Barabash Petr A., Usenko Vladimir, Prybyla A.V., Naymark Milena, Petrenko Valerii (2019). Upgrade the centrifugal multiple-effect distiller for deep space missions. 70th International Astronautical Congress (IAC) (Washington D.C., United States, 21-25 October 2019). IAC-19-A1, IP, 11x54316.
Rifert V.G., Anatychuk L.I., Barabash P.O., Usenko V.I., Strikun A.P., Solomakha А. S, Petrenko V.G., Prybyla A.V. (2019). Evolution of centrifugal distillation system with a thermoelectric heat pump for space missions. Part 1. Review of publications on centrifugal distillation in the period of 1990 – 2017. J.Thermoelectricity, 1, 57 – 67.
Rifert V.G., Anatychuk L.I., Barabash P.O., Usenko V.I., Strikun A.P., Solomakha А. S, Petrenko V.G., Prybyla A.V. (2019). Evolution of centrifugal distillation system with a thermoelectric heat pump for space missions. Part 2. Study of the variable characteristics of a multi-stage distillation system with a thermoelectric heat pump (ТНР). J.Thermoelectricity, 2, 62 – 77.
Rifert V.G., Anatychuk L.I., Barabash P.O., Usenko V.I., Strikun A.P., Solomakha А. S, Petrenko V.G., Prybyla A.V. (2019). Evolution of centrifugal distillation system with a thermoelectric heat pump for space missions. Part 3. Analysis of local and integral characteristics of centrifugal distillation system with thermoelectric heat pump. J.Thermoelectricity, 3, 73 – 88.
Thibaud-Erkey C., Fort J., and Edeen M. (2000). A new membrane for the thermoelectric integrated membrane evaporative subsystem (TIMES). SAE Technical Paper 2000-01-2385.
Noble Larry D., Schubert Franz H., Pudoka Rick J., Miernik Janie H. (1990). Phase change water recovery for the space station freedom and future exploration missions. 20th lntersociety Conference on Environmental Systems (Williamsburg, Virginia, July 9-12, 1990). SAE Technical Paper 901294.
Carter Layne, Williamson Jill, Brown Christopher A., Bazley Jesse, Gazda Daniel, Schaezler Ryan, Frank Thomas, Sunday Molina (2019). Status of ISS water management and recovery. 49th International Conference on Environmental Systems (7-11 July 2019, Boston, Massachusetts). ICES 2019-36.
Rifert V.G., Barabash P.A., Solomakha A.S., Usenko V., Sereda V.V., Petrenko V.G. (2018). Hydrodynamics and heat transfer in centrifugal film evaporator. Bulgarian Chemical Communications, 50, Special Issue K, 49-57.
Williamson Jill P., Carter Layne, Hill Jimmy, Jones Davey, Morris Danielle, Graves Rex (2019). Upgrades to the international space station urine processor assembly. 49th International Conference on Environmental Systems (7-11 July 2019, Boston, Massachusetts). ICES-2019-43.
Pruitt Jennifer M., Carter Layne, Bagdigian Robert M., Kayatin Matthew J. (2015). Upgrades to the ISS water recovery system. 45th International Conference on Environmental Systems (12-16 July 2015, Bellevue, Washington). ICES-2015-133.
