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      Effect of Volume Ratio between the Back Space and Compression Space of Compressor on Cooling Performance in an Inertance Pulse Tube Cryocooler

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      https://www.riss.kr/link?id=A108460845

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      다국어 초록 (Multilingual Abstract)

      The reciprocating flow in an Inertance Pulse Tube Cryocooler (IPTC) with the piston movement in a compression chamber was modeled numerically and analyzed. The numerical modeling on the axisymmetric two-dimensional thermal fluid motion was applied to the reciprocating flow in an IPTC and compared the transient velocity field and temperature in the IPTC. The modeling of IPTC consists of the flow and heat transfer in the cylinder of compressor, a regenerator with a porous media, a pulse tube, 2 heat exchangers with a porous media, a long inertance, and a reservoir. The crevice between free piston and cylinder wall in the compressor was also modeled to consider the effect of leaked gas through the crevice during compression and expansion of cylinder volume. It is investigated the effect of volume ratio between the back space of piston and the compression space on the cooling performance or energy efficiency of IPTC was investigated with the temperature and flow distribution.
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      The reciprocating flow in an Inertance Pulse Tube Cryocooler (IPTC) with the piston movement in a compression chamber was modeled numerically and analyzed. The numerical modeling on the axisymmetric two-dimensional thermal fluid motion was applied to ...

      The reciprocating flow in an Inertance Pulse Tube Cryocooler (IPTC) with the piston movement in a compression chamber was modeled numerically and analyzed. The numerical modeling on the axisymmetric two-dimensional thermal fluid motion was applied to the reciprocating flow in an IPTC and compared the transient velocity field and temperature in the IPTC. The modeling of IPTC consists of the flow and heat transfer in the cylinder of compressor, a regenerator with a porous media, a pulse tube, 2 heat exchangers with a porous media, a long inertance, and a reservoir. The crevice between free piston and cylinder wall in the compressor was also modeled to consider the effect of leaked gas through the crevice during compression and expansion of cylinder volume. It is investigated the effect of volume ratio between the back space of piston and the compression space on the cooling performance or energy efficiency of IPTC was investigated with the temperature and flow distribution.

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      참고문헌 (Reference) 논문관계도

      1 Taylor, R. P., 985 : 1445-1453, 2008

      2 한성현 ; 이경환 ; 최종욱 ; 김재수, "관성관 맥동관 극저온 냉동기의 유동 특성 모델링" 한국전산유체공학회 19 (19): 14-19, 2014

      3 de Waele, A. T. A. M., "Thermodynamical aspects of pulse tubes" 37 (37): 313-324, 1997

      4 de Boer, P. C. T., "Thermodynamic analysis of the basic pulse-tube refrigerator" 34 (34): 699-711, 1994

      5 Kaiser, G., "Thermodynamic analysis of an ideal four valve pulse tube refrigerator" 36 (36): 527-533, 1996

      6 Yuan, J., "Thermodynamic analysis of active valve pulse tube refrigerators" 39 : 283-292, 1999

      7 Ju, Y. L., "Thermodynamic analysis of G–M type pulse tube coolers" 41 : 513-520, 2001

      8 Bhatia, R. S., "Review of spacecraft cryogenic coolers" 39 (39): 329-346, 2002

      9 Gifford, W. E., "Pulse tube refrigeration progress" 10 : 69-79, 1965

      10 de Boer, P. C. T., "Performance of the Inertance Pulse Tube" 42 (42): 209-221, 2002

      1 Taylor, R. P., 985 : 1445-1453, 2008

      2 한성현 ; 이경환 ; 최종욱 ; 김재수, "관성관 맥동관 극저온 냉동기의 유동 특성 모델링" 한국전산유체공학회 19 (19): 14-19, 2014

      3 de Waele, A. T. A. M., "Thermodynamical aspects of pulse tubes" 37 (37): 313-324, 1997

      4 de Boer, P. C. T., "Thermodynamic analysis of the basic pulse-tube refrigerator" 34 (34): 699-711, 1994

      5 Kaiser, G., "Thermodynamic analysis of an ideal four valve pulse tube refrigerator" 36 (36): 527-533, 1996

      6 Yuan, J., "Thermodynamic analysis of active valve pulse tube refrigerators" 39 : 283-292, 1999

      7 Ju, Y. L., "Thermodynamic analysis of G–M type pulse tube coolers" 41 : 513-520, 2001

      8 Bhatia, R. S., "Review of spacecraft cryogenic coolers" 39 (39): 329-346, 2002

      9 Gifford, W. E., "Pulse tube refrigeration progress" 10 : 69-79, 1965

      10 de Boer, P. C. T., "Performance of the Inertance Pulse Tube" 42 (42): 209-221, 2002

      11 이경환 ; 이주훈 ; 김재수, "Parametric Study on Performance of Inertance Pulse Tube Cryocooler" 한국항공우주학회 15 (15): 205-211, 2014

      12 Jafarian, A., "Numerical simulation and performance optimization of a high capacity pulse tube cryocooler" 35 (35): 1204-1210, 2008

      13 Wang, C., "Numerical modelling of an orifice pulse tube refrigerator" 32 (32): 785-790, 1992

      14 Zhu, S., "Numerical method of inertance tube pulse tube refrigerator" 44 : 649-660, 2004

      15 Kumar, P., "Numerical investigation of a 3D inertance pulse tube refrigerator from design prospective" 98 : 125-138, 2019

      16 Lee, K. H., "Numerical analysis on distribution of temperature and flow velocity in an inertance pulse tube cryocooler" 2 (2): 89-93, 2015

      17 Boroujerdi, A. A., "Numerical analysis of stirling type pulse tube cryocoolers" 51 (51): 521-529, 2011

      18 Abraham, D., "Numerical analysis of inertance tube cryocooler with a modified reservoir" 278 : 2017

      19 Wang, C., "Numerical analysis of double-inlet pulse tube refrigerator" 33 (33): 526-530, 1993

      20 Choudhari, M. S., "Numerical Analysis of Inertance Pulse Tube Refrigerator" 1104-, 2021

      21 Chaa, J. S., "Multi-dimensional flow effects in pulse tube refrigerators" 46 : 658-665, 2006

      22 Panda, D., "Mathematical Modelling and Design Software for Pulse Tube Cryocoolers" National Institute of Technology 2016

      23 Mikulin, E. I., "Low temperature expansion pulse tubes" 29 : 629-637, 1984

      24 Liu, S., "Impact of coiled type inertance tube on performance of pulse tube refrigerator" 107 (107): 63-69, 2016

      25 Lee, J. M., "Higher order pulse tube modeling" 345-353, 1997

      26 Cai, J. H., "Experimental analysis of double-inlet principle in pulse tube refrigerators" 33 : 522-525, 1993

      27 Radebaugh, R., "Development of the pulse tube refrigerator as an efficient and reliable cryocooler" 96 : 11-29, 2000

      28 Potratz, S., "Design and Test of a High Capacity Pulse-Tube" University of Wisconsin System 2005

      29 X. B. Zhang, "CFD study of a simple orifice pulse tube cooler" 47 : 315-321, 2007

      30 Cha, J., "CFD Simulation of Multi-Dimensional Effects in Inertance Tube Pulse Tube Cryocoolers" Georgia Institute of Technology 2004

      31 Longsworth, R. C., "An experimental investigation of pulse tube refrigeration heat pumping Rates" 12 : 608-618, 1967

      32 Zhu, S. W., "A single stage double inlet refrigerator capable of reaching 42 K" 257-261, 1990

      33 Xu, M. Y., "A pulse tube refrigerator below 2 K" 39 (39): 865-869, 1999

      34 Kanao, K., "A miniature pulse tube refrigerator for temperature below 100 K" 34 : 167-170, 1994

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