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      다국어 초록 (Multilingual Abstract)

      Thermal-fluid analysis is performed numerically to figure out the characteristics of heat transfer in a thermosyphon varying with the aspect ratio of geometry and the filling ratio of working fluid. The computational results are reasonable compared with the experimental data and visualized. The thermal resistance and the convective heat transfer coefficients are evaluated with the aspect ratio of thermosyphon and the filling ratio of working fluid, respectively. In conclusion, the thermal resistance decreases as the length of evaporator increases. However, the variation of a condenser length is nearly independent on the thermal resistance. In order to raise the performance of thermosyphon, the working fluid needs to be filled over 75%. In addition, Nusselt numbers in the evaporator and the condenser show 275 and 304, respectively.
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      Thermal-fluid analysis is performed numerically to figure out the characteristics of heat transfer in a thermosyphon varying with the aspect ratio of geometry and the filling ratio of working fluid. The computational results are reasonable compared wi...

      Thermal-fluid analysis is performed numerically to figure out the characteristics of heat transfer in a thermosyphon varying with the aspect ratio of geometry and the filling ratio of working fluid. The computational results are reasonable compared with the experimental data and visualized. The thermal resistance and the convective heat transfer coefficients are evaluated with the aspect ratio of thermosyphon and the filling ratio of working fluid, respectively. In conclusion, the thermal resistance decreases as the length of evaporator increases. However, the variation of a condenser length is nearly independent on the thermal resistance. In order to raise the performance of thermosyphon, the working fluid needs to be filled over 75%. In addition, Nusselt numbers in the evaporator and the condenser show 275 and 304, respectively.

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      참고문헌 (Reference)

      1 Samba, A., "Two-phase Thermosyphon Loop for Cooling Outdoor Telecommunication Equipments" 50 : 1351-1360, 2013

      2 Zhang, M., "The Experimental Investigation on Thermal Performance of a Flat Two-phase Thermosyphon" 47 : 1195-1203, 2008

      3 Huminic, G., "Numerical Study on Heat Transfer Characteristics of Thermosyphon Heat Pipes Using Nanofluids" 76 : 393-399, 2013

      4 Fadhl, B., "Numerical Modelling of the Temperature Distribution in a Two-phase Closed Thermosyphon" 60 : 122-131, 2013

      5 Schepper, S. C. K. D., "Modeling the Evaporation of a Hydrocarbon Feedstock in the Convection Section of a Steam Cracker" 33 : 122-132, 2009

      6 Noie, S. H., "Heat Transfer Characteristics of a Two-phase Closed Thermosyphon" 25 : 495-506, 2005

      7 Kiseev, V. M., "Experimental Optimization of Capillary Structures for Loop Heat Pipes and Heat Switches" 30 : 1312-1319, 2010

      8 Kim, Y., "Effects of Mass Transfer Time Relaxation Parameters on Evaporation and Condensation in a Thermosyphon" 2014

      9 Amatachaya, P., "Comparative Heat Transfer Characteristics of a Flat Two-phase Closed Thermosyphon(FTPCT)and a Conventional Two-phase Closed Thermosyphon(CTPCT)" 37 : 293-298, 2010

      10 "Ansys Fluent, Theory Guide (Release 14.0) Multiphase Flows" ANSYS Inc. 491-616, 2011

      1 Samba, A., "Two-phase Thermosyphon Loop for Cooling Outdoor Telecommunication Equipments" 50 : 1351-1360, 2013

      2 Zhang, M., "The Experimental Investigation on Thermal Performance of a Flat Two-phase Thermosyphon" 47 : 1195-1203, 2008

      3 Huminic, G., "Numerical Study on Heat Transfer Characteristics of Thermosyphon Heat Pipes Using Nanofluids" 76 : 393-399, 2013

      4 Fadhl, B., "Numerical Modelling of the Temperature Distribution in a Two-phase Closed Thermosyphon" 60 : 122-131, 2013

      5 Schepper, S. C. K. D., "Modeling the Evaporation of a Hydrocarbon Feedstock in the Convection Section of a Steam Cracker" 33 : 122-132, 2009

      6 Noie, S. H., "Heat Transfer Characteristics of a Two-phase Closed Thermosyphon" 25 : 495-506, 2005

      7 Kiseev, V. M., "Experimental Optimization of Capillary Structures for Loop Heat Pipes and Heat Switches" 30 : 1312-1319, 2010

      8 Kim, Y., "Effects of Mass Transfer Time Relaxation Parameters on Evaporation and Condensation in a Thermosyphon" 2014

      9 Amatachaya, P., "Comparative Heat Transfer Characteristics of a Flat Two-phase Closed Thermosyphon(FTPCT)and a Conventional Two-phase Closed Thermosyphon(CTPCT)" 37 : 293-298, 2010

      10 "Ansys Fluent, Theory Guide (Release 14.0) Multiphase Flows" ANSYS Inc. 491-616, 2011

      11 Brackbill, J. U., "A Continuum Method for Modeling Surface Tension" 100 : 335-354, 1992

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      학술지 이력

      학술지 이력
      연월일 이력구분 이력상세 등재구분
      2027 평가예정 재인증평가 신청대상 (재인증)
      2021-01-01 평가 등재학술지 유지 (재인증) KCI등재
      2018-01-01 평가 등재학술지 유지 (등재유지) KCI등재
      2015-01-01 평가 등재학술지 유지 (등재유지) KCI등재
      2011-01-01 평가 등재 1차 FAIL (등재유지) KCI등재
      2009-01-01 평가 등재학술지 유지 (등재유지) KCI등재
      2006-01-01 평가 등재학술지 선정 (등재후보2차) KCI등재
      2005-06-16 학술지명변경 외국어명 : Jpurnal of Computatuonal Fluids Engineering -> Korean Society of Computatuonal Fluids Engineering KCI등재후보
      2005-01-01 평가 등재후보 1차 PASS (등재후보1차) KCI등재후보
      2004-01-01 평가 등재후보 1차 FAIL (등재후보1차) KCI등재후보
      2002-07-01 평가 등재후보학술지 선정 (신규평가) KCI등재후보
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      학술지 인용정보

      학술지 인용정보
      기준연도 WOS-KCI 통합IF(2년) KCIF(2년) KCIF(3년)
      2016 0.2 0.2 0.19
      KCIF(4년) KCIF(5년) 중심성지수(3년) 즉시성지수
      0.16 0.15 0.405 0.05
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