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      Exergy Analysis of an Ejector Cooling System by Modified Gouy–Stodola Equation

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      https://www.riss.kr/link?id=A107859874

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      다국어 초록 (Multilingual Abstract) kakao i 다국어 번역

      In this paper, exergy destruction analysis of a heat-assisted ejector cooling system has been carried out using a modified Gouy–Stodola equation. The modified Gouy–Stodola equation provides a more accurate and realistic irreversibility analysis of the system than the conventional Gouy–Stodola formulation. The coefficient of structural bond (CSB) analysis has also been executed to find the component whose operating variables affect the system’s total irreversibility at the most. Exergy analysis revealed that the maximum exergy loss happens in the ejector followed by the generator and condenser. The model predicted 40.84% of total irreversibility in the ejector at the designed conditions. However, total exergy destruction is found to be the most sensitive to the evaporator temperature. The CSB value of 12.97 is obtained in the evaporator using the modified exergy method. The generator appears to be the second sensitive component with the CSB value of 2.42, followed by the condenser with the CSB value of 1.628. The coefficient of performance of the system is found to be 0.18 at the designed conditions. The refrigerant R1234yf is considered in the system.
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      In this paper, exergy destruction analysis of a heat-assisted ejector cooling system has been carried out using a modified Gouy–Stodola equation. The modified Gouy–Stodola equation provides a more accurate and realistic irreversibility analysis of...

      In this paper, exergy destruction analysis of a heat-assisted ejector cooling system has been carried out using a modified Gouy–Stodola equation. The modified Gouy–Stodola equation provides a more accurate and realistic irreversibility analysis of the system than the conventional Gouy–Stodola formulation. The coefficient of structural bond (CSB) analysis has also been executed to find the component whose operating variables affect the system’s total irreversibility at the most. Exergy analysis revealed that the maximum exergy loss happens in the ejector followed by the generator and condenser. The model predicted 40.84% of total irreversibility in the ejector at the designed conditions. However, total exergy destruction is found to be the most sensitive to the evaporator temperature. The CSB value of 12.97 is obtained in the evaporator using the modified exergy method. The generator appears to be the second sensitive component with the CSB value of 2.42, followed by the condenser with the CSB value of 1.628. The coefficient of performance of the system is found to be 0.18 at the designed conditions. The refrigerant R1234yf is considered in the system.

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      참고문헌 (Reference)

      1 G. K. Alexis, "Thermodynamics of ejectors and their effectiveness in refrigeration cycles" National Technical University of Athens 2001

      2 V. Jain, "Thermodynamic modelling and parametric study of a low temperature vapour compression-absorption system based on modified Gouy–Stodola equation" 79 : 407-418, 2015

      3 M. J. Lampinen, "Theory of effective heat absorbing heat absorbing and heat emitting temperature in entropy and exergy analysis with applications to flow systems and combustion process" 31 : 257-291, 2006

      4 J. M. Calm, "The next generation of refrigerants —Historical review, considerations, and outlook" 31 : 1123-1133, 2008

      5 A. J. Meyer, "Steam jet ejector cooling powered by waste or solar heat" 34 : 297-306, 2009

      6 G. Tsatsaronis, "Recent developments in exergy analysis and exergoeconomics" 5 : 489-499, 2008

      7 S. He, "Progress of mathematical modeling on ejectors" 13 : 1760-1780, 2009

      8 K. Cizungu, "Performance comparison of vapour jet refrigeration system with environment friendly working fluids" 21 : 585-598, 2001

      9 A. Dahmani, "Optimum design of ejector refrigeration systems with environmentally benign fluid" 50 : 1562-1572, 2011

      10 M. Ouzzane, "Model development and numerical procedure for detailed ejector analysis and design" 23 : 2337-2351, 2003

      1 G. K. Alexis, "Thermodynamics of ejectors and their effectiveness in refrigeration cycles" National Technical University of Athens 2001

      2 V. Jain, "Thermodynamic modelling and parametric study of a low temperature vapour compression-absorption system based on modified Gouy–Stodola equation" 79 : 407-418, 2015

      3 M. J. Lampinen, "Theory of effective heat absorbing heat absorbing and heat emitting temperature in entropy and exergy analysis with applications to flow systems and combustion process" 31 : 257-291, 2006

      4 J. M. Calm, "The next generation of refrigerants —Historical review, considerations, and outlook" 31 : 1123-1133, 2008

      5 A. J. Meyer, "Steam jet ejector cooling powered by waste or solar heat" 34 : 297-306, 2009

      6 G. Tsatsaronis, "Recent developments in exergy analysis and exergoeconomics" 5 : 489-499, 2008

      7 S. He, "Progress of mathematical modeling on ejectors" 13 : 1760-1780, 2009

      8 K. Cizungu, "Performance comparison of vapour jet refrigeration system with environment friendly working fluids" 21 : 585-598, 2001

      9 A. Dahmani, "Optimum design of ejector refrigeration systems with environmentally benign fluid" 50 : 1562-1572, 2011

      10 M. Ouzzane, "Model development and numerical procedure for detailed ejector analysis and design" 23 : 2337-2351, 2003

      11 I. K. O. Shestopalov, "Investigation of an experimental ejector refrigeration machine operating with refrigerant R245fa at design and off-design working conditions" 55 : 212-223, 2015

      12 L. Zhang, "How to recuperate industrial waste heat beyond time and space" 2 : 214-217, 2009

      13 A. Selvaraju, "Experimental investigation on R134a vapour ejector refrigeration system" 29 : 1160-1166, 2006

      14 R. Yapici, "Experimental investigation of performance of vapour ejector refrigeration system using refrigerant R123" 45 : 953-961, 2008

      15 S. Varga, "Experimental and numerical analysis of a variable area ratio steam ejector" 34 : 1668-1675, 2011

      16 C. Nikolaidis, "Exergy-method analysis of a two-stage vapour compression refrigerationplants performance" 60 : 241-256, 1998

      17 G. K. Alexis, "Exergy analysis of ejector-refrigeration cycle using water as working fluid" 29 : 95-105, 2005

      18 D. Colorado, "Exergy analysis of a compression-absorption cascade system for refrigeration" 37 : 1851-1865, 2013

      19 A. Bejan, "Entropy Generation Minimization" CRC Press 1996

      20 "Engineering Equation Solver, academic professional license 4278"

      21 K. Chunnanond, "Ejectors : Applications in refrigeration technology" 8 : 129-155, 2004

      22 K. P. Tyagi, "Ejector-compression systems for cooling : Utilising low grade waste heat" 5 : 545-550, 1985

      23 M. A. Redo, "Ejector refrigeration system driven by renewable energy and waste heat" 1-12, 2017

      24 H. Holmberg, "Determination of the real loss of power for a condensing and a backpressure turbine by means of second law analysis" 11 : 702-712, 2009

      25 J. Chen, "Conventional and advanced exergy analysis of an ejector refrigeration system" 144 : 139-151, 2015

      26 H. Keenan, "An investigation of ejector design by analysis and experiment ASME" 72 : 299-309, 1950

      27 N. Al-Khalidy, "An experimental study of an ejector cycle refrigeration machine operating on R113" 21 : 617-625, 1998

      28 W. Pridasawas, "An exergy analysis of a solar-driven ejector refrigeration system" 27 : 369-379, 2004

      29 B. J. Huang, "A solar ejector cooling system using refrigerant R141b" 64 : 223-226, 1998

      30 I. Sarbu, "A review on substitution strategy of nonecological refrigerants from vapour compressionbased refrigeration, air-conditioning and heat pump systems" 46 : 123-141, 2014

      31 J. T. Munday, "A new ejector theory applied to steam jet refrigeration" 16 : 442-449, 1977

      32 B. J. Huang, "1-D analysis of ejector performance" 22 : 354-364, 1999

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      학술지 이력

      학술지 이력
      연월일 이력구분 이력상세 등재구분
      2023 평가예정 해외DB학술지평가 신청대상 (해외등재 학술지 평가)
      2020-01-01 평가 등재학술지 유지 (해외등재 학술지 평가) KCI등재
      2013-01-01 평가 등재 1차 FAIL (등재유지) KCI등재
      2010-01-01 평가 등재학술지 선정 (등재후보2차) KCI등재
      2009-01-01 평가 등재후보 1차 PASS (등재후보1차) KCI등재후보
      2008-01-01 평가 등재후보학술지 유지 (등재후보1차) KCI등재후보
      2006-01-01 평가 등재후보학술지 선정 (신규평가) KCI등재후보
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      학술지 인용정보

      학술지 인용정보
      기준연도 WOS-KCI 통합IF(2년) KCIF(2년) KCIF(3년)
      2016 0.56 0.56 0.48
      KCIF(4년) KCIF(5년) 중심성지수(3년) 즉시성지수
      0.4 0.34 0.535 0.11
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