ライブラリ登録: Guest
Computational Thermal Sciences: An International Journal

年間 6 号発行

ISSN 印刷: 1940-2503

ISSN オンライン: 1940-2554

The Impact Factor measures the average number of citations received in a particular year by papers published in the journal during the two preceding years. 2017 Journal Citation Reports (Clarivate Analytics, 2018) IF: 1.5 To calculate the five year Impact Factor, citations are counted in 2017 to the previous five years and divided by the source items published in the previous five years. 2017 Journal Citation Reports (Clarivate Analytics, 2018) 5-Year IF: 1 The Immediacy Index is the average number of times an article is cited in the year it is published. The journal Immediacy Index indicates how quickly articles in a journal are cited. Immediacy Index: 0.3 The Eigenfactor score, developed by Jevin West and Carl Bergstrom at the University of Washington, is a rating of the total importance of a scientific journal. Journals are rated according to the number of incoming citations, with citations from highly ranked journals weighted to make a larger contribution to the eigenfactor than those from poorly ranked journals. Eigenfactor: 0.00017 The Journal Citation Indicator (JCI) is a single measurement of the field-normalized citation impact of journals in the Web of Science Core Collection across disciplines. The key words here are that the metric is normalized and cross-disciplinary. JCI: 0.28 SJR: 0.279 SNIP: 0.544 CiteScore™:: 2.5 H-Index: 22

Indexed in

アクセスを得る(open in a new tab)
もっと
購入する $50.00(open in a new tab) サブスクリプションを確認する MARCレコードをダウンロード(open in a new tab) 権限を取得する(open in a new tab)

COMPUTATIONAL ANALYSIS OF A CONVERGENT-DIVERGENT VORTEX TUBE TO ENHANCE ITS COOLING EFFECT

巻 15, 発行 1, 2023, pp. 29-50
DOI: 10.1615/ComputThermalScien.2022041119
Get accessGet access
M. Waseem Sajjad
Pakistan Institute of Engineering and Applied Sciences (PIEAS), Punjab, Pakistan
Mazhar Iqbal
Pakistan Institute of Engineering and Applied Sciences (PIEAS), Punjab, Pakistan
Ajmal Shah
Department of Mechanical Engineering, Pakistan Institute of Engineering and Applied Sciences (PIEAS), Nilore, Islamabad, Pakistan
Atif Mehmood
Pakistan Institute of Engineering and Applied Sciences (PIEAS), Punjab, Pakistan

要約

Computational fluid dynamics (CFD) analysis of a convergent-divergent (CD) vortex tube (VT) was done to enhance its cooling performance. After the verification and validation of a straight model, the model was converted into CD model with throat diameter (dt) of 0.8, 0.7, 0.6, 0.54, 0.5, and 0.4 times the diameter of the main tube (D). The best performance was obtained for CD VT for dt = 0.6 D with maximum temperature drop of 44.99 K at cold mass fraction of 0.335, such that dt was larger than the diameter of cold orifice (dc). For dt = 0.4D (0.74dc), a shock wave was generated at a small distance from the throat. Then, the throat location from the cold end (x) was changed from 0.5 times the length of main tube (L) to 0.25L and 0.75L at dt = 0.6D. The best cooling performance was obtained at x = 0.25L and dt = 0.6D with maximum temperature drop of 49.51 K at cold mass fraction of 0.316.

キーワード: inner/cold/forced vortex flow, outer/hot/free vortex flow, temperature/energy separation, cold mass fraction
参考

  1. Ahlborn, B.K., Keller, J.U., andRebhan, E., The Heat Pump in a Vortex Tube, J. Non-Equilib. Thermodyn., vol. 23, no. 2, pp. 159-165, 1998.

  2. Ahumada, L., Bula-Silvera, A.J., Melendez, K., and Medina, J., Comparison of an Analytical and Computational Fluid-Dynamics Models of a Commercial Ranque-Hilsch Vortex Tube Operating with Air and Methane, CTand F-Ciencia, Tecnologiay Futuro, vol. 9, no. 2, pp. 61-71,2019.

  3. Arbuzov, V. A., Dubnishchev, Y.N., Lebedev, A.V., Pravdina, M.K., and Yavorskii, N.I., Observation of Large-Scale Hydrodynamic Structures in a Vortex Tube and the Ranque Effect, Tech. Phys. Lett., vol. 23, no. 12, pp. 938-940, 1997.

  4. Bazgir, A., Nabhani, N., Bazooyar, B., and Heydari, A., CFD Prediction and Physical Mechanisms Consideration of Thermal Separation and Heat Transfer Processes Inside Divergent, Straight and Convergent Ranque-Hilsch Vortex Tubes, J. Heat Transf., vol. 141, pp. 101701-101717,2019.

  5. Bazgir, A., Nabhani, N., and Eiamsaard, S., Numerical Analysis of Flow and Thermal Patterns in a Double-Pipe Ranque-Hilsch Vortex Tube: Influence of Cooling a Hot-Tube, Appl. Therm. Eng., vol. 144, pp. 181-208, 2018.

  6. Bilal, M., Chen, Y., Jun, Z., and Ullah, N., Simulation and Experimental Analysis of Vortex Tube Using Steel Material, Open J. FluidDyn., vol. 10, no. 3, pp. 151-163, 2020.

  7. Borisenko, A.I., Safonov, V.A., and Yakovlev, A.I., The Effect of Geometric Parameters on the Characteristics of a Conical Vortex Cooling Unit, Inzhenerno-FizicheskiiZhurnal, vol. 15, no. 6, pp. 988-993, 1968.

  8. Chang, K., Li, Q., Zhou, G., and Li, Q., Experimental Investigation of Vortex Tube Refrigerator with a Divergent Hot Tube, Int. J. Refrig., vol. 34, pp. 322-327, 2011.

  9. Devade, K.D. and Pise, A.T., Optimization of Thermal Performance of Ranque Hilsch Vortex Tube: MADM Techniques, IOP Conf. Series: Earth Environ. Sci., vol. 40, pp. 1-20, 2016.

  10. Devade, K. and Pise, A., Effect of Cold Orifice Diameter and Geometry of Hot End Valves on Performance of Converging Type Ranque Hilsch Vortex Tube, Energy Procedia, vol. 54, pp. 642-653, 2014.

  11. Devade, K. and Pise, A.T., Parametric Review of Ranque-Hilsch Vortex Tube, Am. J. Heat Mass Transf., vol. 4, no. 3, pp. 115-145, 2017.

  12. Dincer, K., Baskaya, S., Uysal, B.Z., and Ucgul, I., Experimental Investigation of the Performance of a Ranque-Hilsch Vortex Tube with Regard to a Plug Located at the Hot Outlet, Int. J. Refrig, vol. 32, pp. 87-94,2009.

  13. Dutta, T. and Sinhamahapatra, K.P., Comparison of Different Turbulence Models in Predicting the Temperature Separation in a Ranque-Hilsch Vortex Tube, Int. J. Refrig, vol. 33, no. 4, pp. 783-792,2010.

  14. Dutta, T., Sinhamahapatra, K.P., and Bandyopadhyay, S.S., Numerical Investigation of Gas Species and Energy Separation in the Ranque-Hilsch Vortex Tube Using Real Gas Model, Int. J. Refrig, vol. 34, no. 8, pp. 2118-2128,2011.

  15. Eiamsa-ard, S. and Promvonge, P., Numerical Prediction of Vortex Flow and Thermal Separation in a Subsonic Vortex Tube, J. Zhejiang Univ. Sci. A, vol. 7, no. 8, pp. 1406-1415,2006.

  16. Eiamsa-ard, S. and Promvonge, P., Review of Ranque-Hilsch Effects in Vortex Tubes, Renew. Sustain. Energy Rev., vol. 12, pp. 1822-1842,2008.

  17. Gulyaev, A.I., Investigation of Conical Vortex Tubes, Inzhenerno-Fizicheskii Zhurnal, vol. 10, no. 3, pp. 326-331,1966.

  18. Hilsch, R., The Use of the Expansion of Gases in a Centrifugal Field as Cooling Process, Rev. Sci. Inst, vol. 18, no. 2, pp. 108-113, 1947.

  19. Jeevahan, J., Chandrasekaran, D.M., Govindaraj, M., and Joseph, B., Analysis of the Effect of Geometry of Vortex Tube on Cold Side and Hot Side Air Stream Temperatures, J. Chem. Pharmaceut. Sci., vol. 9, no. 4, pp. 2474-2477,2016.

  20. Kassner, R. and Knoernschild, E., Friction Laws and Energy Transfer in Circular Flow, Wright-Patterson Air Force Base, Ohio, Tech. Rep. No. F-TR-2198-ND, 1948.

  21. Kirmaci, V., Exergy Analysis and Performance of a Counter Flow Ranque-Hilsch Vortex Tube Having Various Nozzle Numbers at Different Inlet Pressures of Oxygen and Air, Int. J. Refrig, vol. 32, pp. 1626-1633,2009.

  22. Kirmaci, V. and Kaya, H., Effects of Working Fluid, Nozzle Number, Nozzle Material and Connection Type on Thermal Performance of a Ranque - Hilsch Vortex Tube: A Review, Int. J. Refrig., vol. 91, pp. 254-266,2018.

  23. Lewins, J. and Bejan, A., Vortex Tube Optimization Theory, Energy, vol. 24, pp. 931-943,1999.

  24. Linderstrom-Lang, C.U., Gas Separation in the Ranque-Hilsch Vortex Tube, Int. J. Heat Mass Transf, vol. 7, pp. 1195-1206, 1964.

  25. Liu, X. and Liu, Z., Investigation of the Energy Separation Effect and Flow Mechanism inside a Vortex Tube, Appl. Therm. Eng., vol. 67, nos. 1-2, pp. 494-506,2014.

  26. Manickam, M. and Prabakaran, J., CFD Analysis on Ranque-Hilsch Vortex Tube with Different Cold Orifice Diameter and Cold Mass Fraction, Int. J. Ambient Energy, vol. 43, no. 1, pp. 1216-1229,2019.

  27. Markal, B., Aydin, O., and Avci, M., An Experimental Study on the Effect of the Valve Angle of Counter-Flow Ranque-Hilsch Vortex Tubes on Thermal Energy Separation, Exp. Therm. Fluid Sci., vol. 34, pp. 966-971,2010.

  28. Mohammadi, S. and Farhadi, F., Experimental and Numerical Study of the Gas-Gas Separation Efficiency in a Ranque-Hilsch Vortex Tube, Seperat. Purif. Technol, vol. 138, pp. 177-185,2014.

  29. Naksanee, W. and Prommas, R., An Experimental Investigation on the Efficiency of Snail Entry in Vortex Tube Fed Low Inlet Air Pressure to Reduce Temperature of Low Pressure Air, Int. J. Heat Technol., vol. 36, no. 4, pp. 1223-1232,2018.

  30. Pise, A.T. and Devade, K., Investigation of Refrigeration Effect Using Short Divergent Vortex Tube, Int. J. Earth Sci. Eng., vol. 5, no. 1,pp. 378-384,2012.

  31. Pouraria, H. and Zangooee, M.R., Numerical Investigation of Vortex Tube Refrigerator with a Divergent Hot Tube, Energy Procedia, vol. 14, pp. 1554-1559,2012.

  32. Pourmahmoud, N., Hassanzadeh, A., and Moutaby, O., Numerical Analysis of the Effect of Helical Nozzles Gap on the Cooling Capacity of Ranque-Hilsch Vortex Tube, Int. J. Refrig, vol. 35, no. 5, pp. 1473-1483,2012.

  33. Promvonge, P. and Eiamsa-Ard, S., Experimental Investigation of Temperature Separation in a Vortex Tube Refrigerator with Snail Entrance, ASEAN J. Sci. Technol. Dev., vol. 21, no. 4, pp. 297-308,2004.

  34. Rafiee, S.E. and Sadeghiazad, M.M., Experimental and 3D CFD Investigation on Heat Transfer and Energy Separation inside a Counter Flow Vortex Tube Using Different Shapes of Hot Control Valves, Appl. Therm. Eng., vol. 110, pp. 648-664,2017.

  35. Rafiee, S.E. and Sadeghiazad, M.M., Effect of Conical Valve Angle on Cold-Exit Temperature of Vortex Tube, J. Thermophys. Heat Transf, vol. 28, no. 4, pp. 785-794,2014.

  36. Ranque, G.J., Experiments on Expansion in a Vortex with Simultaneous Exhaust of Hot and Cold Air, Le Journal De Physique et le Radium (Paris), vol. 4, pp. 112-114,1933.

  37. Ranque, G.J., Method and Apparatus for Obtaining from Alpha Fluid under Pressure Two Currents of Fluids at Different Temperatures. US Patent 1,952,281, filed December 06,1932 and issued March 27, 1934.

  38. Schepers, G.W., The Vortex Tube: Internal Flow Data and a Heat Transfer Theory, J. ASRE, vol. 59, pp. 985-990,1951.

  39. Shamsoddini, R. and Nezhad, A.H., Numerical Analysis of the Effects of Nozzles Number on the Flow and Power of Cooling of a Vortex Tube, Int. J. Refrig, vol. 33, pp. 774-782,2010.

  40. Sharma, T.K., Rao, G.A.P., and Murthy, K.M., Numerical Analysis of a Vortex Tube: A Review, Arch. Comput. Methods Eng., vol. 24, pp. 251-280,2017.

  41. Singh, P., Tathgir, R., Dasaroju, G., and Grewal, G., An Experimental Performance Evaluation of Vortex Tube, IE J MC, vol. 84, no. 4, pp. 149-153,2003.

  42. Skye, H.M., Nellis, G., and Klein, S.A., Comparison of CFD Analysis to Empirical Data in a Commercial Vortex Tube, Int. J. Refrig, vol. 29, pp. 71-80,2006.

  43. Soni, Y. and Thomson, W.J., Optimal Design of the Ranque-Hilsch Vortex Tube, Transact. ASME: J. Heat Transf., vol. 97, no. 2, pp. 316-317,1975.

  44. Subudhi, S. and Sen, M., Review of Ranque-Hilsch Vortex Tube Experiments Using Air, Renew. Sustain. Energy Rev., vol. 52, pp. 172-178,2015.

  45. Takahama, H. and Yokosawa, H., Energy Separation in Vortex Tubes with a Divergent Chamber, Trans. ASME: J. Heat Transf., vol. 103, no. 2, pp. 196-203,1981.

  46. Thakare, H.R. and Parekh, A.D., Experimental Investigation of Ranque-Hilsch Vortex Tube and Techno-Economical Evaluation of Its Industrial Utility, Appl. Therm. Eng., vol. 169, p. 114934,2020.

  47. Wu, Y.T., Ding, Y., Ji, Y.B., Ma, C.F., and Ge, M.C., Modification and Experimental Research on Vortex Tube, Int. J. Refrig., vol. 30, pp. 1042-1049,2007.

  48. Zangana, L.M.K. and Barwari, R.R.I., The Effect of Convergent-Divergent Tube on the Cooling Capacity of Vortex Tube: An Experimental and Numerical Study, Alexandria Eng. J., vol. 59, pp. 239-246,2020.

1901 記事の閲覧数 17 記事のダウンロード 記事の統計
1901 記事の閲覧数 17 記事のダウンロード Google
Scholar 引用数

類似内容の記事:

Heat Transfer and Hydraulic Resistance in Rod Bundles of Tubes with Counter Wire-Winding in Longitudinal Flow Heat Transfer Research, Vol.32, 2001, issue 7&8
Benediktas B. Cesna
SINGLE- AND MULTI-OBJECTIVE NUMERICAL OPTIMIZATION OF DELTA WINGLET PAIR POSITIONED IN A DUCT Heat Transfer Research, Vol.54, 2023, issue 15
Burak İzgi, Atila Abir İğci, Hüseyin Zahit Demirağ, Mehmet Dogan
PASSIVE CONTROL OF BOUNDARY LAYER SEPARATION USING SINGLE AND MULTIPLE SLATS ON THE AIRFOIL International Journal of Fluid Mechanics Research, Vol.48, 2021, issue 2
Krishanu Kumar, Santosh Kumar Singh, Pankaj Kumar
NUMERICAL PREDICTION OF MASS TRANSFER IN TURBULENT FLOW THROUGH A 90° BEND ICHMT DIGITAL LIBRARY ONLINE, Vol.13, 2008, issue
Mohsen Nasr Esfahany, T. Asadi
CONTROL OF MEAN DROPLET DIAMETER ISSUED FROM Y-JET-TYPE AIRBLAST ATOMIZER BY USING FLUID AMPLIFIER Atomization and Sprays, Vol.5, 1995, issue 3
Takao Inamura, Nobuki Nagai

最新号

ASSESSING THE VIABILITY OF HIGH-CAPACITY PHOTOVOLTAIC POWER PLANTS IN DIVERSE CLIMATIC ZONES: A TECHNICAL, ECONOMIC, AND ENVIRONMENTAL ANALYSIS Kadir Özbek, Kadir Gelis, Ömer Özyurt MACHINE LEARNING LOCAL WALL STEAM CONDENSATION MODEL IN PRESENCE OF NON-CONDENSABLE FROM TUBE DATA Pavan K. Sharma PERFORMANCE OF TWO-DIMENSIONAL PLANAR CURVED MICRONOZZLE USED FOR GAS SEPARATION Manu K. Sukesan, Mihir Kaswan, S. R. Shine

近刊の記事

Irreversibility Nonlinear Mixed Convective Time-Based Flow Analysis of Casson-Williamson Nanofluid Accelerated by Curved Melting Stretching Surface with Higher Order Slip Felicita Almeida, Nagaraja B, Pradeep Kumar, AJAYKUMAR AR Multi-dimensional investigation of thermal behavior of high-power EV motor during on-road driving conditions through electromagnetic, thermal, and drive cycle analysis Vikash Chauhan, Poornesh Koorata Positivity Preserving Analysis of Central Schemes for Compressible Euler Equations Souren Misra, Alok Patra, Santosh Kumar Panda A lattice Boltzmann study of nano-magneto-hydrodynamic flow with heat transfer and entropy generation over a porous backward facing-step channel Hassane NAJI, Hammouda Sihem, Hacen Dhahri
Begell Digital Portal Begellデジタルライブラリー 電子書籍 ジャーナル 参考文献と会報 リサーチ集 価格及び購読のポリシー Begell House 連絡先 Language English 中文 Русский Português German French Spain