Перспективные подходы к интенсификации теплообмена в компактных энергонасыщенных системах на основе микроканальных и пористых сред
DOI:
https://doi.org/10.5281/zenodo.15056742Ключевые слова:
пористая среда, развитая поверхность теплообмена, высокопористые материалы, интенсификация, анизотропностьЛицензия
Аннотация
Работа посвящена обзору современных исследований по тематике интенсификации теплогидравлических характеристик в компактных теплообменных устройствах. В качестве перспективного направления рассматривается повышение эффективности теплообменников засчет использования развитых поверхностей и высокотеплопроводных пористых материалов. Отдельное внимание уделено перспективному направлению интенсификации – использованию неоднородных и анизотропных пористых сред.
Скачивания
Библиографические ссылки
1. Афанасьева, И. В. Перспективные методы оребрения теплообменных аппаратов / И. В. Афанасьева // Современные наукоемкие технологии. – 2019. – № 7. – С. 114-121. – EDN IRZSIJ.
2. Оптимизация конструкции теплообменного аппарата с целью повышения эффективности теплообмена / О. Л. Ерин, В. В. Черниченко, Е. А. Орехов [и др.] // Энергоэффективность и энергосбережение в современном производстве и обществе : материалы международной научно-практической конференции, Воронеж, 06–07 июня 2019 года. Том Часть II. – Воронеж: Воронежский государственный аграрный университет им. Императора Петра I, 2019. – С. 78-85. – EDN GJPOKP.
3. Шкварец, Р. В. Обзор методов интенсификации турбулентного движения потока продуктов сгорания в дымогарных трубах жаротрубных котлов / Р. В. Шкварец, А. А. Гаврилов // Матрица научного познания. – 2019. – № 12. – С. 64-70. – EDN ZITRBJ.
4. Study of intensification of the heat transfer in helically coiled tube heat exchangers via coiled wire inserts / E. Gholamalizadeh, E. Hosseini, M. B.Jamnani [et al.] // International Journal of Thermal Sciences. – 2019. –V. 141. – P. 72-83. – DOI 10.1016/j.ijthermalsci.2019.03.029.
5. Performance intensification of tubular heat exchangers using compound twisted-tape and twisted-tube / M. Khoshvaght-Aliabadi, A. Feizabadi // Chemical Engineering and Processing - Process Intensification. – 2020. –V. 148, – DOI 10.1016/j.cep.2019.107799.
6. Performance intensification of turbulent flow through heat exchanger tube using double V-cut twisted tape inserts / M.E. Nakhchi, J.A. Esfahani // Chemical Engineering and Processing - Process Intensification. – 2019. –V. 141. – DOI 10.1016/j.cep.2019.107533.
7. Рыдалина, Н. В. Применение пористых металлов в конструкциях теплообменных аппаратов / Н. В. Рыдалина, О. А. Степанов, Е. О. Антонова // Вестник евразийской науки. – 2023. – Т. 15, № 1. – EDN WEKIQP.
8. Николенко, К. В. Конструктивные особенности рекуперативных теплообменников на базе пористых элементов / К. В. Николенко, А. В. Николенко, В. В. Курсин // Фундаментальные и прикладные научные исследования: актуальные вопросы, достижения и инновации : сборник статей LXV Международной научно-практической конференции, Пенза, 15 июня 2023 года. – Пенза: Наука и Просвещение (ИП Гуляев Г.Ю.), 2023. – С. 40-42. – EDN XJHNNO.
9. Попов, И. А. Гидродинамика и теплообмен в пористых теплообменных элементах и аппаратах / И. А. Попов ; Под общей редакцией Ю.Ф. Гортышова. – Казань : ООО "Центр инновационных технологий", 2007. – 240 с. – (Интенсификация теплообмена). – ISBN 978-5-93962-257-8. – EDN VLAPBL.
10. Пелевин, Ф. В. Рекуперативный теплообменный аппарат с пористым металлом для жидкостного ракетного двигателя / Ф. В. Пелевин, А. В. Пономарев, П. Ю. Семенов // Известия высших учебных заведений. Машиностроение. – 2015. – № 6(663). – С. 74-81. – EDN TVWDBD.
11. Conjugate forced convective heat transfer in a sandwich panel with a Kagome truss core: The effects of strut length and diameter / U. Kemerli, K. Kahveci // Applied Thermal Engineerin. – 2020. – V. 167. – DOI 10.1016/j.applthermaleng.2019.114794.
12. Comparative evaluations of thermofluidic characteristics of sandwich panels with X-lattice and Pyramidal-lattice cores / X. Jin, B. Shen, H. Yan [et al.] // International Journal of Heat and Mass Transfer. – 2018. – V. 127, Part B. – P. 268-282. – DOI 10.1016/j.ijheatmasstransfer.2018.07.087.
13. Интенсификация теплообмена при ламинарном и турбулентном течении в узком канале с однорядными овальными лунками / С. А. Исаев, А. И. Леонтьев, Н. В. Корнев [и др.] // Теплофизика высоких температур. – 2015. – Т. 53, № 3. – С. 390. – DOI 10.7868/S0040364415030060. – EDN TQQVTX.
14. Исаев, С. А. Обобщение материалов по моделированию вихревого теплообмена при обтекании одиночной лунки / С. А. Исаев, А. И. Леонтьев, М. Е. Гульцова // Труды Шестой Российской национальной конференции по теплообмену, Москва, 27–31 октября 2014 года. – Москва: Издательский дом МЭИ, 2014. – С. 1072-1076. – EDN VDJRTZ.
15. Исаев, С. А. Сравнение по теплогидралической эффективности симметричных и несимметричных форм лунок для интенсификации теплообмена / С. А. Исаев, А. И. Леонтьев, А. В. Щелчков // Проблемы тепломассообмена и гидродинамики в энергомашиностроении : Материалы X школы-семинара молодых ученых и специалистов академика РАН В.Е.Алемасова, Казань, 13–15 сентября 2016 года. – Казань: Федеральное государственное бюджетное учреждение науки Казанский научный центр Российской академии наук, 2016. – С. 18-21. – EDN ZIKYIJ.
16. Патент № 2684303 C1 Российская Федерация, МПК F28F 3/04. Теплообменная поверхность : № 2018121892 : заявл. 13.06.2018 : опубл. 05.04.2019 / С. А. Исаев, П. А. Баранов, Ю. Ф. Гортышов [и др.] ; заявитель Федеральное государственное бюджетное образовательное учреждение высшего образования "Казанский национальный исследовательский технический университет им. А.Н. Туполева-КАИ" (КНИТУ-КАИ). – EDN IUOLQD.
17. Аномальная интенсификация турбулентного отрывного течения в наклоненных однорядных овально-траншейных лунках на стенке узкого канала / С. А. Исаев, М. С. Грицкевич, А. И. Леонтьев [и др.] // Теплофизика высоких температур. – 2019. – Т. 57, № 5. – С. 797-800. – DOI 10.1134/S0040364419040082. – EDN DSKPAK.
18. Энергоэффективные поверхности с многорядными наклонными овально-траншейными лунками для воздушных конденсаторов / С. А. Исаев, А. И. Леонтьев, О. О. Мильман [и др.] // Известия Российской академии наук. Энергетика. – 2020. – № 4. – С. 3-10. – DOI 10.31857/S0002331020040032. – EDN NSHCEB.
19. Современные подходы к разработке и созданию элементов систем тепловой защиты радиоэлектронных компонентов / Д. А. Коновалов, И. Н. Лазаренко, И. Г. Дроздов, Д. П. Шматов // Вестник Воронежского государственного технического университета. – 2014. – Т. 10, № 1. – С. 97-104. – EDN RWUBVD.
20. Коновалов, Д. А. Моделирование процессов тепломассопереноса в микроканальных теплообменниках систем управления космической техники / Д. А. Коновалов, Н. Н. Кожухов, И. Г. Дроздов // Вестник Сибирского государственного аэрокосмического университета им. академика М.Ф. Решетнева. – 2016. – Т. 17, № 1. – С. 137-146. – EDN VUSDWZ.
21. Performance enhancement and comprehensive experimental comparative study of cold plate cooling of electronic servers using different configurations of mini-channels flow / O.S. Osman, R.M. El-Zoheiry, M. Elsharnoby, S.A. Nada // Alexandria Engineering Journal. – 2021. – V. 60. – P. 4451-4459. – DOI 10.1016/j.aej.2021.03.027.
22. Application of an ecofriendly nanofluid containing graphene nanoplatelets inside a novel spiral liquid block for cooling of electronic processors / M. Bahiraei, N. Mazaheri // Energy. – 2020. – DOI 10.1016/j.energy.2020.119395.
23. Using spiral channels for intensification of cooling process in an innovative liquid block operated with a biologically produced nanofluid: First and second law analyses / M. Bahiraei, N. Mazaheri // Chemical Engineering and Processing - Process Intensification. – 2021. – V. 162. – DOI 10.1016/j.cep.2021.108326.
24. Topology optimization and numerical analysis of cold plates for concentrating photovoltaic thermal management / L. Xie, H. Li, Y. Zhang [et al.] // Case Studies in Thermal Engineering. – 2023. – V. 52. – DOI 10.1016/j.csite.2023.103713.
25. Heat-transfer characteristics of aluminum-foam heat sinks with a solid aluminum core / W.H. Shih, C. C. Liu, W. H. Hsieh // International Journal of Heat and Mass Transfer. – 2016. – V. 97. – P. 742-750. – DOI 10.1016/j.ijheatmasstransfer.2016.02.044.
26. Sintered porous heat sink for cooling of high-powered microprocessors for server applications / R. Singh, A. Akbarzadeh, M. Mochizuki // International Journal of Heat and Mass Transfer. – 2009. – V. 52. – P. 2289-2299. – DOI 10.1016/j.ijheatmasstransfer.2008.11.016.
27. An experimental and numerical study of finned metal foam heat sinks under impinging air jet cooling / S.S. Feng, J.J. Kuang, T. Wen [et al.] // International Journal of Heat and Mass Transfer. – 2014. – V. 77. – P. 1063-1074. – DOI 10.1016/j.ijheatmasstransfer.2014.05.053.
28. Experimental investigation of heat transfer and flow characteristics in finned copper foam heat sinks subjected to jet impingement cooling / J. Wang, H. Kong, Y. Xu, J. Wu // Applied Energy. – 2019. – V. 241. – P. 433-443. – DOI 10.1016/j.apenergy.2019.03.040.
29. Universal heat exchanger for air and evaporative cooling of electronics / M. Doubek, V. Vacek // Thermal Science and Engineering Progress. – 2021. – V. 77. – DOI 10.1016/j.tsep.2021.100865.
30. Electronic cooling using water flow in aluminum metal foam heat sink: Experimental and numerical approach / A.M. Bayomy, M.Z. Saghir, T. Yousefi // International Journal of Thermal Sciences. – 2016. – V. – 109. – P. 182-200. – DOI 10.1016/j.ijthermalsci.2016.06.007.
31. Thermal management of power electronics with liquid cooled metal foam heat sink / Y. Li, L. Gong, B. Ding [et al.] // International Journal of Thermal Sciences. – 2021. – V. 163. – DOI 10.1016/j.ijthermalsci.2020.106796.
32. Enhancing the performance of aluminum foam heat sinks through integrated pin fins / Y. Li, L. Gong, M. Xu, Y. Joshi // International Journal of Heat and Mass Transfer. – 2020. – V. 151. – DOI 10.1016/j.ijheatmasstransfer.2020.119376.
33. Thermohydraulic performance of microchannel heat sinks with triangular ribs on sidewalls – Part 1: Local fluid flow and heat transfer characteristics / L. Chai, L. Wang, X. Bai // International Journal of Heat and Mass Transfer. – 2018. – V. 127. – P. 1124-1137. – DOI 10.1016/j.ijheatmasstransfer.2018.08.114.
34. Heat transfer enhancement in microchannel heat sink by wavy channel with changing wavelength/amplitude / L. Lin, J. Zhao, G. Lu [et al.] // International Journal of Thermal Sciences. – 2017. – V. 118. – P. 423-434. – DOI 10.1016/j.ijthermalsci.2017.05.013.
35. Design of microchannel heat sink with wavy channel and its time-efficient optimization with combined RSM and FVM methods / J. Zhou, M. Hatami, D. Song, D. Jing // International Journal of Heat and Mass Transfer. – 2016. – V. 103. – P. 715-724. – DOI 10.1016/j.ijheatmasstransfer.2016.07.100.
36. Laminar flow and heat transfer characteristics of interrupted microchannel heat sink with ribs in the transverse microchambers / L. Chai, G. D. Xia, H. S. Wang // International Journal of Thermal Sciences. – 2016. – V. 110. – P. 1-11. – DOI 10.1016/j.ijthermalsci.2016.06.029.
37. Thermal-hydraulic performance of interrupted microchannel heat sinks with different rib geometries in transverse microchambers / L. Chai, L. Wang // International Journal of Thermal Sciences. – 2018. – V. 127. – P. 201-212. – DOI 10.1016/j.ijthermalsci.2018.01.029.
38. Heat transfer enhancement in microchannel heat sink using hybrid technique of ribs and secondary channels / I. A. Ghani, N. A. C. Sidik, R. Mamat [et al.] // International Journal of Heat and Mass Transfer. – 2017. – V. 114. – P. 640-655. – DOI 10.1016/j.ijheatmasstransfer.2017.06.103.
39. Parametric study on thermal performance of microchannel heat sinks with internal vertical Y-shaped bifurcations / G. Xie, H. Shen, C.С. Wang // International Journal of Heat and Mass Transfer. – 2015. – V. 90. – P. 948-958. – DOI 10.1016/j.ijheatmasstransfer.2015.07.034.
40. Numerical study of heat transfer and load-bearing performances of corrugated sandwich structure with open-cell metal foam / T. Xiao, L. Lu, W. Peng [et al.] // International Journal of Heat and Mass Transfer. – 2023. – V. 215. – DOI 10.1016/j.ijheatmasstransfer.2023.124517.
41. Implication of corrugation profile on thermo-hydraulic characteristics of Cu-water nanofluid flow through partially filled porous channel / D. Bhowmick, P. R. Randive, S. Pati // International Communications in Heat and Mass Transfer. – 2021. – V. 125. – DOI 10.1016/j.icheatmasstransfer.2021.105329.
42. Thermal performance analysis of porous-microchannel heat sinks with different configuration designs / T. C. Hung, Y.X. Huang, W.M. Yan // International Journal of Heat and Mass Transfer. – 2013. – V. 66. – P. 235-243. – DOI 10.1016/j.ijheatmasstransfer.2013.07.019.
43. Forced convection and heat transfer of water-cooled microchannel heat sinks with various structured metal foams / B. Shen, H. Yan, B. Sunden [et al.] // International Journal of Heat and Mass Transfer. – 2017. – V. 113. – P. 1043-1053. – DOI 10.1016/j.ijheatmasstransfer.2017.06.004.
44. Performance of novel liquid-cooled porous heat sink via 3-D laser additive manufacturing / P.H. Tseng, K.T. Tsai, A.L. Chen, C.C. Wang // International Journal of Heat and Mass Transfer. – 2019. – V. 137. – P. 558-564. – DOI 10.1016/j.ijheatmasstransfer.2019.03.116.
45. Metal foams with graded pore size for heat transfer applications / G. Zaragoza, R. Goodall // Adv. Eng. Mater. – 2013.– V. 15 (3). – P. 123–128.
46. Experimental study on pool boiling heat transfer in gradient metal foams / Z.G. Xu, C.Y. Zhao // International Journal of Heat and Mass Transfer. – 2015. – V. 85. – P. 824-829. – DOI 10.1016/j.ijheatmasstransfer.2015.02.017.
47. Modeling and analysis of an efficient porous media for a solar porous absorber with a variable pore structure / P. Wang, K. Vafai // J. Sol. Energy Eng. – 2017. – V. 139 (5).
48. Analysis of the effective thermal conductivity of isotropic and anisotropic Periodic Open Cellular Structures for the intensification of catalytic processes / M. Bracconi, M. Ambrosetti, M. Maestri, [et al.] // Chemical Engineering and Processing - Process Intensification. – 2020. – Volume 158. – DOI 10.1016/j.cep.2020.108169.
49. Heat transfer characteristics investigations on liquid-cooled integrated micro pin-fin chip with gradient distribution arrays and double heating input for intra-chip micro-fluidic cooling / S. Feng, Y. Yan, H. Li [et al.] // International Journal of Heat and Mass Transfer. – 2020. – V. 159. – DOI 10.1016/j.ijheatmasstransfer.2020.120118.
50. Numerical configuration design and investigation of heat transfer enhancement in pipes filled with gradient porous materials / B. Wang, Y. Hong, X. Hou [et al.] // Energy Conversion and Management. – 2015. – V. 105. – P. 206-215. – DOI 10.1016/j.enconman.2015.07.064.
51. Forced convective heat transfer of tubes sintered with partially-filled gradient metal foams (GMFs) considering local thermal non-equilibrium effect / Z.G. Xu, J. Qin, X. Zhou, H.J. Xu // Applied Thermal Engineering. – 2018. – V. 137. – P. 101-111. – DOI 10.1016/j.applthermaleng.2018.03.074.
52. Numerical investigation on forced convection of tubes partially filled with composite metal foams under local thermal non-equilibrium condition / Z.G. Xu, Q. Gong // International Journal of Thermal Sciences. – 2018. – V. 133. – P. 1-12. – DOI 10.1016/j.ijthermalsci.2018.06.014.
53. Performance analysis and multi-objective optimization for tubes partially filled with gradient porous media / C. Shi, M. Wang, J. Yang [et al.] // Applied Thermal Engineering. – 2021. – V. 188. – DOI 10.1016/j.applthermaleng.2020.116530.
54. Optimization of heat transfer enhancement and pumping power of a heat exchanger tube using gradient and multi-layered porous foams / M. Siavashi, H.R.T. Bahrami, E. Aminian // Applied Thermal Engineering. – 2018. – DOI 10.1016/j.applthermaleng.2018.04.066.
55. Thermohydraulic analysis of hybrid nanofluid in a multilayered copper foam heat sink employing local thermal non-equilibrium condition: Optimization of layers thickness / M. Ghaneifar, H. Arasteh, R. Mashayekhi [et al.] // Applied Thermal Engineering. – 2020. – V. 181. – DOI 10.1016/j.applthermaleng.2020.115961.
56. Development and numerical investigation of novel gradient-porous heat sinks / B. Wang, Y. Hong, L. Wang [et al.] // Energy Conversion and Management. – 2015. – V. 106. – P. 1370-1378. – DOI 10.1016/j.enconman.2015.10.071.
57. The effects of variable porosity and cell size on the thermal performance of functionally-graded foams / M. Iasiello, N. Bianco, W.K.S. Chiu, V. Naso // International Journal of Thermal Sciences. – 2021. – V. 160. – DOI 10.1016/j.ijthermalsci.2020.106696.
58. Functionally graded porous structures: Analyses, performances, and applications – A Review / D. Chen, K. Gao, J. Yang, L. Zhang // Thin-Walled Structures. – 2023. – V. 191. – DOI 10.1016/j.tws.2023.111046.
59. Structural design and mechanical response of gradient porous Ti-6Al-4V fabricated by electron beam melting / Y.C. Wu, C.N. Kuo, M.Y. Shie [et al.] // Jmade. – 2018. – DOI 10.1016/j.matdes.2018.08.027.
60. Empirical rule for predicting mechanical properties of Ti-6Al-4V bone implants with radial-gradient porosity bionic structures / Y.C. Wu, C.N. Kuo, T.H. Wu [et al.] // Materials Today Communications. – 2021. – V. 27. – DOI 10.1016/j.mtcomm.2021.102346.
61. Forced convection heat transfer in heat sinks with topologies based on triply periodic minimal surfaces / M. Khalil, M. I. H. Ali, K. A. Khan, R. A. Al-Rub // Case Studies in Thermal Engineering. – 2022. – V. 38. – DOI 10.1016/j.csite.2022.102313.
REFERENCES LIST
1. Afanaseva, I. V. Perspektivnye metody orebreniia teploobmennykh apparatov / I. V. Afanaseva // Sovremennye naukoemkie tekhnologii. – 2019. – № 7. – S. 114-121. – EDN IRZSIJ.
2. Optimizatsiia konstruktsii teploobmennogo apparata s tseliu povysheniia effektivnosti teploobmena / O. L. Erin, V. V. Chernichenko, E. A. Orekhov [i dr.] // Energoeffektivnost i energosberezhenie v sovremennom proizvodstve i obshchestve : materialy mezhdunarodnoi nauchno-prakticheskoi konferentsii, Voronezh, 06–07 iiunia 2019 goda. Tom Chast II. – Voronezh: Voronezhskii gosudarstvennyi agrarnyi universitet im. Imperatora Petra I, 2019. – S. 78-85. – EDN GJPOKP.
3. Shkvarets, R. V. Obzor metodov intensifikatsii turbulentnogo dvizheniia potoka produktov sgoraniia v dymogarnykh trubakh zharotrubnykh kotlov / R. V. Shkvarets, A. A. Gavrilov // Matritsa nauchnogo poznaniia. – 2019. – № 12. – S. 64-70. – EDN ZITRBJ.
4. Study of intensification of the heat transfer in helically coiled tube heat exchangers via coiled wire inserts / E. Gholamalizadeh, E. Hosseini, M. B.Jamnani [et al.] // International Journal of Thermal Sciences. – 2019. –V. 141. – P. 72-83. – DOI 10.1016/j.ijthermalsci.2019.03.029.
5. Performance intensification of tubular heat exchangers using compound twisted-tape and twisted-tube / M. Khoshvaght-Aliabadi, A. Feizabadi // Chemical Engineering and Processing - Process Intensification. – 2020. –V. 148, – DOI 10.1016/j.cep.2019.107799.
6. Performance intensification of turbulent flow through heat exchanger tube using double V-cut twisted tape inserts / M.E. Nakhchi, J.A. Esfahani // Chemical Engineering and Processing - Process Intensification. – 2019. –V. 141. – DOI 10.1016/j.cep.2019.107533.
7. Rydalina, N. V. Primenenie poristykh metallov v konstruktsiiakh teploobmennykh apparatov / N. V. Rydalina, O. A. Stepanov, E. O. Antonova // Vestnik evraziiskoi nauki. – 2023. – T. 15, № 1. – EDN WEKIQP.
8. Nikolenko, K. V. Konstruktivnye osobennosti rekuperativnykh teploobmennikov na baze poristykh elementov / K. V. Nikolenko, A. V. Nikolenko, V. V. Kursin // Fundamentalnye i prikladnye nauchnye issledovaniia: aktualnye voprosy, dostizheniia i innovatsii : sbornik statei LXV Mezhdunarodnoi nauchno-prakticheskoi konferentsii, Penza, 15 iiunia 2023 goda. – Penza: Nauka i Prosveshchenie (IP Guliaev G.Iu.), 2023. – S. 40-42. – EDN XJHNNO.
9. Popov, I. A. Gidrodinamika i teploobmen v poristykh teploobmennykh elementakh i apparatakh / I. A. Popov ; Pod obshchei redaktsiei Iu.F. Gortyshova. – Kazan : OOO Tsentr innovatsionnykh tekhnologii, 2007. – 240 s. – (Intensifikatsiia teploobmena). – ISBN 978-5-93962-257-8. – EDN VLAPBL.
10. Pelevin, F. V. Rekuperativnyi teploobmennyi apparat s poristym metallom dlia zhidkostnogo raketnogo dvigatelia / F. V. Pelevin, A. V. Ponomarev, P. Iu. Semenov // Izvestiia vysshikh uchebnykh zavedenii. Mashinostroenie. – 2015. – № 6(663). – S. 74-81. – EDN TVWDBD.
11. Conjugate forced convective heat transfer in a sandwich panel with a Kagome truss core: The effects of strut length and diameter / U. Kemerli, K. Kahveci // Applied Thermal Engineerin. – 2020. – V. 167. – DOI 10.1016/j.applthermaleng.2019.114794.
12. Comparative evaluations of thermofluidic characteristics of sandwich panels with X-lattice and Pyramidal-lattice cores / X. Jin, B. Shen, H. Yan [et al.] // International Journal of Heat and Mass Transfer. – 2018. – V. 127, Part B. – P. 268-282. – DOI 10.1016/j.ijheatmasstransfer.2018.07.087.
13. Intensifikatsiia teploobmena pri laminarnom i turbulentnom techenii v uzkom kanale s odnoriadnymi ovalnymi lunkami / S. A. Isaev, A. I. Leontev, N. V. Kornev [i dr.] // Teplofizika vysokikh temperatur. – 2015. – T. 53, № 3. – S. 390. – DOI 10.7868/S0040364415030060. – EDN TQQVTX.
14. Isaev, S. A. Obobshchenie materialov po modelirovaniiu vikhrevogo teploobmena pri obtekanii odinochnoi lunki / S. A. Isaev, A. I. Leontev, M. E. Gultsova // Trudy Shestoi Rossiiskoi natsionalnoi konferentsii po teploobmenu, Moskva, 27–31 oktiabria 2014 goda. – Moskva: Izdatelskii dom MEI, 2014. – S. 1072-1076. – EDN VDJRTZ.
15. Isaev, S. A. Sravnenie po teplogidralicheskoi effektivnosti simmetrichnykh i nesimmetrichnykh form lunok dlia intensifikatsii teploobmena / S. A. Isaev, A. I. Leontev, A. V. Shchelchkov // Problemy teplomassoobmena i gidrodinamiki v energomashinostroenii : Materialy X shkoly-seminara molodykh uchenykh i spetsialistov akademika RAN V.E.Alemasova, Kazan, 13–15 sentiabria 2016 goda. – Kazan: Federalnoe gosudarstvennoe biudzhetnoe uchrezhdenie nauki Kazanskii nauchnyi tsentr Rossiiskoi akademii nauk, 2016. – S. 18-21. – EDN ZIKYIJ.
16. Patent № 2684303 C1 Rossiiskaia Federatsiia, MPK F28F 3/04. Teploobmennaia poverkhnost : № 2018121892 : zaiavl. 13.06.2018 : opubl. 05.04.2019 / S. A. Isaev, P. A. Baranov, Iu. F. Gortyshov [i dr.] ; zaiavitel Federalnoe gosudarstvennoe biudzhetnoe obrazovatelnoe uchrezhdenie vysshego obrazovaniia Kazanskii natsionalnyi issledovatelskii tekhnicheskii universitet im. A.N. Tupoleva-KAI (KNITU-KAI). – EDN IUOLQD.
17. Anomalnaia intensifikatsiia turbulentnogo otryvnogo techeniia v naklonennykh odnoriadnykh ovalno-transheinykh lunkakh na stenke uzkogo kanala / S. A. Isaev, M. S. Gritskevich, A. I. Leontev [i dr.] // Teplofizika vysokikh temperatur. – 2019. – T. 57, № 5. – S. 797-800. – DOI 10.1134/S0040364419040082. – EDN DSKPAK.
18. Energoeffektivnye poverkhnosti s mnogoriadnymi naklonnymi ovalno-transheinymi lunkami dlia vozdushnykh kondensatorov / S. A. Isaev, A. I. Leontev, O. O. Milman [i dr.] // Izvestiia Rossiiskoi akademii nauk. Energetika. – 2020. – № 4. – S. 3-10. – DOI 10.31857/S0002331020040032. – EDN NSHCEB.
19. Sovremennye podkhody k razrabotke i sozdaniiu elementov sistem teplovoi zashchity radioelektronnykh komponentov / D. A. Konovalov, I. N. Lazarenko, I. G. Drozdov, D. P. Shmatov // Vestnik Voronezhskogo gosudarstvennogo tekhnicheskogo universiteta. – 2014. – T. 10, № 1. – S. 97-104. – EDN RWUBVD.
20. Konovalov, D. A. Modelirovanie protsessov teplomassoperenosa v mikrokanalnykh teploobmennikakh sistem upravleniia kosmicheskoi tekhniki / D. A. Konovalov, N. N. Kozhukhov, I. G. Drozdov // Vestnik Sibirskogo gosudarstvennogo aerokosmicheskogo universiteta im. akademika M.F. Reshetneva. – 2016. – T. 17, № 1. – S. 137-146. – EDN VUSDWZ.
21. Performance enhancement and comprehensive experimental comparative study of cold plate cooling of electronic servers using different configurations of mini-channels flow / O.S. Osman, R.M. El-Zoheiry, M. Elsharnoby, S.A. Nada // Alexandria Engineering Journal. – 2021. – V. 60. – P. 4451-4459. – DOI 10.1016/j.aej.2021.03.027.
22. Application of an ecofriendly nanofluid containing graphene nanoplatelets inside a novel spiral liquid block for cooling of electronic processors / M. Bahiraei, N. Mazaheri // Energy. – 2020. – DOI 10.1016/j.energy.2020.119395.
23. Using spiral channels for intensification of cooling process in an innovative liquid block operated with a biologically produced nanofluid: First and second law analyses / M. Bahiraei, N. Mazaheri // Chemical Engineering and Processing - Process Intensification. – 2021. – V. 162. – DOI 10.1016/j.cep.2021.108326.
24. Topology optimization and numerical analysis of cold plates for concentrating photovoltaic thermal management / L. Xie, H. Li, Y. Zhang [et al.] // Case Studies in Thermal Engineering. – 2023. – V. 52. – DOI 10.1016/j.csite.2023.103713.
25. Heat-transfer characteristics of aluminum-foam heat sinks with a solid aluminum core / W.H. Shih, C. C. Liu, W. H. Hsieh // International Journal of Heat and Mass Transfer. – 2016. – V. 97. – P. 742-750. – DOI 10.1016/j.ijheatmasstransfer.2016.02.044.
26. Sintered porous heat sink for cooling of high-powered microprocessors for server applications / R. Singh, A. Akbarzadeh, M. Mochizuki // International Journal of Heat and Mass Transfer. – 2009. – V. 52. – P. 2289-2299. – DOI 10.1016/j.ijheatmasstransfer.2008.11.016.
27. An experimental and numerical study of finned metal foam heat sinks under impinging air jet cooling / S.S. Feng, J.J. Kuang, T. Wen [et al.] // International Journal of Heat and Mass Transfer. – 2014. – V. 77. – P. 1063-1074. – DOI 10.1016/j.ijheatmasstransfer.2014.05.053.
28. Experimental investigation of heat transfer and flow characteristics in finned copper foam heat sinks subjected to jet impingement cooling / J. Wang, H. Kong, Y. Xu, J. Wu // Applied Energy. – 2019. – V. 241. – P. 433-443. – DOI 10.1016/j.apenergy.2019.03.040.
29. Universal heat exchanger for air and evaporative cooling of electronics / M. Doubek, V. Vacek // Thermal Science and Engineering Progress. – 2021. – V. 77. – DOI 10.1016/j.tsep.2021.100865.
30. Electronic cooling using water flow in aluminum metal foam heat sink: Experimental and numerical approach / A.M. Bayomy, M.Z. Saghir, T. Yousefi // International Journal of Thermal Sciences. – 2016. – V. – 109. – P. 182-200. – DOI 10.1016/j.ijthermalsci.2016.06.007.
31. Thermal management of power electronics with liquid cooled metal foam heat sink / Y. Li, L. Gong, B. Ding [et al.] // International Journal of Thermal Sciences. – 2021. – V. 163. – DOI 10.1016/j.ijthermalsci.2020.106796.
32. Enhancing the performance of aluminum foam heat sinks through integrated pin fins / Y. Li, L. Gong, M. Xu, Y. Joshi // International Journal of Heat and Mass Transfer. – 2020. – V. 151. – DOI 10.1016/j.ijheatmasstransfer.2020.119376.
33. Thermohydraulic performance of microchannel heat sinks with triangular ribs on sidewalls – Part 1: Local fluid flow and heat transfer characteristics / L. Chai, L. Wang, X. Bai // International Journal of Heat and Mass Transfer. – 2018. – V. 127. – P. 1124-1137. – DOI 10.1016/j.ijheatmasstransfer.2018.08.114.
34. Heat transfer enhancement in microchannel heat sink by wavy channel with changing wavelength/amplitude / L. Lin, J. Zhao, G. Lu [et al.] // International Journal of Thermal Sciences. – 2017. – V. 118. – P. 423-434. – DOI 10.1016/j.ijthermalsci.2017.05.013.
35. Design of microchannel heat sink with wavy channel and its time-efficient optimization with combined RSM and FVM methods / J. Zhou, M. Hatami, D. Song, D. Jing // International Journal of Heat and Mass Transfer. – 2016. – V. 103. – P. 715-724. – DOI 10.1016/j.ijheatmasstransfer.2016.07.100.
36. Laminar flow and heat transfer characteristics of interrupted microchannel heat sink with ribs in the transverse microchambers / L. Chai, G. D. Xia, H. S. Wang // International Journal of Thermal Sciences. – 2016. – V. 110. – P. 1-11. – DOI 10.1016/j.ijthermalsci.2016.06.029.
37. Thermal-hydraulic performance of interrupted microchannel heat sinks with different rib geometries in transverse microchambers / L. Chai, L. Wang // International Journal of Thermal Sciences. – 2018. – V. 127. – P. 201-212. – DOI 10.1016/j.ijthermalsci.2018.01.029.
38. Heat transfer enhancement in microchannel heat sink using hybrid technique of ribs and secondary channels / I. A. Ghani, N. A. C. Sidik, R. Mamat [et al.] // International Journal of Heat and Mass Transfer. – 2017. – V. 114. – P. 640-655. – DOI 10.1016/j.ijheatmasstransfer.2017.06.103.
39. Parametric study on thermal performance of microchannel heat sinks with internal vertical Y-shaped bifurcations / G. Xie, H. Shen, C.С. Wang // International Journal of Heat and Mass Transfer. – 2015. – V. 90. – P. 948-958. – DOI 10.1016/j.ijheatmasstransfer.2015.07.034.
40. Numerical study of heat transfer and load-bearing performances of corrugated sandwich structure with open-cell metal foam / T. Xiao, L. Lu, W. Peng [et al.] // International Journal of Heat and Mass Transfer. – 2023. – V. 215. – DOI 10.1016/j.ijheatmasstransfer.2023.124517.
41. Implication of corrugation profile on thermo-hydraulic characteristics of Cu-water nanofluid flow through partially filled porous channel / D. Bhowmick, P. R. Randive, S. Pati // International Communications in Heat and Mass Transfer. – 2021. – V. 125. – DOI 10.1016/j.icheatmasstransfer.2021.105329.
42. Thermal performance analysis of porous-microchannel heat sinks with different configuration designs / T. C. Hung, Y.X. Huang, W.M. Yan // International Journal of Heat and Mass Transfer. – 2013. – V. 66. – P. 235-243. – DOI 10.1016/j.ijheatmasstransfer.2013.07.019.
43. Forced convection and heat transfer of water-cooled microchannel heat sinks with various structured metal foams / B. Shen, H. Yan, B. Sunden [et al.] // International Journal of Heat and Mass Transfer. – 2017. – V. 113. – P. 1043-1053. – DOI 10.1016/j.ijheatmasstransfer.2017.06.004.
44. Performance of novel liquid-cooled porous heat sink via 3-D laser additive manufacturing / P.H. Tseng, K.T. Tsai, A.L. Chen, C.C. Wang // International Journal of Heat and Mass Transfer. – 2019. – V. 137. – P. 558-564. – DOI 10.1016/j.ijheatmasstransfer.2019.03.116.
45. Metal foams with graded pore size for heat transfer applications / G. Zaragoza, R. Goodall // Adv. Eng. Mater. – 2013.– V. 15 (3). – P. 123–128.
46. Experimental study on pool boiling heat transfer in gradient metal foams / Z.G. Xu, C.Y. Zhao // International Journal of Heat and Mass Transfer. – 2015. – V. 85. – P. 824-829. – DOI 10.1016/j.ijheatmasstransfer.2015.02.017.
47. Modeling and analysis of an efficient porous media for a solar porous absorber with a variable pore structure / P. Wang, K. Vafai // J. Sol. Energy Eng. – 2017. – V. 139 (5).
48. Analysis of the effective thermal conductivity of isotropic and anisotropic Periodic Open Cellular Structures for the intensification of catalytic processes / M. Bracconi, M. Ambrosetti, M. Maestri, [et al.] // Chemical Engineering and Processing - Process Intensification. – 2020. – Volume 158. – DOI 10.1016/j.cep.2020.108169.
49. Heat transfer characteristics investigations on liquid-cooled integrated micro pin-fin chip with gradient distribution arrays and double heating input for intra-chip micro-fluidic cooling / S. Feng, Y. Yan, H. Li [et al.] // International Journal of Heat and Mass Transfer. – 2020. – V. 159. – DOI 10.1016/j.ijheatmasstransfer.2020.120118.
50. Numerical configuration design and investigation of heat transfer enhancement in pipes filled with gradient porous materials / B. Wang, Y. Hong, X. Hou [et al.] // Energy Conversion and Management. – 2015. – V. 105. – P. 206-215. – DOI 10.1016/j.enconman.2015.07.064.
51. Forced convective heat transfer of tubes sintered with partially-filled gradient metal foams (GMFs) considering local thermal non-equilibrium effect / Z.G. Xu, J. Qin, X. Zhou, H.J. Xu // Applied Thermal Engineering. – 2018. – V. 137. – P. 101-111. – DOI 10.1016/j.applthermaleng.2018.03.074.
52. Numerical investigation on forced convection of tubes partially filled with composite metal foams under local thermal non-equilibrium condition / Z.G. Xu, Q. Gong // International Journal of Thermal Sciences. – 2018. – V. 133. – P. 1-12. – DOI 10.1016/j.ijthermalsci.2018.06.014.
53. Performance analysis and multi-objective optimization for tubes partially filled with gradient porous media / C. Shi, M. Wang, J. Yang [et al.] // Applied Thermal Engineering. – 2021. – V. 188. – DOI 10.1016/j.applthermaleng.2020.116530.
54. Optimization of heat transfer enhancement and pumping power of a heat exchanger tube using gradient and multi-layered porous foams / M. Siavashi, H.R.T. Bahrami, E. Aminian // Applied Thermal Engineering. – 2018. – DOI 10.1016/j.applthermaleng.2018.04.066.
55. Thermohydraulic analysis of hybrid nanofluid in a multilayered copper foam heat sink employing local thermal non-equilibrium condition: Optimization of layers thickness / M. Ghaneifar, H. Arasteh, R. Mashayekhi [et al.] // Applied Thermal Engineering. – 2020. – V. 181. – DOI 10.1016/j.applthermaleng.2020.115961.
56. Development and numerical investigation of novel gradient-porous heat sinks / B. Wang, Y. Hong, L. Wang [et al.] // Energy Conversion and Management. – 2015. – V. 106. – P. 1370-1378. – DOI 10.1016/j.enconman.2015.10.071.
57. The effects of variable porosity and cell size on the thermal performance of functionally-graded foams / M. Iasiello, N. Bianco, W.K.S. Chiu, V. Naso // International Journal of Thermal Sciences. – 2021. – V. 160. – DOI 10.1016/j.ijthermalsci.2020.106696.
58. Functionally graded porous structures: Analyses, performances, and applications – A Review / D. Chen, K. Gao, J. Yang, L. Zhang // Thin-Walled Structures. – 2023. – V. 191. – DOI 10.1016/j.tws.2023.111046.
59. Structural design and mechanical response of gradient porous Ti-6Al-4V fabricated by electron beam melting / Y.C. Wu, C.N. Kuo, M.Y. Shie [et al.] // Jmade. – 2018. – DOI 10.1016/j.matdes.2018.08.027.
60. Empirical rule for predicting mechanical properties of Ti-6Al-4V bone implants with radial-gradient porosity bionic structures / Y.C. Wu, C.N. Kuo, T.H. Wu [et al.] // Materials Today Communications. – 2021. – V. 27. – DOI 10.1016/j.mtcomm.2021.102346.
61. Forced convection heat transfer in heat sinks with topologies based on triply periodic minimal surfaces / M. Khalil, M. I. H. Ali, K. A. Khan, R. A. Al-Rub // Case Studies in Thermal Engineering. – 2022. – V. 38. – DOI 10.1016/j.csite.2022.102313.
Загрузки
Опубликован
Выпуск
Раздел
Лицензия
Это произведение доступно по лицензии Creative Commons «Attribution-NonCommercial» («Атрибуция — Некоммерческое использование») 4.0 Всемирная.
Статьи журнала «Вестник Донецкого университета. Серия 04. Технические науки» находятся в открытом доступе и распространяются в соответствии с условиями Лицензионного Договора с Донецким Государственным университетом, который бесплатно предоставляет авторам неограниченное распространение и самостоятельное архивирование.
