FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W4321073129> ?p ?o ?g. }

• W4321073129 endingPage "120222" @default.
• W4321073129 startingPage "120222" @default.
• W4321073129 abstract "With the rapid development of high-power electronics, the thermal management of these emerging devices is challenging due to the danger of ultra high heat flux and uneven temperature distribution. In the past decade, certain heat-dissipation technologies based on micro-channel and micro-jet cooling have utilized geometrically identical heat sinks; however, their corresponding flow and thermal characteristics are quite dissimilar including temperature gradients, pressure drop and heat transfer coefficients only due to the different ways the coolant enters the test module. To characterize the enhanced heat-transfer mechanism driving this dissimilitude, a novel transition scheme between them was designed, featuring a gap on the channel fins top to provide extra flow area, and investigated experimentally and numerically. In this paper, by controlling the volumetric flow ratio of the channel and jet, including 1:1, 1:3 and 3:1, the flow and thermal characteristics of the transition scheme could be interchangeably transformed between the two schemes. Moreover, the effect of the vortex generated by the jet impingement was investigated, which was verified as an important factor causing the distinctions. The new results revealed that the vortex in the stagnation zone enhanced the local heat-transfer coefficient corresponding to the channel bottom and promoted temperature uniformity; however, it caused the thermal boundary layer on the fins top to thicken. Although the vortex was favorable for the forced convection in the acceleration zone, the vortex intersections formed by adjacent jets introduced a greater pressure-drop penalty and flow blockage, which were not conducive to enhancing the heat transfer. Subsequently, the Taguchi optimization method was employed to analyze effects of the aspect ratio, gap and jet diameters on flow and thermal characteristics. Accordingly, the optimal parameter combinations and contribution ratios were obtained. This paper systematically shows how the micro-channel is transformed into a micro-jet cooling by adjusting the flow ratio and reports an intrinsic connection between them to promote a better understanding of cooling technologies used in electronic devices." @default.
• W4321073129 created "2023-02-17" @default.
• W4321073129 creator A5018350741 @default.
• W4321073129 creator A5019496097 @default.
• W4321073129 creator A5060043549 @default.
• W4321073129 date "2023-05-01" @default.
• W4321073129 modified "2023-09-26" @default.
• W4321073129 title "Flow and thermal analysis of the transition scheme between micro-channel and micro-jet cooling solution" @default.
• W4321073129 cites W115262704 @default.
• W4321073129 cites W1546917527 @default.
• W4321073129 cites W1999212368 @default.
• W4321073129 cites W2002239907 @default.
• W4321073129 cites W2005612326 @default.
• W4321073129 cites W2006750795 @default.
• W4321073129 cites W2047422434 @default.
• W4321073129 cites W2057397181 @default.
• W4321073129 cites W2067167719 @default.
• W4321073129 cites W2077967289 @default.
• W4321073129 cites W2081468754 @default.
• W4321073129 cites W2081570437 @default.
• W4321073129 cites W2094979472 @default.
• W4321073129 cites W2114812642 @default.
• W4321073129 cites W2156259175 @default.
• W4321073129 cites W2159431658 @default.
• W4321073129 cites W2301940855 @default.
• W4321073129 cites W2310656553 @default.
• W4321073129 cites W2561629229 @default.
• W4321073129 cites W2621388216 @default.
• W4321073129 cites W2954251593 @default.
• W4321073129 cites W3006219519 @default.
• W4321073129 cites W3010895763 @default.
• W4321073129 cites W3092195766 @default.
• W4321073129 cites W3096966951 @default.
• W4321073129 cites W3132819899 @default.
• W4321073129 cites W3138673006 @default.
• W4321073129 cites W3162863524 @default.
• W4321073129 cites W3211346478 @default.
• W4321073129 cites W4200105169 @default.
• W4321073129 cites W4213074719 @default.
• W4321073129 cites W4293150088 @default.
• W4321073129 cites W4293415978 @default.
• W4321073129 cites W4298127342 @default.
• W4321073129 cites W4311989412 @default.
• W4321073129 cites W565468258 @default.
• W4321073129 doi "https://doi.org/10.1016/j.applthermaleng.2023.120222" @default.
• W4321073129 hasPublicationYear "2023" @default.
• W4321073129 type Work @default.
• W4321073129 citedByCount "1" @default.
• W4321073129 countsByYear W43210731292023 @default.
• W4321073129 crossrefType "journal-article" @default.
• W4321073129 hasAuthorship W4321073129A5018350741 @default.
• W4321073129 hasAuthorship W4321073129A5019496097 @default.
• W4321073129 hasAuthorship W4321073129A5060043549 @default.
• W4321073129 hasConcept C111603439 @default.
• W4321073129 hasConcept C114088122 @default.
• W4321073129 hasConcept C119947313 @default.
• W4321073129 hasConcept C121332964 @default.
• W4321073129 hasConcept C140820882 @default.
• W4321073129 hasConcept C186937647 @default.
• W4321073129 hasConcept C192562407 @default.
• W4321073129 hasConcept C24561367 @default.
• W4321073129 hasConcept C2777777821 @default.
• W4321073129 hasConcept C2781410879 @default.
• W4321073129 hasConcept C29700514 @default.
• W4321073129 hasConcept C50517652 @default.
• W4321073129 hasConcept C57879066 @default.
• W4321073129 hasConcept C91914117 @default.
• W4321073129 hasConcept C97355855 @default.
• W4321073129 hasConceptScore W4321073129C111603439 @default.
• W4321073129 hasConceptScore W4321073129C114088122 @default.
• W4321073129 hasConceptScore W4321073129C119947313 @default.
• W4321073129 hasConceptScore W4321073129C121332964 @default.
• W4321073129 hasConceptScore W4321073129C140820882 @default.
• W4321073129 hasConceptScore W4321073129C186937647 @default.
• W4321073129 hasConceptScore W4321073129C192562407 @default.
• W4321073129 hasConceptScore W4321073129C24561367 @default.
• W4321073129 hasConceptScore W4321073129C2777777821 @default.
• W4321073129 hasConceptScore W4321073129C2781410879 @default.
• W4321073129 hasConceptScore W4321073129C29700514 @default.
• W4321073129 hasConceptScore W4321073129C50517652 @default.
• W4321073129 hasConceptScore W4321073129C57879066 @default.
• W4321073129 hasConceptScore W4321073129C91914117 @default.
• W4321073129 hasConceptScore W4321073129C97355855 @default.
• W4321073129 hasLocation W43210731291 @default.
• W4321073129 hasOpenAccess W4321073129 @default.
• W4321073129 hasPrimaryLocation W43210731291 @default.
• W4321073129 hasRelatedWork W1975991009 @default.
• W4321073129 hasRelatedWork W1985083179 @default.
• W4321073129 hasRelatedWork W2102831895 @default.
• W4321073129 hasRelatedWork W2314117426 @default.
• W4321073129 hasRelatedWork W2352084459 @default.
• W4321073129 hasRelatedWork W2371030923 @default.
• W4321073129 hasRelatedWork W2624909671 @default.
• W4321073129 hasRelatedWork W2887965589 @default.
• W4321073129 hasRelatedWork W4321495359 @default.
• W4321073129 hasRelatedWork W2107590346 @default.
• W4321073129 hasVolume "225" @default.
• W4321073129 isParatext "false" @default.

• next