FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2921898967> ?p ?o ?g. }

• W2921898967 endingPage "1476" @default.
• W2921898967 startingPage "1461" @default.
• W2921898967 abstract "The present study aims to enhance the hydrothermal performance of a porous sinusoidal double-layered heat sink using nanofluid. The optimum thickness of metal foam (nickel) for different Reynolds numbers ranging from 10 to 100 for the laminar regime and Darcy numbers ranging from 10−4 to 10−2 is obtained. At the optimum porous thicknesses, nanofluid (silver–water) with three volume fractions of nanoparticles equal to 2, 3, and 4% is employed to enhance the heat sink thermal performance. Darcy–Brinkman–Forchheimer model and the local thermal non-equilibrium model or two equations method are employed to model the momentum equation and energy equations in the porous region, respectively. It was found that in the cases of Darcy numbers 10−4, 10−3, and 10−2 the dimensionless optimum porous thicknesses are 0.8, 0.8, and 0.2, respectively. It was also obtained that the maximum PEC number is 2.12 and it corresponds to the case with Darcy number 10−2, Reynolds number 40, and volume fraction of nanoparticles 0.04. The validity of local thermal equilibrium (LTE) assumption was investigated, and it was found that increasing the Darcy number which results in an enhancement in porous particle diameter leads to some errors in results, under LTE condition." @default.
• W2921898967 created "2019-03-22" @default.
• W2921898967 creator A5016584984 @default.
• W2921898967 creator A5025367879 @default.
• W2921898967 creator A5068953620 @default.
• W2921898967 creator A5073601146 @default.
• W2921898967 creator A5085674671 @default.
• W2921898967 creator A5088548272 @default.
• W2921898967 date "2019-03-13" @default.
• W2921898967 modified "2023-10-14" @default.
• W2921898967 title "Heat and fluid flow analysis of metal foam embedded in a double-layered sinusoidal heat sink under local thermal non-equilibrium condition using nanofluid" @default.
• W2921898967 cites W1965504779 @default.
• W2921898967 cites W1967766445 @default.
• W2921898967 cites W1968650107 @default.
• W2921898967 cites W1969024071 @default.
• W2921898967 cites W1972506548 @default.
• W2921898967 cites W1981816363 @default.
• W2921898967 cites W1990832856 @default.
• W2921898967 cites W1991669294 @default.
• W2921898967 cites W1994137643 @default.
• W2921898967 cites W2018495262 @default.
• W2921898967 cites W2034614514 @default.
• W2921898967 cites W2035082881 @default.
• W2921898967 cites W2036568374 @default.
• W2921898967 cites W2055316519 @default.
• W2921898967 cites W2060678338 @default.
• W2921898967 cites W2068194661 @default.
• W2921898967 cites W2072451646 @default.
• W2921898967 cites W2083434140 @default.
• W2921898967 cites W2090748889 @default.
• W2921898967 cites W2091620098 @default.
• W2921898967 cites W2137413488 @default.
• W2921898967 cites W2158135713 @default.
• W2921898967 cites W2202574230 @default.
• W2921898967 cites W2299592659 @default.
• W2921898967 cites W2321870030 @default.
• W2921898967 cites W2477107297 @default.
• W2921898967 cites W2481788569 @default.
• W2921898967 cites W2558295627 @default.
• W2921898967 cites W2604250292 @default.
• W2921898967 cites W2606511492 @default.
• W2921898967 cites W2607227226 @default.
• W2921898967 cites W2641662402 @default.
• W2921898967 cites W2718709138 @default.
• W2921898967 cites W2739220264 @default.
• W2921898967 cites W2755626900 @default.
• W2921898967 cites W2766855949 @default.
• W2921898967 cites W2767718243 @default.
• W2921898967 cites W2767776408 @default.
• W2921898967 cites W2791761532 @default.
• W2921898967 cites W2793946301 @default.
• W2921898967 cites W2795448804 @default.
• W2921898967 cites W2804255334 @default.
• W2921898967 cites W2808940281 @default.
• W2921898967 cites W2888645591 @default.
• W2921898967 cites W2890965754 @default.
• W2921898967 cites W2903991298 @default.
• W2921898967 cites W2905272168 @default.
• W2921898967 cites W2908262084 @default.
• W2921898967 cites W2910124875 @default.
• W2921898967 cites W2914037845 @default.
• W2921898967 cites W326958576 @default.
• W2921898967 doi "https://doi.org/10.1007/s10973-019-08168-x" @default.
• W2921898967 hasPublicationYear "2019" @default.
• W2921898967 type Work @default.
• W2921898967 sameAs 2921898967 @default.
• W2921898967 citedByCount "99" @default.
• W2921898967 countsByYear W29218989672019 @default.
• W2921898967 countsByYear W29218989672020 @default.
• W2921898967 countsByYear W29218989672021 @default.
• W2921898967 countsByYear W29218989672022 @default.
• W2921898967 countsByYear W29218989672023 @default.
• W2921898967 crossrefType "journal-article" @default.
• W2921898967 hasAuthorship W2921898967A5016584984 @default.
• W2921898967 hasAuthorship W2921898967A5025367879 @default.
• W2921898967 hasAuthorship W2921898967A5068953620 @default.
• W2921898967 hasAuthorship W2921898967A5073601146 @default.
• W2921898967 hasAuthorship W2921898967A5085674671 @default.
• W2921898967 hasAuthorship W2921898967A5088548272 @default.
• W2921898967 hasBestOaLocation W29218989671 @default.
• W2921898967 hasConcept C105569014 @default.
• W2921898967 hasConcept C121332964 @default.
• W2921898967 hasConcept C130230704 @default.
• W2921898967 hasConcept C159985019 @default.
• W2921898967 hasConcept C182748727 @default.
• W2921898967 hasConcept C183447037 @default.
• W2921898967 hasConcept C186937647 @default.
• W2921898967 hasConcept C192562407 @default.
• W2921898967 hasConcept C196558001 @default.
• W2921898967 hasConcept C21946209 @default.
• W2921898967 hasConcept C24872484 @default.
• W2921898967 hasConcept C2779459783 @default.
• W2921898967 hasConcept C50517652 @default.
• W2921898967 hasConcept C57879066 @default.
• W2921898967 hasConcept C6648577 @default.
• W2921898967 hasConcept C76563973 @default.
• W2921898967 hasConcept C97355855 @default.
• W2921898967 hasConceptScore W2921898967C105569014 @default.

• next