FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W4319237630> ?p ?o ?g. }

• W4319237630 endingPage "102736" @default.
• W4319237630 startingPage "102736" @default.
• W4319237630 abstract "Nanofluids are in high demand in the medical, electrical, and engineering fields. Nanofluid flow is used in a variety of applications including industrial cooling and heating frameworks, hyperthermia, electronic device batteries, and related pharmaceutical administration systems. Because of their improved thermal properties, nanofluids are commonly used as coolants in heat exchangers also including heating systems, electronic cooling systems, and radiators. Many scientists have studied heat transfer via a cylinder. The current study uses a vertical thin cylinder to scrutinize the effects of activation energy, motile microorganisms, bioconvection, and WU's slip on the Williamson nanofluid. Brownian motion, thermal radiation, Cattaneo-Christov heat, mass flow, and thermophoresis are all considered. Using appropriate similarity variables, the structures of PDEs are translated into the structure of ordinary differential equations. Using the well-known shooting strategy (Bvp4c) in the mathematical program MATLAB, higher-order nonlinear differential equations (DEs) are reduced to first-order. The effects of important flow parameters are shown graphically and numerically. It is noted that the momentum distribution field is upsurged for mixed convection parameters and decreased for the fluid parameter. The thermal profile is declining for the Prandtl number while increasing for the thermal radiation parameter and heat source-sink parameter. It is also observed that the concentration distribution field decreased for the Lewis number and concentration relaxation parameter while boosted up for larger magnitude of activation energy and thermophoresis parameter. It is analyzed that the microorganisms profile is upsurged for bioconvection Rayleigh number while declined for Peclet number. A comparison with the reported results from available literature is also done, and an excellent agreement is found. The discovery has far-reaching ramifications in the fields of medicine, modern aircraft technology, and power generation. In this study, we combine metallic nanoparticles with the base fluid water. Metallic nanoparticles offer a wide range of uses in everyday life, including catalysts, biosensors, medicine, and medication delivery, soil pollutant removal, electronics, coatings, packaging, semiconductors, bioengineering, paints, telecommunications, cosmetics, automobiles, and water treatment." @default.
• W4319237630 created "2023-02-05" @default.
• W4319237630 creator A5034629757 @default.
• W4319237630 creator A5035034742 @default.
• W4319237630 creator A5045689149 @default.
• W4319237630 creator A5061623730 @default.
• W4319237630 creator A5075870127 @default.
• W4319237630 creator A5077509981 @default.
• W4319237630 creator A5089040817 @default.
• W4319237630 date "2023-02-01" @default.
• W4319237630 modified "2023-09-27" @default.
• W4319237630 title "Computation of Cattaneo-Christov heat and mass flux model in Williamson nanofluid flow with bioconvection and thermal radiation through a vertical slender cylinder" @default.
• W4319237630 cites W1965523406 @default.
• W4319237630 cites W2035685097 @default.
• W4319237630 cites W2092676129 @default.
• W4319237630 cites W2793377981 @default.
• W4319237630 cites W2799397164 @default.
• W4319237630 cites W2803171981 @default.
• W4319237630 cites W2884109336 @default.
• W4319237630 cites W2888422631 @default.
• W4319237630 cites W2944173848 @default.
• W4319237630 cites W2946794257 @default.
• W4319237630 cites W2947352924 @default.
• W4319237630 cites W2988243403 @default.
• W4319237630 cites W2991575107 @default.
• W4319237630 cites W2995357486 @default.
• W4319237630 cites W3005048702 @default.
• W4319237630 cites W3008962680 @default.
• W4319237630 cites W3010376134 @default.
• W4319237630 cites W3027647125 @default.
• W4319237630 cites W3040793094 @default.
• W4319237630 cites W3044619196 @default.
• W4319237630 cites W3048628093 @default.
• W4319237630 cites W3088715406 @default.
• W4319237630 cites W3089020862 @default.
• W4319237630 cites W3128294889 @default.
• W4319237630 cites W3167762843 @default.
• W4319237630 cites W3176418081 @default.
• W4319237630 cites W3179578906 @default.
• W4319237630 cites W3180497587 @default.
• W4319237630 cites W3184823434 @default.
• W4319237630 cites W3197994902 @default.
• W4319237630 cites W4206010134 @default.
• W4319237630 cites W4210677122 @default.
• W4319237630 cites W4213344726 @default.
• W4319237630 cites W4281673678 @default.
• W4319237630 cites W4295532953 @default.
• W4319237630 cites W4295866400 @default.
• W4319237630 doi "https://doi.org/10.1016/j.csite.2023.102736" @default.
• W4319237630 hasPublicationYear "2023" @default.
• W4319237630 type Work @default.
• W4319237630 citedByCount "6" @default.
• W4319237630 countsByYear W43192376302023 @default.
• W4319237630 crossrefType "journal-article" @default.
• W4319237630 hasAuthorship W4319237630A5034629757 @default.
• W4319237630 hasAuthorship W4319237630A5035034742 @default.
• W4319237630 hasAuthorship W4319237630A5045689149 @default.
• W4319237630 hasAuthorship W4319237630A5061623730 @default.
• W4319237630 hasAuthorship W4319237630A5075870127 @default.
• W4319237630 hasAuthorship W4319237630A5077509981 @default.
• W4319237630 hasAuthorship W4319237630A5089040817 @default.
• W4319237630 hasBestOaLocation W43192376301 @default.
• W4319237630 hasConcept C121332964 @default.
• W4319237630 hasConcept C130230704 @default.
• W4319237630 hasConcept C15401063 @default.
• W4319237630 hasConcept C182748727 @default.
• W4319237630 hasConcept C189234753 @default.
• W4319237630 hasConcept C192562407 @default.
• W4319237630 hasConcept C196558001 @default.
• W4319237630 hasConcept C205684552 @default.
• W4319237630 hasConcept C21946209 @default.
• W4319237630 hasConcept C47376073 @default.
• W4319237630 hasConcept C50517652 @default.
• W4319237630 hasConcept C51038369 @default.
• W4319237630 hasConcept C54791560 @default.
• W4319237630 hasConcept C57879066 @default.
• W4319237630 hasConcept C72687893 @default.
• W4319237630 hasConcept C7742248 @default.
• W4319237630 hasConcept C97355855 @default.
• W4319237630 hasConceptScore W4319237630C121332964 @default.
• W4319237630 hasConceptScore W4319237630C130230704 @default.
• W4319237630 hasConceptScore W4319237630C15401063 @default.
• W4319237630 hasConceptScore W4319237630C182748727 @default.
• W4319237630 hasConceptScore W4319237630C189234753 @default.
• W4319237630 hasConceptScore W4319237630C192562407 @default.
• W4319237630 hasConceptScore W4319237630C196558001 @default.
• W4319237630 hasConceptScore W4319237630C205684552 @default.
• W4319237630 hasConceptScore W4319237630C21946209 @default.
• W4319237630 hasConceptScore W4319237630C47376073 @default.
• W4319237630 hasConceptScore W4319237630C50517652 @default.
• W4319237630 hasConceptScore W4319237630C51038369 @default.
• W4319237630 hasConceptScore W4319237630C54791560 @default.
• W4319237630 hasConceptScore W4319237630C57879066 @default.
• W4319237630 hasConceptScore W4319237630C72687893 @default.
• W4319237630 hasConceptScore W4319237630C7742248 @default.
• W4319237630 hasConceptScore W4319237630C97355855 @default.
• W4319237630 hasLocation W43192376301 @default.
• W4319237630 hasOpenAccess W4319237630 @default.

• next