FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W4285032129> ?p ?o ?g. }

• W4285032129 endingPage "115966" @default.
• W4285032129 startingPage "115966" @default.
• W4285032129 abstract "• Some heat exchanger geometries were proposed to improve the efficiency of TEMs. • C-shaped model was the most efficient geometry when free flow pressure was available. • Dual Flat model was the most efficient geometry when free pressure was not available. • Dual Flat and Flat geometries generated the maximum and minimum amount of power. • Heat transfer to the TEMs showed the peak value for U-shaped and C-shaped geometries. The increasing energy demand and simultaneously growing concerns about pollution and climate change can clarify the importance of energy recovery, especially in the transportation section where a huge amount of fossil fuels is still consumed. Thermoelectric modules (TEMs) are one of the most stable means to extract energy from flue gases. However, the heat recovery by TEMs require a precise thermo-hydrodynamic design for heat exchangers to transfer more energy, owing to the low efficiency of the modules. Therefore, the current numerical study follows the ideas that can increase the efficiency of electrical power generation in vehicles. Three various simple or dimpled geometries, called Dual Flat, C-shaped, and U-shaped models, are introduced involving the ideas of chaotic flows, extending heat transferring surfaces, and intensifying turbulence levels. The number of TEMs is kept constant for all geometries and a trial procedure is performed to specify the thermo-physical properties of TEMs, directly connected to their hot and cold side temperature. The results are compared to the traditional Flat geometry, in terms of power generation, efficiency, and thermo-hydrodynamic evaluations. Dual Flat and Flat geometry are respectively labeled as the most and least power generating models by 45% relative difference. Despite the highest pressure drop, the chaotic flow in a C-shaped geometry provides the most efficient case if the pressure drop is freely provided by the engine exhaust inertia, while dimpled Dual Flat geometry is ranked the first for best efficiency when pressure drop compensation needs additional cost. The latter geometry can produce nearly 700 W power, as the maximum value." @default.
• W4285032129 created "2022-07-12" @default.
• W4285032129 creator A5001735505 @default.
• W4285032129 creator A5061997014 @default.
• W4285032129 creator A5080934000 @default.
• W4285032129 date "2022-09-01" @default.
• W4285032129 modified "2023-09-27" @default.
• W4285032129 title "On the efficient topology of the exhaust heat exchangers equipped with thermoelectric generators for an internal combustion engine" @default.
• W4285032129 cites W12141897 @default.
• W4285032129 cites W1974175236 @default.
• W4285032129 cites W1989078594 @default.
• W4285032129 cites W1993028271 @default.
• W4285032129 cites W1998252277 @default.
• W4285032129 cites W2011820242 @default.
• W4285032129 cites W2015946959 @default.
• W4285032129 cites W2020754814 @default.
• W4285032129 cites W2031996728 @default.
• W4285032129 cites W2032777079 @default.
• W4285032129 cites W2037987553 @default.
• W4285032129 cites W2046611335 @default.
• W4285032129 cites W2050925809 @default.
• W4285032129 cites W2066574954 @default.
• W4285032129 cites W2084230802 @default.
• W4285032129 cites W2088933073 @default.
• W4285032129 cites W2108179405 @default.
• W4285032129 cites W2109740601 @default.
• W4285032129 cites W2119196766 @default.
• W4285032129 cites W2274488337 @default.
• W4285032129 cites W2558931399 @default.
• W4285032129 cites W2592542397 @default.
• W4285032129 cites W2719427166 @default.
• W4285032129 cites W2897677068 @default.
• W4285032129 cites W2915024829 @default.
• W4285032129 cites W2921868635 @default.
• W4285032129 cites W2930122024 @default.
• W4285032129 cites W2945072159 @default.
• W4285032129 cites W2965827431 @default.
• W4285032129 cites W2995432198 @default.
• W4285032129 cites W2997116687 @default.
• W4285032129 cites W2999051191 @default.
• W4285032129 cites W2999063594 @default.
• W4285032129 cites W3045420398 @default.
• W4285032129 doi "https://doi.org/10.1016/j.enconman.2022.115966" @default.
• W4285032129 hasPublicationYear "2022" @default.
• W4285032129 type Work @default.
• W4285032129 citedByCount "1" @default.
• W4285032129 countsByYear W42850321292023 @default.
• W4285032129 crossrefType "journal-article" @default.
• W4285032129 hasAuthorship W4285032129A5001735505 @default.
• W4285032129 hasAuthorship W4285032129A5061997014 @default.
• W4285032129 hasAuthorship W4285032129A5080934000 @default.
• W4285032129 hasConcept C103206924 @default.
• W4285032129 hasConcept C105923489 @default.
• W4285032129 hasConcept C106169591 @default.
• W4285032129 hasConcept C107706546 @default.
• W4285032129 hasConcept C117127486 @default.
• W4285032129 hasConcept C119599485 @default.
• W4285032129 hasConcept C121332964 @default.
• W4285032129 hasConcept C127413603 @default.
• W4285032129 hasConcept C171146098 @default.
• W4285032129 hasConcept C178790620 @default.
• W4285032129 hasConcept C184720557 @default.
• W4285032129 hasConcept C185592680 @default.
• W4285032129 hasConcept C192562407 @default.
• W4285032129 hasConcept C21880701 @default.
• W4285032129 hasConcept C2779139147 @default.
• W4285032129 hasConcept C34992660 @default.
• W4285032129 hasConcept C39432304 @default.
• W4285032129 hasConcept C511840579 @default.
• W4285032129 hasConcept C548081761 @default.
• W4285032129 hasConcept C63024428 @default.
• W4285032129 hasConcept C78519656 @default.
• W4285032129 hasConcept C97355855 @default.
• W4285032129 hasConceptScore W4285032129C103206924 @default.
• W4285032129 hasConceptScore W4285032129C105923489 @default.
• W4285032129 hasConceptScore W4285032129C106169591 @default.
• W4285032129 hasConceptScore W4285032129C107706546 @default.
• W4285032129 hasConceptScore W4285032129C117127486 @default.
• W4285032129 hasConceptScore W4285032129C119599485 @default.
• W4285032129 hasConceptScore W4285032129C121332964 @default.
• W4285032129 hasConceptScore W4285032129C127413603 @default.
• W4285032129 hasConceptScore W4285032129C171146098 @default.
• W4285032129 hasConceptScore W4285032129C178790620 @default.
• W4285032129 hasConceptScore W4285032129C184720557 @default.
• W4285032129 hasConceptScore W4285032129C185592680 @default.
• W4285032129 hasConceptScore W4285032129C192562407 @default.
• W4285032129 hasConceptScore W4285032129C21880701 @default.
• W4285032129 hasConceptScore W4285032129C2779139147 @default.
• W4285032129 hasConceptScore W4285032129C34992660 @default.
• W4285032129 hasConceptScore W4285032129C39432304 @default.
• W4285032129 hasConceptScore W4285032129C511840579 @default.
• W4285032129 hasConceptScore W4285032129C548081761 @default.
• W4285032129 hasConceptScore W4285032129C63024428 @default.
• W4285032129 hasConceptScore W4285032129C78519656 @default.
• W4285032129 hasConceptScore W4285032129C97355855 @default.
• W4285032129 hasLocation W42850321291 @default.
• W4285032129 hasOpenAccess W4285032129 @default.
• W4285032129 hasPrimaryLocation W42850321291 @default.

• next