TY - JOUR
T1 - Non-oblique stagnation point flow of γ-hybrid nanoparticles with ethylene glycol and water-based materials due to curved radiated surface
AU - Abbasi, A.
AU - Khan, Sami Ullah
AU - Al-Khaled, Kamel
AU - Gul, M.
AU - Farooq, W.
N1 - Publisher Copyright:
© 2023 Informa UK Limited, trading as Taylor & Francis Group.
PY - 2023/1/9
Y1 - 2023/1/9
N2 - Sustainable thermal resources play a dynamic role in industrial and engineering growth and subsequently improve energy consumption. The attention of researchers toward renewable energy resource is subsequently improved with the interaction of various kinds of nanoparticles. This thermal contribution aims to explore the novel applications of (Formula presented.) nanoparticles with nonlinear radiative phenomena. The induced flow is subject to the stagnation point flow via curved stretched cylinder. Two famous base materials like ethylene glycol (Formula presented.) and water (Formula presented.) are considered which are significantly used in industrial and engineering phenomena as an energy source. The comparative thermal aspect for the suspension of (Formula presented.) and (Formula presented.) is focused. The thermal characteristics of (Formula presented.) nanoparticles and base materials are presented. The motivations for exploring the thermal impact of (Formula presented.) nanoparticles with ethylene glycol (Formula presented.) and water (Formula presented.) are justified applications in solar systems, energy production, engine oils, chemical reaction, and as a modified energy source. After altering the thermal flow problem into dimensionless form, the numerical computations were performed via Keller Box scheme. It is observed that the heat transfer rate is enhanced by increasing the solid volume fractions. The rate of thermal phenomenon controls due to the velocity ratio parameter.
AB - Sustainable thermal resources play a dynamic role in industrial and engineering growth and subsequently improve energy consumption. The attention of researchers toward renewable energy resource is subsequently improved with the interaction of various kinds of nanoparticles. This thermal contribution aims to explore the novel applications of (Formula presented.) nanoparticles with nonlinear radiative phenomena. The induced flow is subject to the stagnation point flow via curved stretched cylinder. Two famous base materials like ethylene glycol (Formula presented.) and water (Formula presented.) are considered which are significantly used in industrial and engineering phenomena as an energy source. The comparative thermal aspect for the suspension of (Formula presented.) and (Formula presented.) is focused. The thermal characteristics of (Formula presented.) nanoparticles and base materials are presented. The motivations for exploring the thermal impact of (Formula presented.) nanoparticles with ethylene glycol (Formula presented.) and water (Formula presented.) are justified applications in solar systems, energy production, engine oils, chemical reaction, and as a modified energy source. After altering the thermal flow problem into dimensionless form, the numerical computations were performed via Keller Box scheme. It is observed that the heat transfer rate is enhanced by increasing the solid volume fractions. The rate of thermal phenomenon controls due to the velocity ratio parameter.
KW - -nanofluid
KW - curved surface
KW - Keller Box scheme
KW - nonlinear radiation
KW - stagnation point flow
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UR - https://www.mendeley.com/catalogue/d32eeb46-72db-3e9c-8f0b-fc9bdcfd3310/
U2 - 10.1080/17455030.2022.2163059
DO - 10.1080/17455030.2022.2163059
M3 - Article
AN - SCOPUS:85146659145
SN - 1745-5030
JO - Waves in Random and Complex Media
JF - Waves in Random and Complex Media
ER -