Чисельне дослiдження стискаючого потоку потрiйної гiбридної нанорiдини Cu-Al2O3-TiO2/H2O мiж двома паралельними пластинами в пористому середовищi дарсi з в’язкою дисипацiєю та джерелом тепла

doi:10.26565/2312-4334-2024-4-08

Рубул Бора Факультет математики, коледж CNB, Бокахат-785612, Ассам, Iндiя https://orcid.org/0000-0002-3164-2255
Бiдют Боруа Факультет математики, коледж CNB, Бокахат-785612, Ассам, Iндiя https://orcid.org/0009-0004-4978-1343

DOI: https://doi.org/10.26565/2312-4334-2024-4-08

Ключові слова: теплове випромiнювання, в’язке розсiювання, паралельна пластина, джерело тепла, потрiйний гiбридний нанофлюїд, пористе середовище Дарсi, bvp

Анотація

Ця робота спрямована на чисельне дослiдження впливу в’язкої дисипацiї та джерела тепла на магнiтогiдродинамiчний стискаючий потiк потрiйних гiбридних нанофлюїдiв на воднiй основi мiж двома паралельними пластинами в пористому середовищi Дарсi. Наночастинки Cu, Al₂O₃, і TiO₂ диспергуються в базовiй рiдинi H₂O, що призводить до створення потрiйної гiбридної нанорiдини Cu-Al₂O₃-TiO₂-H₂O. У цьому дослiдженнi вивчається деформацiя нижньої пластини, коли верхня просувається до неї. Чисельнi результати обчислюються за допомогою 3-етапного методу Лобатто IIIa, який спецiально реалiзовано Bvp4c у MATLAB. Вплив рiзних параметрiв вiзуально проiлюстровано за допомогою графiкiв i кiлькiсно показано в таблицях. Вважається, що абсолютне поверхневе тертя потрiйної гiбридної нанорiдини приблизно на 5% вище, нiж у звичайної нанорiдини на нижнiй пластинi, i щонайбiльше на 7% вище, нiж у нанорiдини на верхнiй пластинi. Швидкiсть теплопередачi потрiйної
гiбридної нанофлюїду вища на верхнiй пластинi порiвняно з нижньою.

Завантаження

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