The paper provides a brief overview of heat-resistant materials used by the United States, Germany and Australia the creation of high-speed aircraft. A simplified mathematical model of heating and deformation processes in a C/C-SiC plate based on thermoelasticity equations is formulated. The problem statement is as follows: for a composite plate lo-cated on the scramjet engine housing, under given thermal effects and properties of the construction materials, the fields of temperatures, displacements, components of stress and strain tensors are determined. The heating and deformation values in the C/C-SiC plate are estimated.

Keywords: mathematical modeling, thermal deformation, development of numerical methods, aircraft

DOI: http://doi.org/10.33257/PhChGD.24.2.1037

Authors: Roman Seleznev, Victor Kuznetsov

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Issue: Volume 24, issue 2, 2023 year

Recommended bibliographic description of this article:
Seleznev R., Kuznetsov V. Approximate thermal analysis of heating and deformation of a C/C-SiC plate in a scramjet engine//Physical-Chemical Kinetics in Gas Dynamics. 2023. V.24, iss. 2. http://chemphys.edu.ru/issues/2023-24-2/articles/1037/

Приближенный термический анализ нагрева и деформации пластины C/C-SiC в двигателе ГПВРД

В работе приведен краткий обзор основных конструкционных материалов приме-няемых США, Германией и Австралией при создании высокоскоростных летатель-ных аппаратов (ВЛА). Сформулирована упрощенная математическая модель про-цессов нагрева и деформации в пластине C/C-SiC, основанная на уравнениях тер-моупругости. Постановка задачи выглядит следующим образом: для композитной пластины, располагающейся на корпусе гиперзвукового прямоточного воздушно-реактивного двигателя (ГПВРД), при заданных тепловых воздействиях и свойствах материалов конструкции определяются поля температур, перемещений, компонент тензоров напряжений и деформаций. Выполнена оценка величины нагрева и де-формации в пластине C/C-SiC.

Keywords: математическое моделирование, термическая деформация, разработка численных методов, летательный аппарат

DOI: http://doi.org/10.33257/PhChGD.24.2.1037

Authors: Roman Seleznev, Victor Kuznetsov

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Issue: Volume 24, issue 2, 2023 year

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