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几类微分-代数方程的神经网络求解法

杨钊,兰钧,吴勇军YANG ZhaoLAN JunYongjun Wu

2019应用数学和力学Computer Science被引 1开放获取

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摘要

In nonlinear science, it is always an important subject and research focus to find the approximate analytical solutions to differential equations. The artificial neural network and the optimization method were combined to solve 2 special classes of differentialalgebraic equations (DAEs). The 1st 3 numerical examples, namely, the Hessenberg DAEs with indices 1, 2, 3, fell into a category of pure mathematical problems. Then the 2nd example related to EulerLagrange DAEs with indices 3, i.e. a pendulum without external force, arising from the background of nonholonomic mechanics. The approximate analytical solutions to the above 4 examples were obtained and compared with the exact solutions and the results from the RungeKutta method. High accuracy of the proposed method was demonstrated.

引用本文(GB/T 7714)

杨钊,兰钧,吴勇军, YANG Zhao, LAN Jun, 等. 几类微分-代数方程的神经网络求解法[J]. 应用数学和力学, 2019.

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DOI:https://doi.org/10.21656/1000-0887.390122

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