Finite Element Network Analysis: A Machine Learning based Computational Framework for the Simulation of Physical Systems
Mehdi Jokar, Fabio Semperlotti

TL;DR
This paper presents finite element network analysis (FENA), a machine learning-based framework that uses neural networks and transfer learning to efficiently simulate complex physical systems, validated against traditional finite element methods.
Contribution
Introduces FENA, a novel physics-informed machine learning framework that enables rapid simulation of interconnected systems without retraining after assembly.
Findings
FENA achieves high accuracy compared to traditional finite element analysis.
The framework allows simulation of complex systems with pre-trained models.
Numerical validation demonstrates outstanding performance of FENA.
Abstract
This study introduces the concept of finite element network analysis (FENA) which is a physics-informed, machine-learning-based, computational framework for the simulation of complex physical systems. The framework leverages the extreme computational speed of trained neural networks and the unique transfer knowledge property of bidirectional recurrent neural networks (BRNN) to provide a uniquely powerful and flexible computing platform. One of the most remarkable properties of this framework consists in its ability to simulate the response of complex systems, made of multiple interconnected components, by combining individually pre-trained network models that do not require any further training following the assembly phase. This remarkable result is achieved via the use of key concepts such as transfer knowledge and network concatenation. Although the computational framework is…
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