JOURNAL ARTICLE

Modeling of additive manufacturing processes with time‐dependent material properties using physics‐informed neural networks

Abstract

Abstract Recently, physics‐informed neural networks (PINNs) have been effectively utilized in a wide range of problems within the domains of applied mathematics and engineering. In PINNs, the governing physical equations are directly incorporated into the loss function of the network and a conventional labeled dataset is not required for its training. In order to successfully simulate the additive manufacturing processes with concrete, a novel process‐based FE‐simulation has been developed where the Drucker–Prager plasticity model is used as the material model. In this work, we will examine the deployment of a PINN to substitute the Newton–Raphson iterations that occur in the return‐mapping algorithm of the Drucker–Prager plasticity model.

Keywords:
Artificial neural network Software deployment Plasticity Range (aeronautics) Process (computing) Work (physics) Function (biology) Computer science Applied mathematics Mathematical optimization Statistical physics Algorithm Artificial intelligence Physics Mathematics Mechanical engineering Engineering

Metrics

2
Cited By
0.43
FWCI (Field Weighted Citation Impact)
12
Refs
0.56
Citation Normalized Percentile
Is in top 1%
Is in top 10%

Citation History

Topics

Model Reduction and Neural Networks
Physical Sciences →  Physics and Astronomy →  Statistical and Nonlinear Physics
Advanced Surface Polishing Techniques
Physical Sciences →  Engineering →  Biomedical Engineering
Advanced Machining and Optimization Techniques
Physical Sciences →  Engineering →  Electrical and Electronic Engineering
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