An AI-Assisted Design Method for Topology Optimization Without Pre-Optimized Training Data
Alex Halle, L. Flavio Campanile, Alexander Hasse

TL;DR
This paper introduces an AI-assisted topology optimization method that eliminates the need for pre-optimized training data, reducing computational effort while producing comparable geometries to traditional methods.
Contribution
It presents a novel neural network-based approach for topology optimization that does not depend on pre-existing optimized datasets, enabling faster design generation.
Findings
Produces geometries similar to conventional optimizers
Requires significantly less computational effort
Operates without pre-optimized training data
Abstract
Topology optimization is widely used by engineers during the initial product development process to get a first possible geometry design. The state-of-the-art is the iterative calculation, which requires both time and computational power. Some newly developed methods use artificial intelligence to accelerate the topology optimization. These require conventionally pre-optimized data and therefore are dependent on the quality and number of available data. This paper proposes an AI-assisted design method for topology optimization, which does not require pre-optimized data. The designs are provided by an artificial neural network, the predictor, on the basis of boundary conditions and degree of filling (the volume percentage filled by material) as input data. In the training phase, geometries generated on the basis of random input data are evaluated with respect to given criteria. The…
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