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End-to-end differentiability and tensor processing unit computing to accelerate materials’ inverse design

Engineering and Technology

End-to-end differentiability and tensor processing unit computing to accelerate materials’ inverse design

H. Liu, Y. Liu, et al.

This research, conducted by Han Liu and colleagues, introduces a groundbreaking computational inverse design framework that overcomes challenges in numerical simulations by utilizing differentiable simulations on the TensorFlow platform. This innovation promises to expedite the process of designing optimal porous materials from sorption isotherm curves using advanced TPUs for scientific simulations.

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Playback language: English
Abstract
Numerical simulations have revolutionized material design. However, their direct application to inverse design has traditionally been limited by their high computing cost and lack of differentiability. This paper introduces a computational inverse design framework that addresses these challenges by programming differentiable simulation on the TensorFlow platform, leveraging automated end-to-end differentiation. The differentiable simulation directly trains a deep generative model, outputting an optimal porous matrix based on an input sorption isotherm curve. This pipeline leverages Tensor Processing Units (TPUs) for intensive scientific simulations, promising to accelerate inverse materials design.
Publisher
npj Computational Materials
Published On
Jul 13, 2023
Authors
Han Liu, Yuhan Liu, Kevin Li, Zhangji Zhao, Samuel S. Schoenholz, Ekin D. Cubuk, Puneet Gupta, Mathieu Bauchy
Tags
inverse design
differentiable simulation
material design
TensorFlow
TPUs
deep generative model
sorption isotherm
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