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Intro
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Awesome reduced order model team and collaborators
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Physical simulations play an important role in modern scienc
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How does conditional generative adversarial network perform?
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Pro and cons of black-box approach
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How can we get an interpretability?
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DMD accelerates 3D printing process simulation
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Time-windowing Wavelet DMD improves accuracy
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Are there other data-driven interpretable methods?
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Parameterized latent space dynamics identification (LaSDI)
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Performance of LaSDI to radial advection problem
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gLaSDI: physics-informed greedy latent space dynamics identificat
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How about physics-constrained model?
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Projection-based linear subspace reduced order model
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Space-time ROM achieves the maximal compression
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Component-wise ROM accelerates lattice-structure design optir
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PROM accelerates wind turbine blade design optimization
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Database local ROMs accelerate multi-start airplane wing optin
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Category of data-driven methods via level of intrusiveness
Description:
Save Big on Coursera Plus. 7,000+ courses at $160 off. Limited Time Only! Grab it Explore a comprehensive presentation on interpretable and structure-preserving data-driven methods for physical simulations. Delivered by Youngsoo Choi from Lawrence Livermore National Laboratory, this 51-minute talk delves into the importance of physical simulations in modern science and examines various data-driven approaches. Learn about conditional generative adversarial networks, the pros and cons of black-box approaches, and methods to achieve interpretability. Discover how Dynamic Mode Decomposition (DMD) accelerates 3D printing process simulations and how time-windowing Wavelet DMD improves accuracy. Investigate other interpretable data-driven methods, including Parameterized Latent Space Dynamics Identification (LaSDI) and its application to radial advection problems. Explore physics-constrained models, projection-based linear subspace reduced order models, and space-time ROM for maximal compression. Gain insights into component-wise ROM for lattice-structure design optimization, PROM for wind turbine blade design optimization, and database local ROMs for multi-start airplane wing optimization. Conclude with an overview of data-driven methods categorized by their level of intrusiveness. Read more

Interpretable and Structure-Preserving Data-Driven Methods for Physical Simulations

DataLearning@ICL
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