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on
1
Intro
2
National Ignition Facility
3
Compensating Errors
4
Equation of State
5
QMC
6
Uncertainty Quantification
7
Aluminum
8
Real Space QMC
9
Aluminum Project
10
Multifidelity Modeling
11
Onsatsa
12
Improving wave functions
13
Improving Jastro
14
Spectral Neighbor Analysis Potential
15
Performance
16
Initial implementation
17
Potentials
18
Optimal Pair Potential
19
Dynamical Properties
20
Conclusion
Description:
Explore opportunities for machine learning in equation of state and transport modeling at extreme conditions in this 49-minute conference talk. Delve into the challenges of understanding macroscopic material evolution in Jovian planet modeling and inertial confinement fusion design. Discover how machine learning can enhance traditional density functional theory (DFT) and quantum Monte Carlo (QMC) workflows, potentially improving accuracy and reducing costs. Examine topics such as the National Ignition Facility, compensating errors, uncertainty quantification, multifidelity modeling, and spectral neighbor analysis potential. Gain insights into improving wave functions, Jastrow factors, and optimal pair potentials for more accurate equations of state and transport properties in extreme conditions.

Machine Learning in Equation of State and Transport Modeling at Extreme Conditions

Institute for Pure & Applied Mathematics (IPAM)
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