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Frontiers of stochastic electronic structure calculations
Miguel A Morales-Silva1, Kenneth D Jordan2, Luke Shulenburger3
1Quantum Simulations Group, Lawrence Livermore National Laboratory, Livermore, California 94551, USA.
New stochastic methods for electronic structure calculations are rapidly advancing, offering better computational scaling and parallelization for complex molecular and solid systems, especially those with strong electron correlation.
Area of Science:
- Computational Chemistry
- Quantum Mechanics
- Materials Science
Background:
- Stochastic methods in electronic structure are experiencing rapid growth.
- These methods encompass diverse techniques like many-body wave functions and perturbative expansion summation.
Discussion:
- The development is driven by favorable scaling with electron count and enhanced parallelization on CPUs and GPUs.
- Stochastic approaches offer advantages over traditional high-end non-stochastic wave function methods.
Key Insights:
- This special issue features 33 papers on recent developments and applications of stochastic electronic structure methods.
- These methods are effective for both molecular and solid systems.
- They accurately describe systems with strong electron correlation.
Outlook:
- The field continues to expand, with ongoing research into novel stochastic techniques.
- Future work will likely focus on further improving efficiency and applicability to larger, more complex systems.
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