4.7 Article

OpenMolcas: From Source Code to Insight

期刊

JOURNAL OF CHEMICAL THEORY AND COMPUTATION
卷 15, 期 11, 页码 5925-5964

出版社

AMER CHEMICAL SOC
DOI: 10.1021/acs.jctc.9b00532

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资金

  1. Flemish Science Foundation (FWO)
  2. KU Leuven [PDM/16/112]
  3. Hercules Foundation
  4. Flemish Government-department EWI
  5. Schweizerischer Nationalfonds [200021_182400]
  6. Austrian Science Fund FWF [J 3935]
  7. U.S. Department of Energy, Office of Basic Energy Sciences, Heavy Element Chemistry program [DE-SC0001136]
  8. Air Force Office of Scientific Research [FA9550-16-1-0134]
  9. National Science Foundation [CHE-1746186]
  10. Stiftelsen Olle Engqvist Byggmastare
  11. Knut and Alice Wallenberg Foundation [KAW-2013.0020]
  12. Swedish Research Council [2012-3924, 2016-03398, VR 2015-03956]
  13. National University of Singapore [R-143-000-A65-133]
  14. University of Vienna
  15. European Union's Horizon 2020 research and innovation programme under the Marie Sldodowska-Curie Grant [658173]
  16. Spanish MINECO [CTQ2016-80600-P]
  17. Austrian Science Fund (FWF) [I2883]
  18. NSF [CHE-CLP-1710191]
  19. NIH [GM126627 01]
  20. USIAS 2015 fellowship
  21. MIUR Department of Excellence grant
  22. Deutsche Forschungsgemeinschaft [BO 4915/1-1]
  23. Helmholtz Virtual Institute [VI419]
  24. Fonds National Suisse (FNS) [200020-172532]
  25. ERC Starting Grant Photo Mutant
  26. Swiss National Science Foundation (SNF) [200021_182400, 200020_172532] Funding Source: Swiss National Science Foundation (SNF)
  27. Austrian Science Fund (FWF) [I2883] Funding Source: Austrian Science Fund (FWF)
  28. Marie Curie Actions (MSCA) [658173] Funding Source: Marie Curie Actions (MSCA)

向作者/读者索取更多资源

In this Article we describe the OpenMolcas environment and invite the computational chemistry community to collaborate. The open-source project already includes a large number of new developments realized during the transition from the commercial MOLCAS product to the open-source platform. The paper initially describes the technical details of the new software development platform. This is followed by brief presentations of many new methods, implementations, and features of the OpenMolcas program suite. These developments include novel wave function methods such as stochastic complete active space self-consistent field, density matrix renormalization group (DMRG) methods, and hybrid multiconfigurational wave function and density functional theory models. Some of these implementations include an array of additional options and functionalities. The paper proceeds and describes developments related to explorations of potential energy surfaces. Here we present methods for the optimization of conical intersections, the simulation of adiabatic and nonadiabatic molecular dynamics, and interfaces to tools for semiclassical and quantum mechanical nuclear dynamics. Furthermore, the Article describes features unique to simulations of spectroscopic and magnetic phenomena such as the exact semiclassical description of the interaction between light and matter, various X-ray processes, magnetic circular dichroism, and properties. Finally, the paper describes a number of built-in and add-on features to support the OpenMolcas platform with postcalculation analysis and visualization, a multiscale simulation option using frozen-density embedding theory, and new electronic and muonic basis sets.

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