Molcas 8: New capabilities for multiconfigurational quantum chemical calculations across the periodic table

In this report, we summarize and describe the recent unique updates and additions to the Molcas quantum chemistry program suite as contained in release version 8. These updates include natural and spin orbitals for studies of magnetic properties, local and linear scaling methods for the Douglas–Krol...

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Published inJournal of computational chemistry Vol. 37; no. 5; pp. 506 - 541
Main Authors Aquilante, Francesco, Autschbach, Jochen, Carlson, Rebecca K., Chibotaru, Liviu F., Delcey, Mickaël G., De Vico, Luca, Fdez. Galván, Ignacio, Ferré, Nicolas, Frutos, Luis Manuel, Gagliardi, Laura, Garavelli, Marco, Giussani, Angelo, Hoyer, Chad E., Li Manni, Giovanni, Lischka, Hans, Ma, Dongxia, Malmqvist, Per Åke, Müller, Thomas, Nenov, Artur, Olivucci, Massimo, Pedersen, Thomas Bondo, Peng, Daoling, Plasser, Felix, Pritchard, Ben, Reiher, Markus, Rivalta, Ivan, Schapiro, Igor, Segarra-Martí, Javier, Stenrup, Michael, Truhlar, Donald G., Ungur, Liviu, Valentini, Alessio, Vancoillie, Steven, Veryazov, Valera, Vysotskiy, Victor P., Weingart, Oliver, Zapata, Felipe, Lindh, Roland
Format Journal Article
LanguageEnglish
Published United States Blackwell Publishing Ltd 15.02.2016
Wiley Subscription Services, Inc
Wiley
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Summary:In this report, we summarize and describe the recent unique updates and additions to the Molcas quantum chemistry program suite as contained in release version 8. These updates include natural and spin orbitals for studies of magnetic properties, local and linear scaling methods for the Douglas–Kroll–Hess transformation, the generalized active space concept in MCSCF methods, a combination of multiconfigurational wave functions with density functional theory in the MC‐PDFT method, additional methods for computation of magnetic properties, methods for diabatization, analytical gradients of state average complete active space SCF in association with density fitting, methods for constrained fragment optimization, large‐scale parallel multireference configuration interaction including analytic gradients via the interface to the Columbus package, and approximations of the CASPT2 method to be used for computations of large systems. In addition, the report includes the description of a computational machinery for nonlinear optical spectroscopy through an interface to the QM/MM package Cobramm. Further, a module to run molecular dynamics simulations is added, two surface hopping algorithms are included to enable nonadiabatic calculations, and the DQ method for diabatization is added. Finally, we report on the subject of improvements with respects to alternative file options and parallelization. © 2015 Wiley Periodicals, Inc. The Molcas quantum chemistry program package has a long history, and with the release of Molcas 8 in 2014, it continues to offer state‐of‐the‐art tools for computational chemistry. This article summarizes some of the most significant additions and improvements included in the package in the last 6 years. There are sections on electron correlation methods, relativistic features, molecular dynamics, gradients and optimizations, and technical features.
Bibliography:Robert A. Welch Foundation - No. D-0005
Flemish Science Foundation (FWO)
Advanced Scientific Computing Research - No. DE-SC0008666
istex:33F056DDD8C706D35C821E9D12B59C7E1887230E
Human Frontier Science Program Organization - No. RGP0049/2012CHE09-56776
INPAC
Uppsala University
ArticleID:JCC24221
SciDAC grant
FWO - No. ZKC4146-00-W01
Swiss National Science Foundation (project-no. 200020_156598)
Swedish National Infrastructure for Computing (SNIC)
U.S. Air Force - No. FA9550-11-1-0078
University of Siena
Swedish Research Council - No. 2012-3910
eSSENCE program
European Research Council Advanced Grant STRATUS - ERC-2011-AdG No. 291198
University of Alcalá - No. CCG2013/EXP-089; No. CCG2014/EXP-083
Jülich Supercomputer Centre, JUROPA
Research Council of Norway through a Centre of Excellence Grant - No. 179568/V30
Methusalem grants
FIRB "PROGRAMMA FUTURO IN RICERCA" - No. RBFR1248UI
University of Alcalá
The Swedish Research Council
Fonds Wetenschappelijk Onderzoek-Vlaanderen
National Science Foundation - No. CHE-1213263
Assoc. Prof. Thorsten Hansen and Lundbeck Foundation
U.S. Department of Energy, Office of Basic Energy Sciences, Division of Chemical Sciences - No. DE-SC0012702
National Science Foundation - No. CHE-1212575; No. CHE00039202
Spanish MINECO - No. CTQ2012-36966
Vienna Scientific Cluster (Project No. 70376)
ark:/67375/WNG-ZCG6Z7GV-4
National Science Foundation - No. CHE-1152070
U.S. Department of Energy, Office of Science, Basic Energy Sciences
Center for Scientific and Technical Computing at Lund University
U.S. Department of Energy, Office of Basic Energy Sciences, Heavy Element Chemistry program - No. DE-SC0001136 (formerly DE-FG02-09ER16066) to J. A.
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Several typographical and stylistic errors have been identified in the version of this article posted online on 12 November 2015 and have been corrected on 23 November 2015. Most importantly, Equation (29) has been altered to reflect the correct form
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The publisher regrets the errors and any inconvenience they may have caused.
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ISSN:0192-8651
1096-987X
1096-987X
DOI:10.1002/jcc.24221