SCINE -- Software for Chemical Interaction Networks
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arXiv
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| Format: | Preprint |
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2024
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| author | Weymuth, Thomas Unsleber, Jan P. Tuertscher, Paul L. Steiner, Miguel Sobez, Jan-Grimo Mueller, Charlotte H. Moerchen, Maximilian Klasovita, Veronika Grimmel, Stephanie A. Eckhoff, Marco Csizi, Katja-Sophia Bosia, Francesco Bensberg, Moritz Reiher, Markus |
| author_facet | Weymuth, Thomas Unsleber, Jan P. Tuertscher, Paul L. Steiner, Miguel Sobez, Jan-Grimo Mueller, Charlotte H. Moerchen, Maximilian Klasovita, Veronika Grimmel, Stephanie A. Eckhoff, Marco Csizi, Katja-Sophia Bosia, Francesco Bensberg, Moritz Reiher, Markus |
| contents | The software for chemical interaction networks (SCINE) project aims at pushing the frontier of quantum chemical calculations on molecular structures to a new level. While calculations on individual structures as well as on simple relations between them e.g., as given by an intrinsic reaction coordinate) have become routine in chemistry, new developments have pushed the frontier in the field to high-throughput calculations. Chemical relations may be created by a search for specific molecular properties in a molecular design attempt or they can be defined by a set of elementary reaction steps that form a chemical reaction network. The software modules of SCINE have been designed to facilitate such studies. The features of the modules are (i) general applicability of the applied methodologies ranging from electronic structure (no restriction to specific elements of the periodic table) to microkinetic modeling (with little restrictions on molecularity), full modularity so that SCINE modules can also be applied as stand-alone programs or be exchanged for external software packages that fulfill a similar purpose (to increase options for computational campaigns and to provide alternatives in case of tasks that are hard or impossible to accomplish with certain programs), (ii) high stability and autonomous operations so that control and steering by an operator is as easy as possible, and (iii) easy embedding into complex heterogeneous environments for molecular structures taken individually or in the context of a reaction network. A graphical user interface unites all modules and ensures interoperability. All components of the software have been made available open source and free of charge. |
| format | Preprint |
| id |
arxiv_https___arxiv_org_abs_2403_02865 |
| institution | arXiv |
| publishDate | 2024 |
| record_format | arxiv |
| spellingShingle | SCINE -- Software for Chemical Interaction Networks Weymuth, Thomas Unsleber, Jan P. Tuertscher, Paul L. Steiner, Miguel Sobez, Jan-Grimo Mueller, Charlotte H. Moerchen, Maximilian Klasovita, Veronika Grimmel, Stephanie A. Eckhoff, Marco Csizi, Katja-Sophia Bosia, Francesco Bensberg, Moritz Reiher, Markus Chemical Physics Computational Physics The software for chemical interaction networks (SCINE) project aims at pushing the frontier of quantum chemical calculations on molecular structures to a new level. While calculations on individual structures as well as on simple relations between them e.g., as given by an intrinsic reaction coordinate) have become routine in chemistry, new developments have pushed the frontier in the field to high-throughput calculations. Chemical relations may be created by a search for specific molecular properties in a molecular design attempt or they can be defined by a set of elementary reaction steps that form a chemical reaction network. The software modules of SCINE have been designed to facilitate such studies. The features of the modules are (i) general applicability of the applied methodologies ranging from electronic structure (no restriction to specific elements of the periodic table) to microkinetic modeling (with little restrictions on molecularity), full modularity so that SCINE modules can also be applied as stand-alone programs or be exchanged for external software packages that fulfill a similar purpose (to increase options for computational campaigns and to provide alternatives in case of tasks that are hard or impossible to accomplish with certain programs), (ii) high stability and autonomous operations so that control and steering by an operator is as easy as possible, and (iii) easy embedding into complex heterogeneous environments for molecular structures taken individually or in the context of a reaction network. A graphical user interface unites all modules and ensures interoperability. All components of the software have been made available open source and free of charge. |
| title | SCINE -- Software for Chemical Interaction Networks |
| topic | Chemical Physics Computational Physics |
| url | https://arxiv.org/abs/2403.02865 |