Cooper Tezak, Jacob Clary, Sophie Gerits, Joshua Quinton, Benjamin Rich, Nicholas Singstock, Abdulaziz Alherz, Taylor Aubry, Struan Clark, Rachel Hurst, Mauro Del Ben, Christopher Sutton, Ravishankar Sundararaman, Charles Musgrave, Derek Vigil-Fowler
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引用次数: 0
Abstract
We present BEAST DB, an open-source database comprised of ab initio electrochemical data computed using grand-canonical density functional theory in implicit solvent at consistent calculation parameters. The database contains over 20,000 surface calculations and covers a broad set of heterogeneous catalyst materials and electrochemical reactions. Calculations were performed at self-consistent fixed potential as well as constant charge to facilitate comparisons to the computational hydrogen electrode. This article presents common use cases of the database to rationalize trends in catalyst activity, screen catalyst material spaces, understand elementary mechanistic steps, analyze the electronic structure, and train machine learning models to predict higher fidelity properties. Users can interact graphically with the database by querying for individual calculations to gain a granular understanding of reaction steps or by querying for an entire reaction pathway on a given material using an interactive reaction pathway tool. BEAST DB will be periodically updated, with planned future updates to include advanced electronic structure data, surface speciation studies, and greater reaction coverage.
我们介绍的 BEAST DB 是一个开源数据库,由在隐式溶剂中使用大规范密度泛函理论以一致的计算参数计算的 ab initio 电化学数据组成。该数据库包含 20,000 多项表面计算,涵盖了大量异质催化剂材料和电化学反应。计算是在自洽的固定电位和恒定电荷条件下进行的,以便于与计算氢电极进行比较。本文介绍了该数据库的常见使用案例,以合理解释催化剂活性趋势、筛选催化剂材料空间、了解基本机械步骤、分析电子结构以及训练机器学习模型以预测更高保真特性。用户可以通过查询单个计算结果与数据库进行图形交互,以获得对反应步骤的详细了解,或使用交互式反应途径工具查询特定材料的整个反应途径。BEAST DB 将定期更新,未来计划更新的内容包括高级电子结构数据、表面形态研究和更大的反应范围。
期刊介绍:
The Journal of Physical Chemistry A/B/C is devoted to reporting new and original experimental and theoretical basic research of interest to physical chemists, biophysical chemists, and chemical physicists.