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引用次数: 0
摘要
本文介绍了耦合簇(CC)理论的最新数学发展概况,从施耐德 2009 年的开创性工作开始,首次提出了 CC 理论的局部分析。我们对二次量子化和 CC 解析进行了教程式的回顾,为理解该理论的数学基础奠定了基础。随后,我们将详细探讨 CC 理论在数学上的最新进展。我们首先深入探讨了施耐德开创的局部分析方法,该方法后来被应用于各种 CC 方法。随后,我们讨论了 Csirik 和 Laestadius 为 CC 方法开发的基于图的框架。该框架为比较不同的 CC 方法(包括多参考方法)提供了一个全面的平台。接下来,我们深入分析哈桑、马代和王开发的单参考 CC 方法的最新数值分析结果。这种非常通用的方法基于 CC 函数弗雷谢特导数的可逆性。文章的最后,我们讨论了最近将代数几何纳入 CC 理论的情况,强调了这种新颖的、根本不同的数学视角如何进一步加深了我们的理解,并为新的计算方法提供了令人兴奋的途径。
Recent mathematical advances in coupled cluster theory
This article presents an educational overview of the latest mathematical developments in coupled cluster (CC) theory, beginning with Schneider's seminal work from 2009 that introduced the first local analysis of CC theory. We provide a tutorial review of second quantization and the CC ansatz, laying the groundwork for understanding the mathematical basis of the theory. This is followed by a detailed exploration of the most recent mathematical advancements in CC theory. Our review starts with an in-depth look at the local analysis pioneered by Schneider which has since been applied to various CC methods. We subsequently discuss the graph-based framework for CC methods developed by Csirik and Laestadius. This framework provides a comprehensive platform for comparing different CC methods, including multireference approaches. Next, we delve into the latest numerical analysis results analyzing the single reference CC method developed by Hassan, Maday, and Wang. This very general approach is based on the invertibility of the CC function's Fréchet derivative. We conclude the article with a discussion on the recent incorporation of algebraic geometry into CC theory, highlighting how this novel and fundamentally different mathematical perspective has furthered our understanding and provides exciting pathways to new computational approaches.
期刊介绍:
Since its first formulation quantum chemistry has provided the conceptual and terminological framework necessary to understand atoms, molecules and the condensed matter. Over the past decades synergistic advances in the methodological developments, software and hardware have transformed quantum chemistry in a truly interdisciplinary science that has expanded beyond its traditional core of molecular sciences to fields as diverse as chemistry and catalysis, biophysics, nanotechnology and material science.