McDaniel Jesse G, Schmidt J R
Theoretical Chemistry Institute and Department of Chemistry, University of Wisconsin-Madison, Madison, Wisconsin 53706; email:
Annu Rev Phys Chem. 2016 May 27;67:467-88. doi: 10.1146/annurev-physchem-040215-112047. Epub 2016 Mar 16.
Symmetry-adapted perturbation theory (SAPT) provides a unique set of advantages for parameterizing next-generation force fields from first principles. SAPT provides a direct, basis-set superposition error free estimate of molecular interaction energies, a physically intuitive energy decomposition, and a seamless transition to an asymptotic picture of intermolecular interactions. These properties have been exploited throughout the literature to develop next-generation force fields for a variety of applications, including classical molecular dynamics simulations, crystal structure prediction, and quantum dynamics/spectroscopy. This review provides a brief overview of the formalism and theory of SAPT, along with a practical discussion of the various methodologies utilized to parameterize force fields from SAPT calculations. It also highlights a number of applications of SAPT-based force fields for chemical systems of particular interest. Finally, the review ends with a brief outlook on the future opportunities and challenges that remain for next-generation force fields based on SAPT.
对称适配微扰理论(SAPT)为从第一性原理参数化下一代力场提供了一系列独特优势。SAPT提供了分子相互作用能的直接、无基组叠加误差估计、物理直观的能量分解,以及向分子间相互作用渐近图景的无缝过渡。这些特性在整个文献中都被用于开发适用于各种应用的下一代力场,包括经典分子动力学模拟、晶体结构预测以及量子动力学/光谱学。本综述简要概述了SAPT的形式体系和理论,并对用于从SAPT计算中参数化力场的各种方法进行了实际讨论。它还强调了基于SAPT的力场在特别感兴趣的化学系统中的一些应用。最后,综述以对基于SAPT的下一代力场未来机遇与挑战的简要展望结束。