Hartree--Fock Theory, Lieb's Variational Principle, and their Generalizations
Volker Bach

TL;DR
This paper reviews Hartree--Fock theory in quantum mechanics, its generalizations, and significance in predicting symmetry breaking, highlighting its evolution from early proposals to modern applications.
Contribution
It provides a comprehensive overview of Hartree--Fock theory, including recent generalizations and their role in understanding symmetry phenomena in quantum systems.
Findings
Hartree--Fock theory has evolved significantly since its inception.
Generalizations of Hartree--Fock theory enhance its predictive power.
The theory is crucial for understanding symmetry breaking in quantum systems.
Abstract
Hartree--Fock theory in quantum mechanics is reviewed, from the proposal of the Hartree--Fock approximation right after quantum mechanics was formulated to its applications in modern physics. This includes the description of traditional Hartree--Fock theory in quantum chemistry, its generalizations of various kinds, and its importance for predicting the presence of symmetry breaking, or the absence thereof.
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Taxonomy
TopicsMolecular spectroscopy and chirality · Quantum Mechanics and Applications · Spectroscopy and Quantum Chemical Studies
