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Automated Quantum Chemistry Code Generation with the p$^\dagger$q Package
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abstract
This article summarizes recent updates to the p$^\dagger$q package, which is a C++ accelerated Python library for generating equations and computer code corresponding to singly-reference many-body quantum chemistry methods such as coupled-cluster (CC) and equation-of-motion (EOM) CC theory. Since 2021, the functionality in \pq has expanded to include boson operators, coupled fermion-boson operators, unitary cluster operators, non-particle-conserving EOM operators, spin tracing, multiple single-particle subspaces, and more. Additional developments allow for the generation of C++ and Python code that minimizes floating-point operations via contraction order optimization, sub-expression elimination, and the fusion of similar terms.
Forward citations
Cited by 2 Pith papers
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Relativistic Two-component Double Ionization Potential Equation-of-Motion Coupled Cluster with the Dirac--Coulomb--Breit Hamiltonian
The paper implements relativistic two-component DIP-EOMCCSD/SDT with the Dirac-Coulomb-Breit Hamiltonian and shows that a composite scheme reproduces noble-gas double ionization potentials to better than 0.03 eV.
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Highly Accurate Expectation Values Using High-Order Relativistic Coupled Cluster Theory
First relativistic coupled-cluster calculations through quadruple excitations give electric field gradients that yield Q(7Li) = -0.0386 b, supporting the newer smaller value, and Q(27Al) = 0.1466 b, matching the recom...
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