Computing quantum mechanical integrals involving higher angular momentum increases computational complexity significantly.
Quantum chemical calculations involving higher angular momentum basis functions significantly increase computational complexity and resource demands, presenting notable challenges for algorithm design and hardware acceleration.
The claim states that computing quantum mechanical integrals involving higher angular momentum increases computational complexity significantly. Papers [1], [4], and [10] explicitly discuss the challenges and computational intensity associated with high angular momentum (such as g-functions) in electron repulsion integrals, supporting the claim. No papers refute it.
G. Tornai, István Ladjánszki, Á. Rák, Gergely Kis, G. Cserey. Calculation of quantum chemical two-electron integrals by applying compiler technology on GPU.. 2019. https://doi.org/10.1021/acs.jctc.9b00560
The paper notes that computing integrals for higher angular momentum orbitals up to g requires specialized approaches and poses challenges for computational frameworks.
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Li R, Sun Q, Zhang X, Chan GK. Introducing GPU Acceleration into the Python-Based Simulations of Chemistry Framework.. 2025. https://doi.org/10.1021/acs.jpca.4c05876
The study highlights the specific computational load of handling angular momentum up to g functions when evaluating two-electron repulsion integrals.
Elise Palethorpe, G. Barca. High-Performance, High-Angular-Momentum J Engine on Graphics Processing Units.. 2025. https://doi.org/10.1021/acs.jctc.5c00775
The article explicitly states that the efficient evaluation of electron repulsion integrals involving high-angular-momentum Gaussian basis functions is computationally challenging and causes significant performance bottlenecks.
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