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Akbar Salam

Researcher at Wake Forest University

Publications -  69
Citations -  1142

Akbar Salam is an academic researcher from Wake Forest University. The author has contributed to research in topics: Dipole & van der Waals force. The author has an hindex of 18, co-authored 66 publications receiving 934 citations. Previous affiliations of Akbar Salam include University of Freiburg & Harvard University.

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Molecular Quantum Electrodynamics: Long-Range Intermolecular Interactions

Akbar Salam
TL;DR: The theory of molecular quantum electrodynamics and its application to a number of intermolecular interactions have been successfully applied to numerous radiationmolecule and molecule-molecules processes as discussed by the authors.
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Perspective: Quantum Hamiltonians for optical interactions

TL;DR: Claims of non-physicality are refuted: the PZW transformation and ensuing Hamiltonian are shown to rest on solid physical principles and secure theoretical ground.
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High-level theoretical study of the conformational equilibrium of n-pentane

TL;DR: In this article, an accurate calculation of the energy differences between stationary points on the torsional potential energy surface of n-pentane is performed using ab initio Hartree-Fock theory, advanced many-body methods such as MP2, MP3, CCSD, and MPW1K, together with density functional theory, and basis sets of increasing size.
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A general formula for the rate of resonant transfer of energy between two electric multipole moments of arbitrary order using molecular quantum electrodynamics.

TL;DR: A general expression is derived for the matrix element for the resonant transfer of energy between an initially excited donor species and an acceptor moiety in the ground state, with each entity possessing an electric multipole moment of arbitrary order.
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Molecular quantum electrodynamics in the Heisenberg picture: A field theoretic viewpoint

TL;DR: A rigorous non-relativistic formulation of this theory applicable to atoms and molecules has also been developed and applied with outstanding success to a number of processes of interest to chemical physicists, being most commonly explicated for a system of charged particles coupled to the electromagnetic field with the latter second quantized.