The proposed ''natural resonance theory'' does not meet the requirements of a theoretically correct approach. As ลฝ . we are dealing with pure quantum mechanical states described by a well-defined wave function, the use of incoherent superposition 3.1 of localized density matrices to characterize the
Natural resonance theory. I. General formalism
โ Scribed by Feldgus, Steven; Landis, Clark R.; Glendening, Eric D.; Weinhold, Frank
- Publisher
- John Wiley and Sons
- Year
- 2000
- Tongue
- English
- Weight
- 124 KB
- Volume
- 21
- Category
- Article
- ISSN
- 0192-8651
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โฆ Synopsis
T he code for the natural resonance theory (NRT) program contains an error in the routine to calculate D(W) (SR GETDW), the root-mean-square deviation of the reference weighted density matrix from the true density matrix, D(W) = min {W (r)
๐ SIMILAR VOLUMES
We describe quantitative numerical applications of the natural ลฝ . resonance theory NRT to a variety of chemical bonding types, in order to demonstrate the generality and practicality of the method for a wide range of . chemical systems. Illustrative applications are presented for 1 benzene and . .
Resonance weights derived from the Natural Resonance Theory ลฝ . NRT , introduced in the preceding paper are used to calculate ''natural bond order,'' ''natural atomic valency,'' and other atomic and bond indices reflecting the resonance composition of the wave function. These indices are found to gi
General formulas for matrix elements of spin-dependent operators in a basis of spinadapted antisymmetrized products of orthonormal orbitals are derived. The resulting formalism may be applied to construction of the Hamiltonian matrices both for Pauli and for projected no-pair relativistic configurat