Radical orbital switching
A technology of free radicals and molecular orbitals, which is applied in the fields of sugar derivatives, organic chemistry, and compounds of Group 5/15 elements of the periodic table, etc., and can solve problems such as unknown energy order
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Embodiment 1
[0506] Example 1 | The experimental single reference molecular orbital of the charged radical anion.
[0507] UHF / STO-3G (left) and UM06-2X / 6-31+G(d) (right) spins of experimental carboxy-peroxy radicals (above) and carboxy-nitroxide radicals (bottom) Density (transparent surface), and alpha and beta molecular orbitals (solid surface). The numbers in bold are the orbital numbers (in order of increasing energy), and the numbers in italics are the orbital energy. The underlined numbers correspond to single-occupied molecular orbitals.
[0508]
Embodiment 2
[0509] Example 2 | Experimental MCSCF and MRPT2 molecular orbitals of ectopic radical anions.
[0510] MCSCF(9,5) / 6-31+G(d) and MRPT2(9,5) / 6-31+G of experimental carboxy-peroxy radicals (left) and carboxy-nitroxide radicals (right) (d) Optimized molecular configuration.
[0511]
Embodiment 3
[0512] Example 3 | Experimental CASSCF molecular orbitals of ectopic radical anions.
[0513] Experimental CASSCF(7,8) / STO-3G optimized molecular orbitals of carboxy-peroxy radicals (left) and carboxy-nitroxide radicals (right), and the main configurations under the eigenvalues, the eigenvalues Represented by bold.
[0514]
PUM
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