The optical properties of Schiff bases of retinal are determined from their ab initio Hartree-Fock ground-state reduced single-electron density matrices. This is achieved by extracting the effective Hamiltonian of the π electrons in the systems from their ground-state reduced density matrices. The linear and non-linear optical properties of these molecules are thus calculated by employing the time-dependent Hartree-Fock (TDHF) method. Structure dependence of the optical properties is examined by comparing the values of linear and non-linear polarizabilities of all-trans and various cis isomers. The effect of protonation is studied as well.link_to_subscribed_fulltex
The excited-state relaxation of retinal protonated Schiff bases (PSBs) is an important test case for...
In the quest for a cost-effective level of theory able to describe a large portion of the ground and...
We employ a variety of highly-correlated approaches including quantum Monte Carlo (QMC) and the n-el...
In concert with the recent photoabsorption experiments of gas-phase Schiff-base retinal chromophores...
Based on quantumchemical MNDOC calculations it is shown that the ground-state properties of a retina...
AbstractWe have studied the wavelength dependence of retinal Schiff base absorbencies on the protona...
We investigate the optical properties of the tZt-penta-3,5-dieniminium cation, a simplified model fo...
The accurate calculation of electronic excited states of large and electronically correlated biologi...
<p>We investigate the molecular geometries of the ground state and the minimal energy conical inters...
Ab initio complete active space SCF calculations have been carried out to investigate the first exci...
The n-butylamine Schiff bases of all-trans, 9-cis, 11-cis, and 13-cis retinal and the methylamine Sc...
The ground state structure of retinal has been investigated. We found that DFT and CASSCF produce di...
ABSTRACT: The accurate determination of the geometrical details of the dark state of 11-cis retinal ...
3"The accurate determination of the geometrical details of the dark state of 11-cis Retinal in Rhodo...
Retinal is the photon absorbing chromophore of rhodopsin and other visual pigments, enabling the ver...
The excited-state relaxation of retinal protonated Schiff bases (PSBs) is an important test case for...
In the quest for a cost-effective level of theory able to describe a large portion of the ground and...
We employ a variety of highly-correlated approaches including quantum Monte Carlo (QMC) and the n-el...
In concert with the recent photoabsorption experiments of gas-phase Schiff-base retinal chromophores...
Based on quantumchemical MNDOC calculations it is shown that the ground-state properties of a retina...
AbstractWe have studied the wavelength dependence of retinal Schiff base absorbencies on the protona...
We investigate the optical properties of the tZt-penta-3,5-dieniminium cation, a simplified model fo...
The accurate calculation of electronic excited states of large and electronically correlated biologi...
<p>We investigate the molecular geometries of the ground state and the minimal energy conical inters...
Ab initio complete active space SCF calculations have been carried out to investigate the first exci...
The n-butylamine Schiff bases of all-trans, 9-cis, 11-cis, and 13-cis retinal and the methylamine Sc...
The ground state structure of retinal has been investigated. We found that DFT and CASSCF produce di...
ABSTRACT: The accurate determination of the geometrical details of the dark state of 11-cis retinal ...
3"The accurate determination of the geometrical details of the dark state of 11-cis Retinal in Rhodo...
Retinal is the photon absorbing chromophore of rhodopsin and other visual pigments, enabling the ver...
The excited-state relaxation of retinal protonated Schiff bases (PSBs) is an important test case for...
In the quest for a cost-effective level of theory able to describe a large portion of the ground and...
We employ a variety of highly-correlated approaches including quantum Monte Carlo (QMC) and the n-el...