Quantum chemical high level ab initio coupled-cluster and multiconfigurational perturbation methods have been used to compute vertical and adiabatic ionization potentials of the five canonical DNA and RNA nucleobases: uracil, thymine, cytosine, adenine, and guanine. Several states of their cations have been also calculated. The present results represent a systematic compendium of these magnitudes, establishing theoretical reference values at a level not reported before, calibrating computational strategies, and guiding the assignment of the features in the experimental photoelectron spectra.Daniel.Roca@uv.es Mercedes.Rubio@uv.es Manuela.Merchan@uv.es Luis.Serrano@uv.e
Here, we present the theoretical-computational modeling of the oxidation properties of four DNA nucl...
Injection of electrons into the empty π* molecular orbitals of uracil and the DNA bases creates shor...
Oxidative damage to DNA and hole transport between nucleobases in oxidized DNA are important process...
Quantum chemical high level ab initio coupled-cluster and multiconfigurational perturbation methods ...
High-level quantum-chemical ab initio coupled-cluster and multiconfigurational perturbation methods ...
The ionization of the four DNA bases is investigated by means of ab initio calculations. Accurate va...
The electronic properties of DNA molecules, defined by the sequence-dependent ionization potentials ...
Ionization energy thresholds have been calculated for the canonical DNA and RNA bases both in the ga...
Ab initio molecular orbital calculations of various protonation states of DNA base and DNA base radi...
Electron ionization of the DNA nucleobase, adenine, and the tRNA nucleobase, hypoxanthine, was inves...
On the basis of first-principles GW calculations, we study the quasiparticle properties of the guani...
This review summarizes the contribution of high level quantum chemical calculations to the investiga...
5 pages, 3 figuresInternational audienceOn the basis of first-principles GW calculations, we study t...
Ionization energies, excitation energies and electron affinities (EAs) of the title molecules were c...
The intrinsic ionization energy of a base in DNA plays a critical role in determining the energies a...
Here, we present the theoretical-computational modeling of the oxidation properties of four DNA nucl...
Injection of electrons into the empty π* molecular orbitals of uracil and the DNA bases creates shor...
Oxidative damage to DNA and hole transport between nucleobases in oxidized DNA are important process...
Quantum chemical high level ab initio coupled-cluster and multiconfigurational perturbation methods ...
High-level quantum-chemical ab initio coupled-cluster and multiconfigurational perturbation methods ...
The ionization of the four DNA bases is investigated by means of ab initio calculations. Accurate va...
The electronic properties of DNA molecules, defined by the sequence-dependent ionization potentials ...
Ionization energy thresholds have been calculated for the canonical DNA and RNA bases both in the ga...
Ab initio molecular orbital calculations of various protonation states of DNA base and DNA base radi...
Electron ionization of the DNA nucleobase, adenine, and the tRNA nucleobase, hypoxanthine, was inves...
On the basis of first-principles GW calculations, we study the quasiparticle properties of the guani...
This review summarizes the contribution of high level quantum chemical calculations to the investiga...
5 pages, 3 figuresInternational audienceOn the basis of first-principles GW calculations, we study t...
Ionization energies, excitation energies and electron affinities (EAs) of the title molecules were c...
The intrinsic ionization energy of a base in DNA plays a critical role in determining the energies a...
Here, we present the theoretical-computational modeling of the oxidation properties of four DNA nucl...
Injection of electrons into the empty π* molecular orbitals of uracil and the DNA bases creates shor...
Oxidative damage to DNA and hole transport between nucleobases in oxidized DNA are important process...