Manuel Díaz‐Tinoco

Dyson orbitals and chemical bonding

Contributors

Excess electrons bound to H₂S trimer and tetramer clusters

Double Rydberg anions with solvated ammonium kernels: Electron binding energies and Dyson orbitals

Carborane superhalide bases and their conjugate Brønsted-Lowry Superacids: Electron binding energies and Dyson orbitals

Dyson Orbitals and Double Rydberg Anions: Methylated, Annulated, and Paramagnetic

Do Dyson Orbitals resemble canonical Hartree–Fock orbitals?

Electron Propagator Methods for Vertical Electron Detachment Energies of Anions: Benchmarks and Case Studies

Accurate Ionization Potentials and Electron Affinities of Acceptor Molecules IV: Electron-Propagator Methods

Composite electron propagator methods for calculating ionization energies

Comment on “Is the regulation of the electronic properties of organic molecules by polynuclear superhalogens more effective than that by mononuclear superhalogens? A high-level ab initio case study” by M.-M. Li, J.-F. Li, H.-C. Bai, Y.-Y. Sun, J.-L. Li and B. Yin, Phys. Chem. Chem. Phys., 2015, <b>17</b>, 20338

Comment on: “Probing the Properties of Polynuclear Superhalogens without Halogen Ligand via ab Initio Calculations: A Case Study on Double‐Bridged [Mg₂(CN)₅]⁻¹ Anions” by Li et al.

CaH Rydberg series, oscillator strengths and photoionization cross sections from Molecular Quantum Defect and Dyson Orbital theories

Comment on “Are polynuclear superhalogens without halogen atoms probable? A high-level <i>ab initio</i> case study on triple-bridged binuclear anions with cyanide ligands” [J. Chem. Phys. 140, 094301 (2014)]

A generalized any-particle propagator theory: Prediction of proton affinities and acidity properties with the proton propagator