All Stories

  1. Automated parameterization of quantum-mechanically derived force-fields including explicit sigma holes: A pathway to energetic and structural features of halogen bonds in gas and condensed phase
  2. Accurate interaction energies by spin component scaled Möller-Plesset second order perturbation theory calculations with optimized basis sets (SCS-MP2mod): Development and application to aromatic heterocycles
  3. Intermolecular interactions in eumelanins: a computational bottom-up approach. I. small building blocks
  4. Unraveling the interplay of different contributions to the stability of the quinhydrone dimer
  5. Structural, dynamic and photophysical properties of a fluorescent dye incorporated in an amorphous hydrophobic polymer bundle
  6. Joyce and Ulysses: integrated and user-friendly tools for the parameterization of intramolecular force fields from quantum mechanical data
  7. An automated approach for the parameterization of accurate intermolecular force‐fields: Pyridine as a case study
  8. Realistic Modeling of Fluorescent Dye-Doped Silica Nanoparticles: A Step Toward the Understanding of their Enhanced Photophysical Properties.
  9. Fluorescence spectra of organic dyes in solution: a time dependent multilevel approach
  10. Geometry Optimization of Large and Flexible van der Waals Dimers: A Fragmentation−Reconstruction Approach
  11. Theoretical multilevel approach for studying the photophysical properties of organic dyes in solution
  12. Chemical Detail Force Fields for Mesogenic Molecules
  13. Computational study through atomistic potentials of a partial bilayer liquid crystal: structure and dynamics
  14. Force‐field modeling through quantum mechanical calculations: Molecular dynamics simulations of a nematogenic molecule in its condensed phases
  15. Parametrization and Validation of Intramolecular Force Fields Derived from DFT Calculations
  16. Parametrization and Validation of Coarse Grained Force-Fields Derived from ab Initio Calculations
  17. Modeling a Liquid Crystal Dynamics by Atomistic Simulation with an Ab Initio Derived Force Field