All Stories

  1. Breaking the 1 cm –1 Discrepancy with Experiment Limit in First-Principles Calculations of Water Dimer Vibration–Rotation–Tunneling Spectra
  2. A numerically exact calculation of vibration–rotation–tunneling levels of water dimer on a new accurate potential energy surface: Achieving sub-cm−1 accuracy from the terahertz to the infrared
  3. Circumventing problems introduced by matrix asymmetry in collocation calculations of vibrational spectra by exploiting near symmetry
  4. A numerically exact calculation of vibration-rotation-tunnelling levels of water dimer on a new accurate potential energy surface: achieving sub-cm−1 accuracy from the terahertz to the infrared
  5. Circumventing problems introduced by matrix asymmetry in collocation calculations of vibrational spectra by exploiting near symmetry
  6. Using a basis of products of contracted intra-molecular and contracted inter-molecular functions to compute the rovibrational spectrum of H2O–HF
  7. Using nested tensor train contracted basis functions with group theoretical techniques to compute (ro)-vibrational spectra of molecules with non-Abelian groups
  8. Using a pruned basis and a sparse collocation grid with more points than basis functions to do efficient and accurate MCTDH calculations with general potential energy surfaces
  9. Using a pruned basis and a sparse collocation grid with more points than basis functions to do efficient and accurate MCTDH calculations with general potential energy surfaces
  10. A two-step quadrature-based variational calculation of ro-vibrational levels and wavefunctions of CO2 using a bisector-x molecule-fixed frame
  11. Computing vibrational energy levels using a canonical polyadic tensor method with a fixed rank and a contraction tree
  12. Computing vibrational spectra using a new collocation method with a pruned basis and more points than basis functions: Avoiding quadrature
  13. Computing vibrational spectra using a new collocation method with a pruned basis and more points than basis functions: avoiding quadrature
  14. Computing vibrational spectra using a new collocation method with a pruned basis and more points than basis functions: avoiding quadrature
  15. Using Collocation to Solve the Schrödinger Equation
  16. A local Gaussian Processes method for fitting potential surfaces that obviates the need to invert large matrices
  17. Computing excited OH stretch states of water dimer in 12D using contracted intermolecular and intramolecular basis functions
  18. Computing vibrational spectra using a new collocation method with a pruned basis and more points than basis functions: avoiding quadrature
  19. A local Gaussian Processes method for fitting potential surfaces that obviates the need to invert large matrices
  20. Computing excited OH stretch states of water dimer in 12-D using contracted intermolecular and intramolecular basis functions
  21. Computational study of the rovibrational spectrum of H ...
  22. Computing vibrational energy levels by solving linear equations using a tensor method with an imposed rank
  23. Computational study of the rovibrational spectrum of H2O-HF
  24. Computing vibrational energy levels by solving linear equations using a tensor method with an imposed rank
  25. Efficiently transforming from values of a function on a sparse grid to basis coefficients
  26. Using nondirect product Wigner D basis functions and the symmetry-adapted Lanczos algorithm to compute the ro-vibrational spectrum of CH4–H2O
  27. A rectangular collocation multi-configuration time-dependent Hartree (MCTDH) approach with time-independent points for calculations on general potential energy surfaces
  28. Neural Network Potential Energy Surfaces for Small Molecules and Reactions
  29. A variational calculation of vibrational levels of vinyl radical
  30. A Collocation-Based Multi-Configuration Time-Dependent Hartree Method Using Mode Combination and Improved Relaxation
  31. Computational study of the rovibrational spectrum of CO2–N2
  32. Computational study of the ro-vibrational spectrum of CO–CO2
  33. Using quadrature and an iterative eigensolver to compute fine-structure ro-vibrational levels of Van der Waals complexes: NH(Σ−3)–He, O2(Σg−3)–Ar, and O2(Σg−3)–He
  34. Computational Study of the Ro-Vibrational Spectrum of CO-CO2
  35. Using collocation and a hierarchical basis to solve the vibrational Schrödinger equation
  36. A pruned collocation-based multiconfiguration time-dependent Hartree approach using a Smolyak grid for solving the Schrödinger equation with a general potential energy surface
  37. Using rectangular collocation with finite difference derivatives to solve electronic Schrödinger equation
  38. Two new methods for computing vibrational energy levels
  39. Computing polarizabilities without a Hamiltonian matrix
  40. Using nonproduct quadrature grids to solve the vibrational Schrödinger equation in 12D
  41. Theoretical study of the rovibrational spectrum of H2O–H2
  42. Theoretical study of the rovibrational spectrum of He2–OCS
  43. Nonproduct quadrature grids for solving the vibrational Schrödinger equation
  44. An improved neural network method for solving the Schrödinger equation
  45. Vibrational energy levels of CH5+
  46. Using redundant coordinates to represent potential energy surfaces with lower-dimensional functions
  47. Using neural networks to represent potential surfaces as sums of products
  48. Methods for calculating vibrational energy levels
  49. Using C3v symmetry with polyspherical coordinates for methane
  50. Semiclassically optimized complex absorbing potentials of polynomial form. I. Pure imaginary case
  51. Discrete variable representations of complicated kinetic energy operators
  52. Perturbation theory for bending potentials