A fundamental issue in the field of reaction dynamics is the inclusion of the quantum mechanical (QM) effects such as zero point energy (ZPE) and tunneling in molecular dynamics simulations, and in particular in the calculation of chemical reaction rates. In this work we study the chemical reaction between a muonium atom and a hydrogen molecule. The recently developed ring polymer molecular dynamics (RPMD) technique is used, and the results are compared with those of other methods. For this reaction, the thermal rate coefficients calculated with RPMD are found to be in excellent agreement with the results of an accurate QM calculation. The very minor discrepancies are within the convergence error even at very low temperatures. This exceptio...
Following our previous study of prototypical insertion reactions of energetically asymmetric type wi...
The quantum dynamics of the title reactions are studied using the ring polymer molecular dynamics (R...
The state-resolved knowledge of molecular scattering dynamics is paramount to the understanding and ...
A fundamental issue in the field of reaction dynamics is the inclusion of the quantum mechanical (QM...
The inclusion of Quantum Mechanical (QM) effects such as zero point energy (ZPE) and tunneling in si...
In a recent paper, we have developed an efficient implementation of the ring polymer molecular dynam...
Because of its fundamental importance in astrochemistry, the H + H → H + H reaction has been studi...
The thermal rate constants of two prototypical insertion-type reactions, namely, N/O + H<sub>2</sub>...
The thermal rate coefficients and kinetic isotope effects have been calculated using ring polymer mo...
The thermal rate coefficients of a prototypical bimolecular reaction are determined on an accurate a...
We describe an efficient procedure for calculating the rates of bimolecular chemical reactions in th...
Following our previous study of prototypical insertion reactions of energetically asymmetric type wi...
The thermal rate constant of the O([superscript 3]P) + CH[subscript 4] → OH + CH[subscript 3] reacti...
We apply Thermostatted Ring Polymer Molecular Dynamics (TRPMD), a recently-proposed approximate quan...
The accurate and efficient calculation of the rate coefficients of chemical reactions is a key issue...
Following our previous study of prototypical insertion reactions of energetically asymmetric type wi...
The quantum dynamics of the title reactions are studied using the ring polymer molecular dynamics (R...
The state-resolved knowledge of molecular scattering dynamics is paramount to the understanding and ...
A fundamental issue in the field of reaction dynamics is the inclusion of the quantum mechanical (QM...
The inclusion of Quantum Mechanical (QM) effects such as zero point energy (ZPE) and tunneling in si...
In a recent paper, we have developed an efficient implementation of the ring polymer molecular dynam...
Because of its fundamental importance in astrochemistry, the H + H → H + H reaction has been studi...
The thermal rate constants of two prototypical insertion-type reactions, namely, N/O + H<sub>2</sub>...
The thermal rate coefficients and kinetic isotope effects have been calculated using ring polymer mo...
The thermal rate coefficients of a prototypical bimolecular reaction are determined on an accurate a...
We describe an efficient procedure for calculating the rates of bimolecular chemical reactions in th...
Following our previous study of prototypical insertion reactions of energetically asymmetric type wi...
The thermal rate constant of the O([superscript 3]P) + CH[subscript 4] → OH + CH[subscript 3] reacti...
We apply Thermostatted Ring Polymer Molecular Dynamics (TRPMD), a recently-proposed approximate quan...
The accurate and efficient calculation of the rate coefficients of chemical reactions is a key issue...
Following our previous study of prototypical insertion reactions of energetically asymmetric type wi...
The quantum dynamics of the title reactions are studied using the ring polymer molecular dynamics (R...
The state-resolved knowledge of molecular scattering dynamics is paramount to the understanding and ...