The interaction between LiH and H has been calculated using a Coupled Cluster approach in view of examining the strength of the coupling between the impinging atom and the rovibrational LiH states in low energy collision regimes. The potential energy surface was thus obtained by considering not only the angular anisotropy but also the dependence of the interaction energy on the vibrational motion of the LiH molecule, hence producing the strength of the vibrational coupling. The main objective is that of gaining a realistic description of the interaction in the sub-reactive region. The results of our calculations show here that this interaction should be used in conjunction with that of the reactive configurational space because of the stron...
The ab initio potential energy surface (PES) already computed for the title system is employed here ...
The ab initio potential energy surface (PES) already computed for the title system is employed here ...
The ab initio potential energy surface (PES) already computed for the title system is employed here ...
The interaction between LiH and H has been calculated using a Coupled Cluster approach in view of ex...
The interaction between LiH and H has been calculated using a Coupled Cluster approach in view of ex...
The detailed features of the interaction forces within the LiH2+ triatomic system are calculated usi...
The detailed features of the interaction forces within the LiH2+ triatomic system are calculated usi...
The reactive behavior of the [LiH2](+) system is investigated by Computing the potential energy surf...
The reactive behavior of the [LiH2](+) system is investigated by Computing the potential energy surf...
The reactive behavior of the [LiH2]+ system is investigated by computing the potential energy surfac...
The ab initio potential energy surface (PES) already computed for the title system is employed here ...
The detailed features of the interaction forces within the LiH2 + triatomic system are calculated u...
The detailed features of the interaction forces within the LiH2 + triatomic system are calculated u...
The detailed features of the interaction forces within the LiH2 + triatomic system are calculated u...
The detailed features of the interaction forces within the LiH2 + triatomic system are calculated u...
The ab initio potential energy surface (PES) already computed for the title system is employed here ...
The ab initio potential energy surface (PES) already computed for the title system is employed here ...
The ab initio potential energy surface (PES) already computed for the title system is employed here ...
The interaction between LiH and H has been calculated using a Coupled Cluster approach in view of ex...
The interaction between LiH and H has been calculated using a Coupled Cluster approach in view of ex...
The detailed features of the interaction forces within the LiH2+ triatomic system are calculated usi...
The detailed features of the interaction forces within the LiH2+ triatomic system are calculated usi...
The reactive behavior of the [LiH2](+) system is investigated by Computing the potential energy surf...
The reactive behavior of the [LiH2](+) system is investigated by Computing the potential energy surf...
The reactive behavior of the [LiH2]+ system is investigated by computing the potential energy surfac...
The ab initio potential energy surface (PES) already computed for the title system is employed here ...
The detailed features of the interaction forces within the LiH2 + triatomic system are calculated u...
The detailed features of the interaction forces within the LiH2 + triatomic system are calculated u...
The detailed features of the interaction forces within the LiH2 + triatomic system are calculated u...
The detailed features of the interaction forces within the LiH2 + triatomic system are calculated u...
The ab initio potential energy surface (PES) already computed for the title system is employed here ...
The ab initio potential energy surface (PES) already computed for the title system is employed here ...
The ab initio potential energy surface (PES) already computed for the title system is employed here ...