New developments in the field of theoretical chemistry require the computation of numerous Molecular Potential Energy Surfaces (PESs) to generate adequate quantum force field parameters. Because workstations alone cannot fulfill the requirements of these modern chemical advances, we present in this paper how we have tackled this problem using several up-to-date computer science technology such as grid-computing middleware, molecular databases, script interfacing, etc. An example on the optimization of semiempirical parameters for water shows the potential power of our approach and the benefit theoretical chemistry can gain with it
We describe a procedure to develop a fitting basis for molecular potential energy surfaces (PES) tha...
In this paper we address the issue of how to represent the potential energy surfaces that arise in c...
Modeling chemical reactions and complicated molecular systems has been proposed as the“killer applic...
New developments in the field of theoretical chemistry require the computation of numerous Molecular...
Contemporary molecular spectroscopy allows the study of flexible molecules, whose conformational beh...
Methods to construct molecular potential energy surfaces through automated generation of ab initio e...
Written chemical formulas, such as C2H6O, can tell us the constituent atoms a molecule contains but ...
Explicit or implicit expressions of potential energy surfaces (PES) represent the basis of our abili...
We present a new method that allows automatic location of multiple local minima on the molecular pot...
Accurate potential energy surfaces (PESs) combined with methods to solve the Schrレdinger equation fo...
The calculation time for the energy of atoms and molecules scales exponentially with system size on ...
The goal of computational research in the fields of engineering, physics, chemistry or as a matter o...
The potential energy at the surface of materials, like graphene, might be able to trap atoms and mol...
Sampling potential energy surfaces (PES) is pivotal for understanding chemical structure, energetics...
Abstract: We present a new method for generating global or semiglobal potential energy surfaces in t...
We describe a procedure to develop a fitting basis for molecular potential energy surfaces (PES) tha...
In this paper we address the issue of how to represent the potential energy surfaces that arise in c...
Modeling chemical reactions and complicated molecular systems has been proposed as the“killer applic...
New developments in the field of theoretical chemistry require the computation of numerous Molecular...
Contemporary molecular spectroscopy allows the study of flexible molecules, whose conformational beh...
Methods to construct molecular potential energy surfaces through automated generation of ab initio e...
Written chemical formulas, such as C2H6O, can tell us the constituent atoms a molecule contains but ...
Explicit or implicit expressions of potential energy surfaces (PES) represent the basis of our abili...
We present a new method that allows automatic location of multiple local minima on the molecular pot...
Accurate potential energy surfaces (PESs) combined with methods to solve the Schrレdinger equation fo...
The calculation time for the energy of atoms and molecules scales exponentially with system size on ...
The goal of computational research in the fields of engineering, physics, chemistry or as a matter o...
The potential energy at the surface of materials, like graphene, might be able to trap atoms and mol...
Sampling potential energy surfaces (PES) is pivotal for understanding chemical structure, energetics...
Abstract: We present a new method for generating global or semiglobal potential energy surfaces in t...
We describe a procedure to develop a fitting basis for molecular potential energy surfaces (PES) tha...
In this paper we address the issue of how to represent the potential energy surfaces that arise in c...
Modeling chemical reactions and complicated molecular systems has been proposed as the“killer applic...