The electronic structure of molecules, yielding a large amount of the correlation energy, was studied using a simple correlated wave function. The application of the JAGP to the lithium molecule was also discussed. An extension of the stochastic reconfiguration method was also discussed. The method is applied to several molecules from Li2 to benzene by obtaining total energies, bond lengths and binding energies comparable with much more demanding multiconfiguration schemes
We have devised a local ab initio density matrix renormalization group algorithm to describe multire...
We have devised a local ab initio density matrix renormalization group algorithm to describe multire...
We have devised a local ab initio density matrix renormalization group algorithm to describe multire...
The electronic structure of molecules, yielding a large amount of the correlation energy, was studie...
We introduce a method for accurate quantum chemical calculations based on a simple variational wave ...
Our aim is to study the electronic wave function and the correlation energy of a low dimensional sys...
Although mean field theories have been very successful to predict a wide range of properties for sol...
We introduce a simple generalization of the well-known geminal wave function already applied in quan...
Rearranging chemical bonds is chemistry. Simulating chemical reactions is an expensive and complex p...
Rearranging chemical bonds is chemistry. Simulating chemical reactions is an expensive and complex p...
In this work, I develop theories, and their implementations, for the high-accuracy study of large mo...
Incorporation of electron correlation to improve the accuracy of computations remains a driving forc...
Incorporation of electron correlation to improve the accuracy of computations remains a driving forc...
CONSPECTUS: Ab initio modeling of matter has become a pillar of chemical research: with ever-increas...
Definitions of bond index and Valence for correlated wave functions are discussed. The utility of re...
We have devised a local ab initio density matrix renormalization group algorithm to describe multire...
We have devised a local ab initio density matrix renormalization group algorithm to describe multire...
We have devised a local ab initio density matrix renormalization group algorithm to describe multire...
The electronic structure of molecules, yielding a large amount of the correlation energy, was studie...
We introduce a method for accurate quantum chemical calculations based on a simple variational wave ...
Our aim is to study the electronic wave function and the correlation energy of a low dimensional sys...
Although mean field theories have been very successful to predict a wide range of properties for sol...
We introduce a simple generalization of the well-known geminal wave function already applied in quan...
Rearranging chemical bonds is chemistry. Simulating chemical reactions is an expensive and complex p...
Rearranging chemical bonds is chemistry. Simulating chemical reactions is an expensive and complex p...
In this work, I develop theories, and their implementations, for the high-accuracy study of large mo...
Incorporation of electron correlation to improve the accuracy of computations remains a driving forc...
Incorporation of electron correlation to improve the accuracy of computations remains a driving forc...
CONSPECTUS: Ab initio modeling of matter has become a pillar of chemical research: with ever-increas...
Definitions of bond index and Valence for correlated wave functions are discussed. The utility of re...
We have devised a local ab initio density matrix renormalization group algorithm to describe multire...
We have devised a local ab initio density matrix renormalization group algorithm to describe multire...
We have devised a local ab initio density matrix renormalization group algorithm to describe multire...