We present a multilayer implementation of the EOM-CCSD for the computation of ionization potentials of atoms and molecules in the presence of their environment. The method uses local orbitals to partition the system into a number of hypothetical fragments and treat different fragments of the system at different levels of theory. This approach significantly reduces the computational cost with a systematically controllable accuracy and is equally applicable to describe the environmental effect of both bonded and nonbonded nature. An accurate description of the interfragment interaction has been found to be crucial in determining the accuracy of the calculated IP values
The energy, I, of ionizing an electron from an orbital Ø is given, in general, by the relation I = -...
A spin adapted configuration interaction scheme is proposed for the evaluation of ionization potenti...
An extension of multi-reference coupled-cluster (MRCC) methods to include some effects of triple exc...
We present a multilayer implementation of the EOM-CCSD for the computation of ionization potentials ...
In this work, a domain-based local pair natural orbital (DLPNO) version of the equation of motion co...
In this work, a domain-based local pair natural orbital (DLPNO) version of the equation of motion co...
The linear-scaling local coupled cluster method DLPNO-CCSD(T) allows calculations on systems contain...
This work describes a domain-based local pair natural orbital (DLPNO) implementation of the equation...
In this article, we investigate the performance of different approximate variants of the EOM-CCSD me...
We present a hierarchy of local coupled cluster (CC) linear response (LR) methods to calculate ioniz...
A new approximation within the domain of EOMIP-CC method is proposed. The proposed scheme is based o...
Using our eigenvalue-independent partitioning (EIP) approach for the calculation of open-shell coupl...
Three novel fragmentation methods that are available in the electronic structure program GAMESS (gen...
A cost-effective equation of motion coupled cluster method, EOMIP-CCSD(2), is used to investigate ve...
Recent developments in single and multireference electronic structure methods and the approaches sui...
The energy, I, of ionizing an electron from an orbital Ø is given, in general, by the relation I = -...
A spin adapted configuration interaction scheme is proposed for the evaluation of ionization potenti...
An extension of multi-reference coupled-cluster (MRCC) methods to include some effects of triple exc...
We present a multilayer implementation of the EOM-CCSD for the computation of ionization potentials ...
In this work, a domain-based local pair natural orbital (DLPNO) version of the equation of motion co...
In this work, a domain-based local pair natural orbital (DLPNO) version of the equation of motion co...
The linear-scaling local coupled cluster method DLPNO-CCSD(T) allows calculations on systems contain...
This work describes a domain-based local pair natural orbital (DLPNO) implementation of the equation...
In this article, we investigate the performance of different approximate variants of the EOM-CCSD me...
We present a hierarchy of local coupled cluster (CC) linear response (LR) methods to calculate ioniz...
A new approximation within the domain of EOMIP-CC method is proposed. The proposed scheme is based o...
Using our eigenvalue-independent partitioning (EIP) approach for the calculation of open-shell coupl...
Three novel fragmentation methods that are available in the electronic structure program GAMESS (gen...
A cost-effective equation of motion coupled cluster method, EOMIP-CCSD(2), is used to investigate ve...
Recent developments in single and multireference electronic structure methods and the approaches sui...
The energy, I, of ionizing an electron from an orbital Ø is given, in general, by the relation I = -...
A spin adapted configuration interaction scheme is proposed for the evaluation of ionization potenti...
An extension of multi-reference coupled-cluster (MRCC) methods to include some effects of triple exc...