We have studied the ground-state properties of para-hydrogen in one dimension and in quasi-one-dimensional configurations using the path-integral ground-state Monte Carlo method. This method produces zero-temperature exact results for a given interaction and geometry. The quasi-one-dimensional setup has been implemented in two forms: the inner channel inside a carbon nanotube coated with H2 and a harmonic confinement of variable strength. Our main result is the dependence of the Luttinger parameter on the density within the stable regime. Going from one dimension to quasi-one dimension, keeping the linear density constant, produces a systematic increase of the Luttinger parameter. This increase is, however, not enough to reach the superflui...
We have determined the ground-state energies of para-H2 clusters at zero temperature using the diffu...
The quantum simulation of large molecular systems is a formidable task. We explore the use of effect...
Out of all atoms, hydrogen possesses the smallest mass, which results in very strong quantum effects...
We have studied the ground-state properties of para-hydrogen in one dimension and in quasi-one-dimen...
We have studied molecular hydrogen in a pure 1D geometry and inside a narrow carbon nanotube by mean...
Molecular para-hydrogen has been proposed theoretically as a possible candidate for superfluidity, b...
金沢大学理工研究域数物科学系In this paper, the ground state of para-hydrogen clusters for size regime N ≤ 40 has b...
Path integral Monte Carlo calculations were used to study a 2D system of H2 molecules. The ground st...
The main objective of the thesis is to study static and/or dynamic properties of a set of quantum fl...
Author Institution: Department of Chemistry, University of Waterloo; Waterloo, ON N2L 3G1, Canada; S...
We performed path-integral Monte Carlo simulations of two-dimensional H2 clusters of different sizes...
The interplay between magic number stabilities and superfluidity of small para-hydrogen clusters wit...
Author Institution: Department of Chemistry, University of Waterloo, Waterloo, ON, Canada, N2L 3G1; ...
Author Institution: Department of Chemistry, University of California; Department of Physics, Konkuk...
Ground state energies and chemical potentials of parahydrogen clusters are calculated from 3 to 40 m...
We have determined the ground-state energies of para-H2 clusters at zero temperature using the diffu...
The quantum simulation of large molecular systems is a formidable task. We explore the use of effect...
Out of all atoms, hydrogen possesses the smallest mass, which results in very strong quantum effects...
We have studied the ground-state properties of para-hydrogen in one dimension and in quasi-one-dimen...
We have studied molecular hydrogen in a pure 1D geometry and inside a narrow carbon nanotube by mean...
Molecular para-hydrogen has been proposed theoretically as a possible candidate for superfluidity, b...
金沢大学理工研究域数物科学系In this paper, the ground state of para-hydrogen clusters for size regime N ≤ 40 has b...
Path integral Monte Carlo calculations were used to study a 2D system of H2 molecules. The ground st...
The main objective of the thesis is to study static and/or dynamic properties of a set of quantum fl...
Author Institution: Department of Chemistry, University of Waterloo; Waterloo, ON N2L 3G1, Canada; S...
We performed path-integral Monte Carlo simulations of two-dimensional H2 clusters of different sizes...
The interplay between magic number stabilities and superfluidity of small para-hydrogen clusters wit...
Author Institution: Department of Chemistry, University of Waterloo, Waterloo, ON, Canada, N2L 3G1; ...
Author Institution: Department of Chemistry, University of California; Department of Physics, Konkuk...
Ground state energies and chemical potentials of parahydrogen clusters are calculated from 3 to 40 m...
We have determined the ground-state energies of para-H2 clusters at zero temperature using the diffu...
The quantum simulation of large molecular systems is a formidable task. We explore the use of effect...
Out of all atoms, hydrogen possesses the smallest mass, which results in very strong quantum effects...