INVESTIGADORES
RAMIREZ PASTOR antonio Jose
artículos
Título:
Configurational entropy of adsorbed linear species (k- mers).
Autor/es:
F. ROMÁ; A. J. RAMIREZ-PASTOR; J. L. RICCARDO
Revista:
JOURNAL OF CHEMICAL PHYSICS
Referencias:
Año: 2001 vol. 114 p. 10932 - 10937
ISSN:
0021-9606
Resumen:
The configurational entropy of interacting linear molecules (k-mers! absorbed on a regular lattice is
addressed through analytical as well as numerical methods. The general definitions for
computational exact calculations of k-mers lattice-gas entropy are presented. In addition, theoretical
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
addressed through analytical as well as numerical methods. The general definitions for
computational exact calculations of k-mers lattice-gas entropy are presented. In addition, theoretical
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
addressed through analytical as well as numerical methods. The general definitions for
computational exact calculations of k-mers lattice-gas entropy are presented. In addition, theoretical
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
addressed through analytical as well as numerical methods. The general definitions for
computational exact calculations of k-mers lattice-gas entropy are presented. In addition, theoretical
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
addressed through analytical as well as numerical methods. The general definitions for
computational exact calculations of k-mers lattice-gas entropy are presented. In addition, theoretical
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
addressed through analytical as well as numerical methods. The general definitions for
computational exact calculations of k-mers lattice-gas entropy are presented. In addition, theoretical
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
k-mers! absorbed on a regular lattice is
addressed through analytical as well as numerical methods. The general definitions for
computational exact calculations of k-mers lattice-gas entropy are presented. In addition, theoretical
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
k-mers lattice-gas entropy are presented. In addition, theoretical
basis for accurate analytical estimations of the entropy of reference states are given. The coverage
and temperature dependence of the configurational entropy of interacting adsorbed dimers on one
and two-dimensional lattices are obtained. A novel phase behavior of k-mers lattice-gas is shown
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
and discussed.
k-mers lattice-gas is shown
and discussed.
