J. C. López Vieyra

H2+ molecular ion in a strong magnetic field: Ground state

A detailed quantitative analysis of the system of two protons and one electron (ppe) placed in magnetic field ranging from

A HYDROGENIC MOLECULAR ATMOSPHERE OF A NEUTRON STAR

{10}^{9}\char21{}4.414\ifmmode\times\else\texttimes\fi{}{10}^{13}\mathrm{G}

H2+ion in a strong magnetic field: Lowest excited states

is presented. The present study is focused on the question of the existence of the molecular ion

Charged Hydrogenic, Helium and Helium-Hydrogenic Molecular Chains in a Strong Magnetic Field

{\mathrm{H}}_{2}^{+}

H32+ molecular ion in a strong magnetic field: Triangular configuration

in a magnetic field. A variational method with an optimization of the form of the vector potential (optimal gauge fixing) is used as a tool. It is shown that in the domain of applicability of the nonrelativistic approximation the (ppe) system in the Born-Oppenheimer approximation has a well-pronounced minimum in the total energy at a finite interproton distance for

One-electron atomic?molecular ions containing lithium in a strong magnetic field

B\ensuremath{\lesssim}{10}^{11}\mathrm{G},

H3+ molecular ion in a magnetic field : Linear parallel configuration

thus manifesting the existence of

Exotic H{sub 3}{sup 2+} ion in a strong magnetic field: Linear configuration

{\mathrm{H}}_{2}^{+}.

How good are the Garvey–Kelson predictions of nuclear masses?

For

SUTHERLAND-TYPE TRIGONOMETRIC MODELS, TRIGONOMETRIC INVARIANTS AND MULTIVARIABLE POLYNOMIALS II: E7 CASE

B\ensuremath{\gtrsim}{10}^{11}\mathrm{G}