H2 molecule in strong magnetic fields
Mathieu Beau (STP-DIAS), Rafael Benguria, Raymond Brummelhuis, (LM-Reims), Pierre Duclos (CPT)

TL;DR
This paper analyzes the behavior of the H2 molecule under extremely strong magnetic fields, deriving an effective Hamiltonian and proving the existence of a ground state while showing the inter-nuclear distance shrinks to zero.
Contribution
It introduces an asymptotic effective Hamiltonian for H2 in strong magnetic fields and proves the existence of a ground state with inter-nuclear distance tending to zero.
Findings
Existence of a ground state for the effective Hamiltonian.
Inter-nuclear distance approaches zero as magnetic field strength increases.
Effective Hamiltonian characterized by one-dimensional delta interactions.
Abstract
The Pauli-Hamiltonian of a molecule with fixed nuclei in a strong constant magnetic field is asymptotic, in norm-resolvent sense, to an effective Hamiltonian which has the form of a multi-particle Schr\"odinger operator with interactions given by one-dimensional \delta-potentials. We study this effective Hamiltonian in the case of the H2 -molecule and establish existence of the ground state. We also show that the inter-nuclear equilibrium distance tends to 0 as the field-strength tends to infinity.
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