General integral relations for the description of scattering states using the hyperspherical adiabatic basis
arXiv:1101.2106 · doi:10.1103/PhysRevA.83.022705
Abstract
In this work we investigate 1+2 reactions within the framework of the hyperspherical adiabatic expansion method. To this aim two integral relations, derived from the Kohn variational principle, are used. A detailed derivation of these relations is shown. The expressions derived are general, not restricted to relative partial waves, and with applicability in multichannel reactions. The convergence of the -matrix in terms of the adiabatic potentials is investigated. Together with a simple model case used as a test for the method, we show results for the collision of a He atom on a \dimer dimer (only the elastic channel open), and for collisions involving a Li and two He atoms (two channels open).
Accepted for publication in Physical Review A
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- Recombination rates from potential models close to the unitary limit
- Integral relations and the adiabatic expansion method for 1+2 reactions above the breakup threshold: Helium trimers with soft-core potentials
- Theoretical description of three- and four-nucleon scattering states using bound-state-like wave functions
- Three-body continuum wave functions with a box boundary condition
- Combined few-body and mean-field model for nuclei
- Three-body continuum states and Efimov physics in non-integer geometry
- Hyperspherical approach to atom--dimer collision with the Jacobi boundary condition