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Faddeev approach to the three-body problem in total-angular-momentum representation

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Abstract

For a system of three charged particles the Faddeev equations are derived in the total-angular-momentum representation. They have the form of coupled sets of partial differential equations in three-dimensional space and can be used to develop new efficient numerical procedures to tackle the three-body Coulomb problem. The asymptotic conditions at large distances corresponding both to binary scattering and bound-state problems are presented. The behaviour of the Faddeev components near the triple and double collision points is studied.

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Kostrykin, V.V., Kvitsinsky, A.A. & Merkuriev, S.P. Faddeev approach to the three-body problem in total-angular-momentum representation. Few-Body Systems 6, 97–113 (1989). https://doi.org/10.1007/BF01080553

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  • DOI: https://doi.org/10.1007/BF01080553

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