Backward Elastic p3He Scattering at Energies 1 - 2 GeV
L. D. Blokhintsev, A. V. Lado, Yu. N. Uzikov
Abstract
The two-body transfer amplitude for the rearrangement process i+(jkl) - j+(ikl) is constructed on the basis of technique of 4-dimensional covariant nonrelativistic graphs. The developed formalism is applied to describing backward elastic p3He scattering in the energy range 0.5 - 1.7 GeV. Numerical calculations performed using the 5- channel wave function of the 3He nucleus show that the transfer of a noninteracting np- pair dominates and explains satisfactorily the energy and angular dependence of the differential cross section at energies 0.9 - 1.7 GeV. A weak sensitivity to high momentum components of the ~3He$ wave function in spite of large momentum transfer as well as a very important role of rescatterings in the initial and final states are established.
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