Nucleon-anti-nucleon intruder state of Dirac equation for nucleon in deep scalar potential well
arXiv:1705.00489 · doi:10.1142/S0218301317400134
Abstract
We solve the Dirac radial equation for a nucleon in a scalar Woods-Saxon potential well of depth and radius . A sequence of values for the depth and radius are considered. For shallow potentials with the wave functions for the positive-energy states are dominated by their nucleon component . But for deeper potentials with the s begin to have dominant anti-nucleon component . In particular, a special intruder state enters with wave function and energy . We have considered several values between 2 and 8 fm. For and the above values, is the only bound positive-energy state and has its closely equal to , both having a narrow wave-packet shape centered around . The of this state is practically independent of for the above range and obeys closely the relation .
arXiv comment20 pages, 15 figures
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