Publication | Open Access
Quenching of single-particle strengths in direct reactions
12
Citations
43
References
2021
Year
Direct ReactionsEngineeringNuclear StructureNuclear PhysicsHadron PhysicNuclear DataProton-coupled Electron TransferChemistryHeavy Ion PhysicLepton-nucleon ScatteringLow-energy Nuclear StructureTransfer ReactionsHigh-energy Nuclear ReactionPhysicsNuclear TheoryAtomic PhysicsWeak InteractionQuantum ChemistryAsymmetry DependenceNuclear AstrophysicsExperimental Nuclear PhysicsNatural SciencesParticle PhysicsReaction ProcessChemical Kinetics
A discrepancy in the asymmetry dependence of spectroscopic factors extracted with different reaction probes calls into question whether the corresponding reaction models are properly understood. In this work, we present extracted spectroscopic factors from the $^{46,34}\mathrm{Ar}(p,d)^{45,33}\mathrm{Ar}$ transfer reactions in inverse kinematics at a beam energy of 70 MeV/nucleon. The results are consistent with previous measurements of these reactions at a lower beam energy [Lee et al., Phys. Rev. Lett. 104, 112701 (2010)], indicating that the transfer reaction is a reliable probe for the nuclear structure of exotic nuclei across a wide energy range. Results from a large body of transfer reaction measurements, $(p,pN)$ measurements, and theoretical nuclear structure studies make a compelling case for much weaker asymmetry dependence than what is observed with single-nucleon knockout reactions on beryllium or carbon targets.
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