Systematic analysis of proton- and deuteron-induced one-proton knockout reactions
Hibiki Nakada, and Shoya Ogawa, and Yoshiki Chazono, and Kazuyuki Ogata

TL;DR
This study investigates the mechanisms behind the observed ratio of deuteron- to proton-induced one-proton knockout reactions, introducing a new theoretical approach that incorporates deuteron breakup to better match experimental data.
Contribution
The paper develops a new DWIA-BU method that includes deuteron breakup effects, improving the theoretical description of knockout reaction ratios compared to standard DWIA.
Findings
DWIA-BU reproduces experimental ratios more accurately than DWIA.
Deuteron breakup is crucial for explaining the knockout cross section ratios.
The ratio of elementary cross sections remains about 3.5 across energies.
Abstract
The ratios of the one-proton knockout cross sections by a deuteron to those by a proton are about 1.5, indicating that using deuteron is more efficient than proton in yielding large knockout cross sections. However, this ratio differs from the intuitive expectation, and its underlying mechanism remains unclear. The purpose of this study is to clarify the mechanism behind the observed ratio by theoretically describing and analyzing the deuteron- and proton-induced one-proton knockout reactions. Proton-induced one-proton knockout reactions are described within the standard distorted-wave impulse approximation (DWIA) framework, while deuteron-induced one-proton knockout reactions are treated with a new approach, DWIA-BU, that incorporates deuteron breakup into the DWIA. The ratios calculated with the DWIA-BU reproduce the experimental data reasonably, whereas those with the DWIA…
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Taxonomy
TopicsNuclear physics research studies · Advanced Chemical Physics Studies · Nuclear reactor physics and engineering
