Nuclear physics with TriSol at Notre Dame’s Nuclear Science Laboratory

T. Ahn, D.W. Bardayan, D. Blankstein, C. Boomershine,M. Brodeur, S. Carmichael, S. Coil,J.J. Kolata, P.D. O’Malley, W. Porter, J.S. Randhawa, F. Rivero, J. Rufino,W.W. von Seeger, R. Zite

Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms(2023)

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Abstract
The detailed study of radioactive nuclei has resulted in opportunities for addressing many open questions in low-energy nuclear physics. For over three decades, the TwinSol separator at the University of Notre Dame has produced high-quality in-flight radioactive beams at low-energy for light isotopes that have been used in experiments aimed at nuclear structure, astrophysics, and fundamental symmetries studies. We have recently upgraded the TwinSol separator by adding additional elements: a dipole magnet, and a third solenoid. This new TriSol separator will improve the quality and purity of future radioactive beams. This improvement will enable the use of heavier beams and address beam contamination that has hindered past experiments. The current status of TriSol and its science program will be presented along with the role the TriSol program plays in the current landscape of nuclear physics user facilities. The TriSol program includes plans for studies of 11C(p, p)11C reaction for investigating the nature of the first stars, 14O(α, p)17F and its influence on reaction networks in X-ray bursts, the measurement of fusion reactions on Ne isotopes important for pycnonuclear reactions, precision half-life measurements for fundamental symmetries studies, and the use of TriSol as a magnetic spectrometer.
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Key words
Radioactive beams,Solenoid spectrometer
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