The influence of 2p - 1h configurations on the low-lying states of 51Ti

Glover, R.N.; Denning, A.; Brown, G.E.

doi:10.1016/0370-2693(68)90229-3

Cited by 26 publications

(2 citation statements)

References 6 publications

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“…There are two 7/2 − states in 51 Ti at relatively low energies (1437 and 2691 keV). However, both states are seen strongly in the 49 Ti(t,p) reaction [23], which provides convincing evidence that their structure can be described as a pair of p 3/2 neutrons coupled to spin zero coupled to an f 7/2 neutron hole. Furthermore, these states are only weakly populated in the present (d,p) experiment.…”

Section: Single Neutron Energies In 51 Timentioning

confidence: 72%

“…A measurement of the 49 Ti(t, p) 51 Ti reaction could, in principle, conclusively determine whether these states have J π = 5/2 − or 7/2 − . Unfortunately, the study reported in [23] only observed states up to 3.0 MeV. It is clear that this reaction should be revisited, this time with access to higher excitation energies.…”

Section: Single Neutron Energies In 51 Timentioning

confidence: 99%

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$^{50}$Ti($d$,$p$)$^{51}$Ti, single neutron energies in the $N=29$ isotones and the $N=32$ subshell closure

Riley,

Nebel-Crosson,

Macon

et al. 2021

Preprint

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A measurement of the 50 Ti(d,p) 51 Ti reaction at 16 MeV was performed using a Super Enge Split Pole Spectrograph to measure the magnitude of the N = 32 subshell gap in Ti. Seven states were observed that had not been observed in previous (d,p) measurements, and the L transfer values for six previously measured states were either changed or measured for the first time. The results were used to determine single neutron energies for the p 3/2 , p 1/2 and f 5/2 orbitals. The resulting single neutron energies in 51 Ti confirm the existence of the N = 32 gap in Ti. These single neutron energies and those from previous measurements in 49 Ca, 53 Cr and 55 Fe are compared to values from a covariant density functional theory calculation.

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Section: Single Neutron Energies In 51 Timentioning

confidence: 72%

Section: Single Neutron Energies In 51 Timentioning

confidence: 99%