S. Schielke

Dominant ( g 9 / 2 ) 2 neutron configuration in the 4 1 + state of Zn 68 based on new g factor measurements

The g factor of the 4 + state in 68 Zn has been remeasured with improved energy resolution of the detectors used. The value obtained is consistent with the previous result of a negative g factor thus confirming the dominant 0g9/2 neutron nature of the 4 + state. In addition, the accuracy of the g factors of the 2 + , 2 + and 3 − states has been improved and their lifetimes were well reproduced. New large-scale shell model calculations based on a 56 Ni core and an 0f 5/2 1pg 9/2 model space yield a theoretical value, g(4 + ) = +0.008. Although the calculated value is small, it cannot fully explain the experimental value, g(4 + ) = 0.37(17). The magnitude of the deduced B(E2) of the 4 + and 2 + transition is, however, rather well described. These results demonstrate again the importance of g factor measurements for nuclear structure determinations due to their specific sensitivity to detailed proton and neutron components in the nuclear wave functions.

Low-level structure of Ge-70 from lifetime and g-factor measurements following alpha transfer to a Zn-66 ion beam

The

Dominant(g9/2)2neutron configuration in the41+state ofZn68based on newgfactor measurements

g

Dominant (g{sub 9/2}){sup 2} neutron configuration in the 4{sub 1}{sup +} state of {sup 68}Zn based on new g factor measurements

factor of the

Measurements ofgfactors and lifetimes of low lying states in58–64Niand their shell model implications

{2}_{1}^{+}

Evidence for 40Ca core excitation from g factor and B(E2) measurements on the 21+ states of 42,44Ca

state in

Experimental g factors and B(E2) values in Ar isotopes: Crossing the N=20 semi-magic divide

^{70}\mathrm{Ge}

First measurement and shell model interpretation of the g factor of the 21+ state in self-conjugate radioactive 44Ti

was remeasured using a different experimental approach. Furthermore, for the first time an experimental value (although with a large uncertainty) was obtained for the

Nuclear structure of the first 2{sup +} state in radioactive {sup 68}Ge based on g factor and lifetime measurements

g

Nuclear structure of the stable even-A calcium isotopes based on new experiments and shell model calculations

factor of the