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Spectroscopic factors to low-lying negative-parity states in $^{11}$Beextracted from the $^{12}$B($d$,$^3$He)$^{11}$Be proton-removal reaction areinterpreted within the rotational model. Earlier predictions of the $p$-waveproton removal strengths in the strong coupling limit of the Nilsson modelunderestimated the spectroscopic factors to the $3/2^-_1$ and $5/2^-_1$ statesand suggested that deviations in the $1^+$ ground state of the odd-odd $^{12}$Bdue to Coriolis coupling should be further explored. In this work we use theParticle Rotor Model to take into account these effects and obtain a gooddescription of the level scheme in $^{11}$B, with a moderate $K$-mixing of theproton Nilsson levels [110]1/2 and [101]3/2. This mixing, present in the $1^+$bandhead of $^{12}$B, is key to explaining the proton pickup data.

Coriolis coupling effects in proton-pickup spectroscopic factors from $^{12}$B