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Transfer reactions like  AX(d,p)A+1 X are a powerful tool  to investigate nuclear structure properties (see e.g. [1–3]) and the emergence of  radioactive beams with high intensity will allow the use of this kind of reactions to  study the properties of exotic nuclei. Nevertheless the analysis of reactions involving  deuteron remains a difficult task because of its weakly bound and composite features. To  overcome these issues, R.C. Johnson et al [4] and G.H. Ratwitcher [5]  proposed in the seventies the Continuum Discretized Coupled Channels (CDCC) formalism  which explicitly takes into account the composite property of the deuteron and includes  the effects on cross sections of the coupling between the breakup and the deuteron ground  state channels. Since then the CDCC approach has been widely studied [6–8] and it has been  quite successfully applied to analyse elastic [7–9] , inelastic [8,10] and transfer cross  sections [11–13]. In this contribution, I will propose to re-analyse transfer reactions by  the means of CDCC+adiabatic approach for a set of targets with N = 20 or  N ≈ 28. I will show that with this approach, using both the  differential cross sections and the vector analysing powers one can determine the orbital  angular momentum and the spin of the captured nucleon without any adjustment

Analysis of cross sections and Vector Analysing Powers of (d,p) reactions within the CDCC+DWBA approach.