  $\gamma$-ray angular distributions help assign spin and parity to excited
energy levels in nuclei. The spectroscopy of $^{94,96}$Sr studied through the
single neutron transfer reactions with $^{95}$Sr beam in inverse kinematics
[$^{95}$Sr(d,p)$^{96}$Sr; $^{95}$Sr(d,t)$^{94}$Sr] revealed a rich nuclear
structure with many excited states. While the spin-parities were assigned to
low lying states through techniques like particle angular distributions and
angular momentum transfer, those for higher lying states were ambiguous. The
goal of this project is to develop the Gamma-ray angular distributions and
correlations techniques to assign spin-parity to these states. In this work,
the $\gamma$-ray angular distributions for 815 keV transition from the first
excited state to ground state $(2^{+} \rightarrow 0^{+})$ in $^{96}$Sr are
measured. The alignment of this state is calculated from these measurements and
compared to the theoretically calculated alignment for this state which is
determined by coupling the spins of reactants and the orbital angular momentum
transfered. The values agree within experimental limits justifying the
technique. It is then applied to some other transitions and important results
are discussed. Angular correlations cannot be performed with this data since
statistics turn out to be limiting factor at the crystal level.
