E. Prasad

Effect of fissility in fission time scales for 16,18O+194,198Pt systems

The pre-scission neutron multiplicities have been studied for 16,18O+194,198Pt at 50, 61, 71.7, 79 MeV excitation energy populating 210,212,214,216Rn compound nuclei having fissility 0.735, 0.732, 0.729, 0.726 respectively. Fission Time scales were extracted from the measured pre-scission neutron multiplicity and statistical model PACE2. The effect of fissility on fission time scales has been measured. It is found that fission time scales increases in a consistent way with fissility of the compound nuclei (CN) populated. The fission delays extracted for different CN are in good agreement with earlier published data for heavier systems [1, 2]. In the present work it is shown systematically that the fission time scales generally increases with fissility value of CN.

Probing Quasifission In Reactions Forming Rn Nucleus

We studied the competition between fusion and quasifission by populating the compound nucleus (CN)

Competition between Fusion and Quasi-fission in the Formation of Super-heavy Elements

^{210}

Conclusive evidence of quasifission in reactions forming the 210 Rn compound nucleus

Rn through different entrance channels -

Evaporation residue excitation function from complete fusion of {sup 19}F with {sup 184}W

^{16}

Effect ofN/Zin pre-scission neutron multiplicity for16,18O+194,198Pt systems

O+

Asymptotic and near-target direct breakup ofLi6andLi7

^{194}

Evaporation residue excitation function measurement for the16O+194Ptreaction

Pt and

Exploring quasifission characteristics forS34+Th232formingSg266

^{30}

Observation of mass-asymmetric fission of mercury nuclei in heavy ion fusion

Si+