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Energy dissipative processes play a key role in how quantum many-body systemsdynamically evolve towards equilibrium. In closed quantum systems, suchprocesses are attributed to the transfer of energy from collective motion tosingle-particle degrees of freedom; however, the quantum many-body dynamics ofthis evolutionary process are poorly understood. To explore energy dissipativephenomena and equilibration dynamics in one such system, an experimentalinvestigation of deep-inelastic and fusion-fission outcomes in the$^{58}$Ni+$^{60}$Ni reaction has been carried out. Experimental outcomes havebeen compared to theoretical predictions using Time Dependent Hartree Fock andTime Dependent Random Phase Approximation approaches, which respectivelyincorporate one-body energy dissipation and fluctuations. Excellentquantitative agreement has been found between experiment and calculations,indicating that microscopic models incorporating one-body dissipation andfluctuations provide a potential tool for exploring dissipation in low-energyheavy ion collisions.

Exploring Zeptosecond Quantum Equilibration Dynamics: From Deep-Inelastic to Fusion-Fission Outcomes in $^{58}$Ni+$^{60}$Ni Reactions