Our goal is to sample execution times of different operations within each timestep in all simulations. The NAMD simulations were done with surface hopping (SH), a popular approach based on independent trajectory simulations, which accounts for nonadiabatic effects by allowing each trajectory to decide stochastically on which PES dynamics is propagated on each integration time step. We ran two SH trajectories of fulvene starting from different initial conditions with Newton-X NS version 3.5.1, accounting for two electronic states, S0 and S1. Fulvene has been chosen because it is a standard test molecule of novel nonadiabatic methodologies. These trajectories were executed five times to ensure the consistency of the recorded computational times. Each trajectory ran for 60 fs using a time step of 0.1 fs, totaling 601 timestep evaluations per trajectory or 6010 timesteps overall. The stochastic jumping between states was evaluated with decoherence-corrected fewest-switches surface hopping with time-dependent Baeck-An 24 couplings.