The higher number of dissociations detected by CTY-TAD is in most cases a result of the high temperatures, but also a result of its behavior at dividing surfaces. Upon crossing a previously identified dissociation DS or a hydrogen dissociation DS that was initially entered in CTY-TAD's reaction database, CTY-TAD typically reverses the velocities of the atoms which are contributing to the connectivity change. However, in the event that the system remains in the product region, CTY-TAD resets the geometry and the velocities of the active atoms are reversed once more enabling the system to attempt another crossing of the same DS. This behavior can repeat multiple times in quick successions until additional bonds break and new products are found. In our study, many of the dissociations with three products produce a hydrogen radical, suggesting that a simple hydrogen dissociation occurred earlier in the simulation that triggered the behavior of CTY-TAD described above.