When does an impacting drop stop bouncing?

Non-wetting substrates allow impacting liquid drops to spread, recoil, and takeoff, provided they are not too heavy (Biance et al. 2006) or viscous (Jha 2020). In this article, using direct numerical simulations with the volume of fluid method, we investigate how stresses gravity conspire against capillarity inhibit drop rebound. Close bouncing non-bouncing transition, evidence that initial spreading stage can be decoupled from later retraction allowing understand rebound as a process converting surface energy spread into kinetic energy. Drawing an analogy coalescence induced jumping, propose criterion for transition regime, namely by condition $Oh_c + Bo_c \sim 1$, where $Oh_c$ $Bo_c$ Ohnesorge number Bond at respectively. This is in excellent agreement results. We also elucidate mechanisms inhibition limiting regimes calculating budgets relating them drop's shape internal flow.