This paper presents a novel gravitational model grounded in Chronos Theory, a framework that treats time as a structured, energetic field. Rather than modeling gravity as a force mediated by hypothetical particles such as gravitons, we propose that gravitational effects emerge from gradients in time field pressure induced by mass density. We derive gravitational acceleration from the spatial derivative of this temporal pressure and show that the resulting behavior generalizes Newtonian gravity while naturally extending to relativistic and quantum domains. Our model introduces a tunable exponent β\betaβ to account for nonlinear feedback and clustering effects in the time field. Simulation graphs demonstrate how temporal tension scales with density and distance, supporting the view that matter flows along compressed timelines rather than falling through curved space. This work unifies inertial mass, gravity, and quantum decay through the structured modulation of time, providing an elegant and deterministic alternative to graviton-based theories. It is part of the broader Chronos-HOPE framework, which seeks to explain mass, expansion, and entropy as emergent properties of time.