This paper formalizes a novel algorithmic approach to gravity, defining it not as a fundamental force, but as a geometric resultant of quantum node frequency density. By deriving mass (m) through the interaction of Planck’s constant (h), frequency (f), and the quantum surface area (λ²), we establish a mathematical framework where classical mechan-ics (F = ma) and the universal gravitational constant (G) emerge from spatial-temporal oscillations.