In DRUMS, gravity emerges from interactions with the coherent superfluid field that fills space:
Objects generate local phase distortions in the superfluid, which mediate effective gravitational attraction.
The effective gravitational acceleration arises from phase gradients:
Where \(\theta\) is the phase field induced by mass distributions.
From superfluid dynamics, the mass density \(\rho_m\) satisfies:
Here, \(\Phi_{grav} \sim \hbar/m \, \nabla^2 \theta\), reproducing classical Newtonian gravity.
Objects follow geodesic-like paths in the superfluid-induced potential:
This recovers Keplerian motion and elliptical orbits in planetary systems.
Nonlinear phase distortions produce corrections analogous to General Relativity:
Explaining perihelion precession, light bending, and gravitational time dilation.
Time-dependent phase perturbations propagate as waves through the superfluid:
These correspond to gravitational waves traveling at the superfluid phase speed \(c_s \approx c\).
Superfluid-mediated interactions naturally explain:
Gravitational potential energy is stored in superfluid phase configuration:
Conservation of total energy includes kinetic, potential, and superfluid field energy.
Within the DRUMS framework, gravity is fully explained as:
The framework unifies gravity with superfluid dynamics at both local and cosmic scales.