Flux Field Theory (FFT) proposes that gravity is not a fundamental force but an emergent phenomenon arising from quantum fluctuations of the Aether Field \( \rho_A \). This section highlights the most important equations related to emergent gravity in FFT, which connect quantum field theory to cosmological dynamics.
This path integral describes how quantum fluctuations of \( \rho_A \) give rise to emergent gravitational effects at macroscopic scales. The interaction term \( \mathcal{L}_{int}(\rho_A) \) introduces self-interactions that lead to spacetime correlations.
The effective metric \( g_{\mu\nu}^{eff} \) emerges from the expectation value of \( \rho_A \) correlations, defining a classical spacetime geometry from quantum fluctuations.
This equation governs emergent gravity, where \( \Lambda_R(\mu) \) is the running gravitational coupling, and \( G_{eff} = \frac{1}{M_{Pl,eff}^2} \) is the effective gravitational constant derived from \( \langle \rho_A \rangle \).
Describes cosmic inflation driven by \( \rho_A \) vacuum fluctuations, with \( \phi = \rho_A / \rho_c \) acting as an effective inflaton field, testable via CMB power spectrum shifts.
These equations highlight FFT’s approach to quantum gravity, where the Aether Field \( \rho_A \) bridges quantum field theory and general relativity, offering a novel perspective on the emergence of spacetime and gravitational interactions.