Entanglement Network Gravity: Microscopic Dynamics and the Origin of Dark Energy, Mass, and Time

Entanglement Network Gravity treats spacetime as emergent from the correlation structure of a single self-entangled quantum field, and its foundation paper recovers static gravity from the local entanglement density. Here we develop the microscopic dynamics of the underlying network and follow their consequences. From one axiom, a lone self-entangled field with a vacuum, we show that the ground state is forced to be a flat, trivalent, two-dimensional torus, and that its sole local order parameter is a scalar correlation density supplying a single emergent dimension of depth, which serves simultaneously as the dilaton of a broken scale symmetry and as the axis of particle mass. We show that the network is compelled to rewire not by assumption but by the monogamy of entanglement, which caps every vacuum bond below saturation and leaves it in a state that cannot remain stationary, so that the perpetual reconnection, and with it the flow of time, is a consequence of the ground state itself. A single principle, that a node acts only on distinctions it can resolve, splits the rewiring into two protocols: the featureless vacuum refreshes its three identical bonds together, while a knot, whose bonds are distinguishable, refreshes them one at a time in a make-before-break order that fixes a two-to-one ratio of held to swapping bonds and renders each swap a decoherence event. We argue that the counting of these reconnections constitutes time itself, and that both gravitational and kinematic time dilation follow from a single accounting of a finite reconnection budget, with the Lorentz factor recovered exactly. Our central result concerns the vacuum energy. We propose that the Planckian energy predicted by quantum field theory is real but locked, the structural tension of the weave, and that observed dark energy is the slow leak from this reservoir, released one reconnection at a time, the same relaxation that drives cosmic expansion. Integrated over the age of the universe, the leak reproduces the measured dark-energy density with no adjustable parameter, predicting an energy scale near 2 meV against an observed value of about 2.3 meV, and requiring a dynamical, evolving equation of state rather than a cosmological constant. Inertial mass emerges as a rate, the reconnection frequency of a knot, identified with the Compton frequency. We indicate how the framework grounds the matter sector and the interiors of black holes, treated in companion work, and we state the framework's open problems, foremost the absolute mass scale, explicitly and without concealment. This is the second of three papers developing Entanglement Network Gravity. It builds on the foundation paper (DOI 10.5281/zenodo.21266310) and provides the microscopic basis for the matter sector treated in the companion paper (DOI 10.5281/zenodo.20771739).