The standard framework of cosmology requires evaluating the quantum entanglement of primordial Planck bosons at a same quantum state. A thermodynamic feedback becomes evidence trough the Hubble’s law emanating from the comoving volume, responding to the coupling of the flow energy with the imprinted dimensionality of the space-time. The pair formation in which coherence between same quantum states will manifested in an oscillatory superposition. Therefore, two almost simultaneous positions displace a wavelength value. Thus, a small identical time shapes space-time, separating the event-distance between the interactions of two photons. Hence, the energy flow at the microscopic level aligns the evolution into homogeneous phases, indicating the presence of a regulatory process over expansion connected to the universe age under flatness. The distension-contraction due to the interference of the pair of photons (or electrons) involves a sum of angular moments, at the instant of the vector re-configuration of the electric and magnetic fields. Therefore, the transitory wavelength of the photon pair superposition can be characterized by two exclusive states: constructive (distension of the E field) or destructive (contraction of the E field). Quantum entanglement acts as a dissipative coherence-decoherence oscillatory potential, with momentum conservation between rest and inertial mass. Thus, this moderates the increase in entropy as a function of the bottleneck that is the velocity of light: c, and preserving the balance between open and closed curvatures, that is, flatness of the expansion.