AbstractWithin the framework of the Unified Wave Cosmological Model (UWCM), spacetime (theStratum) is a discrete quantized network, and its active boundary (the SGW) is the carrierof information about the state of the system. In previous works (Slavutsky, 2026e, DOI:10.5281/zenodo.19516683; Slavutsky, 2026d, DOI: 10.5281/zenodo.19431683), it was shownthat the mass of black holes (Stratum anchors) is quantized: M = N · mP, where mP is thePlanck mass, and a black hole classifier has been constructed.In the present work, this quantization is extended to the dynamics of the entire system.The work is hypothetical and heuristic in nature. A rigorous derivation of the presented relations requires further formalization, in particular, the construction of the Stratum equation(Slavutsky, 2026h, DOI: 10.5281/zenodo.19518993). It is shown that:1. The energy transferred by the SGW to the Stratum at the moment of the “WhiplashImpact” (and back—during the “Return”) is transferred in portions that are multiples of thePlanck energy EP = ℏc5/G. 2. The information recorded on the SGW is quantized with aminimal bit corresponding to the Planck area: ∆S = kB ln2·(4l2P), which directly correspondsto the Bekenstein-Hawking holographic principle. 3. The Stratum framework (the bond energyεij between nodes) also changes discretely, with a step εP related to EP via the coordinationnumber of the network.Adirect connection is established between mass quantization, energy transfer quantization,and the holographic principle. The SGW is interpreted as a holographic screen on which thestate of the Stratum is recorded, and black holes—as nodes that accumulate “frozen” energyquanta for subsequent return to the SGW. The work offers testable predictions for cosmology(quantized structure of the cosmic microwave background) and astrophysics (discrete spectrumof gravitational waves from Stratum collapse, neutrino correlations for super-active anchors).
Gleb Slavutskiy (Sun,) studied this question.