TITLE:
Paper II in the NMSI_CMB Series: BH as Gravitational Information Nodes (DZO), the Absence of Hawking Radiation, & the Cosmic Microwave Background as the Dynamic Equilibrium Operator of PON-C
AUTHORS:
Sergiu Vasili Lazarev
KEYWORDS:
Gravitational Information Nodes, NSI, DZO Baryonic Phase Inversion, CMB Thermal Deficit, PON-C Cosmological Re-Injection, Λeff Re-Injection Pressure, HDQG Dissipative Tensor, Kuramoto Synchronization, Covariant DZO, Cosmological Constant, Cyclic Universe, Riemann Zeros, Fibonacci Multipoles, Planck PR3 Experimental Results, Mathematical Fortress
JOURNAL NAME:
Journal of High Energy Physics, Gravitation and Cosmology,
Vol.12 No.4,
September
16,
2026
ABSTRACT: We construct a mathematical fortress in five layers that leads with logical necessity to three interconnected conclusions: 1) gravitational singularities are structurally prevented within the NMSI informational substrate; 2) the Cosmic Microwave Background (CMB) is not a cosmological fossil but the unique, necessary, and dynamically active equilibrium operator between Gravitational Information Nodes (Noduri de Saturatie Informationala, NSI) and observable baryonic matter, generated continuously by a dissipative phase-transition mechanism; 3) the effective cosmological constant Λeff is not a geometric property of spacetime but the re-injection pressure of this closed informational circuit, resolving the 10122 fine-tuning problem. The CMB temperature derived from first principles:
T
∗
=
ℏ
H
0
γ
1
k
B
⋅ln(
R
gen
/
α
fund
)
≈2.729 K
(Theorem Ω)agrees with the observed value 2.7255 K to within 0.13%. The fundamental architectural parameter αfund ≈ 2.142 and the effective generational ratio Rgen ≈ 5.26 are both derived as solutions of transcendental equations involving ζ’(-1)/ζ(−1) and ζ’(0)/ζ(0)—no free parameters are involved. Complete numerical verification is provided in Appendix A. The HDQG dissipative tensor is derived from the effective action of the informational substrate by a symmetry principle: it is the unique rank-2 tensor constructed from the informational entropy current
J
I
μ
that conserves the current and has correct parity. The stochastic noise term of the Kuramoto network satisfies the generalized Einstein relation D = kBT*/ηI, completing the thermodynamic picture. The correspondence ℓ ↔ γℓ between CMB multipoles and Riemann zeros is derived explicitly from the angular scaling of the RON. The Universe is demonstrated to be cyclic with period Tcycle ≈ 27.2 Gyr derived from the first Riemann zero spacing. Within the NMSI framework, all observed effects attributed to dark matter and dark energy emerge as manifestations of the RON substrate; additional hypothetical particle species are not required—the Universe contains only baryonic matter and the RON (Riemann Oscillatory Network) informational substrate. Ten falsifiable predictions are presented with numerical values, time windows, and specific observational instruments. Three appendices provide complete numerical verification of all key parameters. Chapter 12 presents the first experimental confrontation of NMSI predictions with Planck PR3 CMB data: Prediction P3 (CMB thermal deficit around supermassive black holes as DZO) is preliminarily confirmed (r = −0.365, p N=30 AGN/SMBH, CI 95% exclusively negative). Predictions P7 and P9 are below the current Planck instrumental detection threshold; dedicated tests with SPT-3G and CMB-S4 are planned for 2026-2030. The NMSI framework has not been falsified.