δ(ε q−ε g)=0 — Ω Synthesis: The Resolution of the Hypothesis of Correlational Disequilibrium (HDC–CBC/Ω)

Preface of HDC-CBC/Ω This volume Ω arises as a structural synthesis of the entire path covered by the HDC–CBC hypothesis. It does not seek to rewrite the seven previous volumes, but rather to condense their content into an operational, comprehensible, and testable form for any reader who wishes to put the model to the test. The objective is twofold. On the one hand, to offer a clear overview of the correlational framework: what HDC–CBC exactly is, what its fundamental equations are, and how it articulates with General Relativity and quantum physics. On the other hand, to show in an orderly manner what the model already achieves with its classical formulation with fixed C: which cosmological tensions it alleviates, which observables it respects, and which strong predictions it puts on the table. At this stage, Ω does not yet introduce additional free parameters nor “flexibilized” versions of the model. On the contrary, it relies on the most restrictive version of HDC–CBC, the one that works with a fixed set of parameters and with a basal correlation C that is not adjusted a posteriori. This was the philosophy of QRPTON: to test to what extent the hypothesis holds when it is denied the temptation of fine-tuning and forced to operate under a criterion of maximum rigidity. The result of this exercise is significant: even with fixed C, HDC–CBC reproduces with high precision a ΛCDM-like expansion history, offers a unified geometric and correlational interpretation, and provides a very concrete pattern of predictions: • an effective Hubble constant in the range H₀ ≈ 69–72 km/s/Mpc, with a reference value of 70.1 ± 1.3 km/s/Mpc in the parameter table of the main volume;• a mildly suppressed structural growth that pushes σ₈ and fσ₈ toward moderate values, aligned with LSS and lensing measurements;• a low ISW effect and an effectively dynamical dark energy, with w(z) very close to −1 but not strictly constant. The only major tension that remains clearly open in this rigid scenario is the fine discrepancy in H₀ between early-universe reconstructions (Planck-like) and local measurements (SH0ES-like). HDC–CBC, with rigid C, naturally settles at an intermediate, elevated but not extreme value; it does not force a full reconciliation, but it does suggest toward which region of parameter space the solution should converge. Ω starts from this observation: even before introducing Cₜ, the model was already performing remarkably well. The extension with variable Cₜ appears later, not as an excuse to salvage a failure, but as an almost inevitable consequence of taking seriously the information that HDC–CBC itself was returning when confronted with the data. This volume is therefore organized in two stages: The classical rigid-C phase, where everything that the seven volumes already achieve is summarized and put into value: geometric coherence, quantum consistency, observational compatibility, and falsifiability. The extended phase with Cₜ, where it is explored what happens when the basal correlation is allowed to incorporate a smooth temporal dependence, and how that adjustment — limited and physically motivated — impacts primarily the H₀ tension, while leaving virtually intact the other predictions that were already working well. The reader will find, in each chapter, not only a conceptual narrative, but also an operational summary of the key formulas: sufficient for anyone with training in cosmology to implement the model numerically, confront it with data, or falsify it. Detailed derivations and complete technical developments remain in the original volumes; what is offered here is the map to traverse them with meaning.