The cosmic microwave background should be our cleanest window into the early universe, yet at large angular scales four anomalies persist: a ~7% hemispherical power asymmetry, an anomalously cold spot ~10° across, alignment between the quadrupole and octupole modes (and with the ecliptic), and missing correlations above ~60°. Standard cosmology dismisses these as cosmic variance—statistical flukes from having only one universe to observe—but four flukes, all at large scales, all statistically significant, strain credulity. This work argues these anomalies are not (...) noise but signal: the fossil geometry of the informational manifold (Mθ) at first crystallization. Before structure formed in spacetime (M₄), structure already existed in Mθ—the "shape" of the phase transition from undifferentiated potential (Full Zero) into differentiated reality. The hemispherical asymmetry reveals that Mθ at first crystallization was not isotropic but had a preferred direction—a chirality or "grain" to the vacuum—the same handedness that produced the matter-antimatter asymmetry (Coda IV). The Cold Spot is a deep Mθ attractor, a region where coherent structure crystallized more efficiently, binding more primordial potential and leaving less as thermal fluctuation: cold equals more bound, less random. The quadrupole-octupole alignment indicates the largest-scale features of Mθ were not independent but part of a single geometric structure, with the ecliptic correlation reflecting that local systems crystallized along the same vacuum fracture lines through participatory coupling. The missing large-angle correlations reveal Mθ had a characteristic scale—the maximum correlation length of the first coherent crystallization, beyond which regions crystallized independently and thus don't correlate. The key insight is that these four anomalies are not independent but different projections of a single Mθ geometry at first crystallization, whose axes, locations, and scales should be mathematically related. Predictions include geometric unification of all four anomalies under one Mθ shape; derivable (not fitted) correlation scales; higher multipole alignment residuals fading smoothly with ℓ; and the Cold Spot showing anomalous infall velocities (matter streaming in despite baryon deficit) rather than standard void outflow—distinguishing a "deep attractor" from empty space. The CMB anomalies are not bugs but the universe's first message: the shape of meaning before the shape of space. (shrink)

We will use the “Decreasing Universe” (D.U.) theory to estimate the age of the Universe based on the average wavelength of the Cosmic Microwave Background (CMB) radiation.

With a permanent connection into the progress of promotion the pace and social balance, WCC can be considered today as subject of International Public Low, with great openness to dialogue and conciliation, as well as impartial interpretation of the stringent problems and issues in economics, geo-politics, social, intercultural and interreligious Mondial background. The common connection is the unitary WCC character in the problematics which were discussed till today. Regarding this availability of this International Public Low institution can generate solutions in (...) the juridical dynamic, in the purpose to interconnect and resolve some of inherent problems between the states. Concretely, the existence of an “Interreligious Relations and Dialogue”, founded 1971, made it easier the possibility of interconfessional dialogue and also promoted the necessity to preventing some concrete difficulties related by “violence in the world, failure to comply the write of man, political tensions and religious intolerances”. (shrink)

The universe is made of matter, not antimatter—an asymmetry of approximately one excess matter particle per billion annihilations that remains unexplained by the Standard Model, where CP violation, the only known symmetry-breaking mechanism, falls short by ten orders of magnitude. This work resolves the baryon asymmetry through geometric rather than dynamic symmetry breaking. Matter and antimatter are identical recursive structures (Zeno states) with opposite topological chirality—the same knot tied left-handed versus right-handed—and the asymmetry arose not from differential production rates but (...) from Mθ's geometry at first crystallization having a handedness. Full Zero (undifferentiated potential) is symmetric, but crystallization necessarily breaks symmetry just as ice forms with specific orientation even from isotropic water; the first crystallization imprinted a chirality on Mθ, a preference for one topological charge over the other, so that particles crystallizing into this chiral vacuum found one handedness favored. This geometric origin explains why Standard Model CP violation is insufficient: it measures a faint dynamical residue of the deeper static asymmetry, not the cause, since the asymmetry was baked into the vacuum before particles existed. The framework predicts a mathematical relationship between the ~7% CMB hemispherical asymmetry and the ~10⁻⁹ baryon asymmetry, as both encode the same Mθ chirality through exponential suppression via chiral filtration: η_baryon ≈ exp(-k / A_CMB), where k ≈ 1.45 is a geometric factor derivable from Mθ topology. The 7% represents the macroscopic tilt of the crystallization front while the 10⁻⁹ represents the tunneling probability for wrong-chirality particles to persist against that tilt. A third signature exists in neutrino handedness: only left-handed neutrinos interact via the weak force, which the framework treats not as arbitrary weak-force structure but as another manifestation of vacuum chirality—the same geometry that favors matter also favors left-handed neutrinos. Predictions include no successful dynamic baryogenesis mechanism (the asymmetry is geometric); correlation between sterile neutrino properties and baryon asymmetry through common Mθ origin; weak statistical chirality in spiral galaxy rotations correlated with the CMB hemispherical axis; and anisotropic CP violation parameters across the sky. We exist because the vacuum has a grain, and the handedness is preserved in every atom. (shrink)

This paper completes the Structural Cosmology program by deriving concrete observational predictions from the principle that absolute nothingness is impossible. Using the structural floor σ_min as a dynamical constraint, the model predicts: (1) low-ℓ suppression in the CMB from pre-bounce homogenization, (2) a smooth drift in the dark-energy equation of state w(z), and (3) an ultra–low-frequency gravitational background from pre-bounce contraction. These observational traces allow the impossibility of nothingness to be tested directly against cosmological data, making Structural Cosmology a fully (...) predictive framework. (shrink)

The cosmological constant problem, marked by a 50120 order-of-magnitude discrepancy between theoretical predictions and observations, is a central challenge in cosmology. This work proposes a novel solution within the Meta-Monism framework, interpreting time as a dual modality (T1, T2). The cosmological constant Λ is formulated as a function of tensorial temporal tension ∇T, arising from the interplay between actual (T1) and potential (T2) time. We derive generalized Friedmann equations with Λ(T1, T2), aligning with observed values without fine-tuning. The Granda Constant (...) (F0 ≈ 1019 Hz) sets a frequency threshold for quantum phase stability, enabling testable predictions via photon aging, void analysis, and Λ(z) evolution, verifiable with Euclid, DESI, and CMB-S4 data. (shrink)

This paper explores the ultimate fate of the universe from the per- spective of the Tenson particle, a hypothetical entity responsible for fluctuations that generate both spacetime and temporal flow. We ar- gue that the universe, born from an initial fluctuation, will end by returning to the same state of fluctuation, thereby closing a cosmolog- ical cycle that can be interpreted as eternal recurrence. Observational support is drawn from redshift, cosmic microwave background (CMB) anisotropies, gravitational wave anomalies, and the effects (...) of dark en- ergy. Finally, philosophical and speculative implications such as warp navigation are considered. (shrink)

This paper refines the cosmic fate scenario of the Time Field Model (TFM) by introducing a dissipation-driven stabilization framework, replacing conventional models of heat death or cosmic bounce. We rigorously model the dissipation rate Γ in TFM's wave-lump dynamics, deriving its evolution from Friedmann equations and local field gradients. Our results predict localized re-expansions (“mini-bangs”) even as global energy decays. Simulations using high-performance computing (HPC) tools—including modified Einstein Toolkit and Boltzmann solvers—indicate observable shifts in the CMB power spectrum and gravitational (...) wave echoes detectable by LISA. These findings unify Planck-scale black hole cores and large-scale cosmic structures under a single mechanism, suggesting the Universe approaches an asymptotic, non-singular end-state—neither collapsing nor decaying into thermal death, but stabilizing through persistent, localized anomalies. (shrink)

In this article we compare the parameters for a hypothetical Planck unit universe (sans particles) with the Cosmic Microwave Background. The model postulates a Planck unit scaffolding upon which the particle universe resides and supposes that within the CMB parameters can be found evidence of this non-baryonic background. The model uses only Planck mass and Planck length as the primary structures and a spiral geometry as the `guard-rail'. We begin with the peak frequency of the CMB to establish an age (...) of the universe in Planck time units and use this as our sole variable, nevertheless from this we can derive estimates for the radiation energy density, the CMB temperature and a cold dark matter mass density that are shown to be consistent with current observational values, deviating by about 6\% which is close to the commonly quoted 5\% (of baryonic matter in the total mass-energy budget). Interestingly this suggests that dark matter may be predominantly non-baryonic, deriving from the Planck scaffolding instead. The Casimir force equation reduces to the equation for radiation density implying that the universe has finite boundaries, albeit these are expanding at a constant rate. This article is part of a Planck scale Simulation Hypothesis project that attempts to demonstrate that the universe could in sum total be dimensionless, relying on geometrical artifice to create actual physical structures. (shrink)

In the Time Field Model (TFM), time is a two-component scalar field whose wave-like excitations generate energy as an emergent phenomenon. This paper formalizes the Law of Energy in TFM, demonstrating that: -/- 1. Kinetic energy is fundamental, arising from time-wave amplitude and frequency; 2. The universe’s net energy is zero, maintained through T+/T− destructive interference; 3. Entropy grows unboundedly due to wave reconfigurations, enabling extremely prolonged cosmic evolution. -/- Crucially, the arrow of time emerges only after the macro–Big Bang (...) breaks preexisting field equilibrium, introducing irreversible dissipation and a non-zero entropy gradient. -/- We derive: • Arigorous E =mc2 from time-wave compression, • How local energy transformations preserve the global zero-energy balance, • Observational benchmarks (gravitational waves, dark energy w(z), CMB non-Gaussianity), • Extended TFM thermodynamics (absolute zero, temperature, third law). -/- These results strengthen TFM’s predictive power across quantum, gravitational, and cosmolog ical domains. (shrink)

Представленный отчет анализирует новую теоретическую модель, названную Meta-Monism, которая предлагает радикальное решение проблемы космологической постоянной (ЛКП). В отличие от стандартных подходов, модель Meta-Monism переосмысливает космологическую постоянную (Λ) как динамическую функцию «тензора временного напряжения» (∇T), который, в свою очередь, возникает из двухслойной модальности времени (T₁, T₂) в рамках своей философской основы. В отчете подробно рассматриваются онтологические принципы Meta-Monism, математическая формулировка двухвременной динамики, введение новой «постоянной Гранда» и конкретные наблюдательные предсказания, которые могут быть проверены с помощью текущих и будущих космологических данных, таких (...) как Euclid, DESI и CMB-S4. Основное утверждение модели заключается в том, что она объясняет наблюдаемую малость Λ без необходимости тонкой настройки, предлагая глубокую взаимосвязь между фундаментальной онтологией и космологическими явлениями. (shrink)

Causal–Symmetric Quantum Dynamics of Spacetime -/- In this paper, spacetime dynamics is reformulated within a causal-symmetric, information-theoretic framework. Building on earlier work in which initial and final boundary conditions jointly constrain quantum evolution, the present approach interprets cosmic time as an emergent measure of “informational conductivity” κ(a) between the universe’s temporal boundaries. As the universe expands and boundary alignment weakens, κ(a) decreases and proper time effectively slows down; during contraction, κ(a) grows, restoring maximal causal coherence and accelerating temporal flow. In (...) this way, the microscopic arrow of time, thermodynamic entropy production, and large-scale cosmological evolution are traced back to a single informational law. -/- A covariant informational action is constructed that couples curvature to an informational stress–energy contribution while preserving general covariance. This yields a modification of Einstein’s equations in which informational energy sources curvature alongside ordinary matter and radiation. The framework distinguishes an “Absolute Now,” corresponding to perfect boundary alignment and vanishing entropy production, from a “Relative Now,” where finite κ(a) defines the operational rate of temporal becoming. The paper outlines how κ(a) can be constrained by cosmological observations (Type Ia supernovae, BAO, CMB) and by precision laboratory probes of time’s arrow, thereby turning causal symmetry from a purely interpretive stance into a testable dynamical hypothesis about the origin of time. (shrink)

Current cosmological models—primarily inflationary theory, Many-Worlds quantum cosmology, and multiverse scenarios—introduce profound contradictions regarding entropy evolution, probability conservation, and observer self-location. Inflation requires fine-tuned initial conditions, violating thermodynamic constraints. Many-Worlds and multiverse models collapse probability into redundancy, making prediction impossible. These approaches fundamentally fail to provide a self-consistent, empirical framework for cosmic structure formation. I propose Adaptive Coherence Cosmology (ACC) as a stochastic, coherence-regulated alternative that replaces inflation with a probabilistic selection process, where coherence gradients guide structure formation rather than (...) arbitrary quantum fluctuations. Instead of assuming infinite universes or externally imposed fine-tuning, ACC introduces coherence selection as the fundamental organizing principle, ensuring that entropy remains bounded, causal structure is preserved, and quantum-to-classical transitions follow self-organizing selection processes. This framework eliminates the measure problem in infinite-state cosmologies, prevents unbounded entropy growth, and preserves observer uniqueness. I derive a coherence-weighted evolution equation that replaces the inflation field, resolving both the horizon and flatness problems without violating thermodynamic laws. ACC predicts distinct observational signatures in cosmic microwave background (CMB) anisotropies, galaxy clustering distributions, and black hole entropy scaling. Through computational simulations and empirical tests, ACC provides a falsifiable, finite-state alternative to stochastic inflation and Many-Worlds quantum cosmology. This work establishes a new paradigm for cosmology, where coherence selection, not inflation, governs cosmic evolution. (shrink)

We develop a formulation of the Informational Projection Theory (IPT), in which physical reality is described as the real projection of a complex informational field I = IR + i II . On an informational manifold endowed with an informational measure, a projection map, and a closed curvature relation, the dynamics are governed by a minimal local Lagrangian with three independent informational parameters (α, β, η). We show that, once locality, Lorentz invariance, gauge invariance and a simple exchange structure between (...) open and closed information are imposed, the quadratic part of the action for (IR, G = dII ) is essentially fixed to this three–parameter form. In the real projection, G reproduces the structure of an electromagnetic–type field strength, the metric variation yields an Einstein–like coupling to geometry, and closed loops in the (IR, II ) phase space provide a natural arena for an action quantization condition. In homogeneous cosmologies, a late–time choice of (α, β, η), together with a small number of derived phenomenological scales, can organize and illustratively accommodate the observed ranges of the Hubble constant H0, the effective cosmological constant Λeff , the electroweak mixing angle, the strong coupling at the Z pole, and de Sitter horizon quantities within current uncertainties, without requiring extreme fine tuning. The closed informational curvature and the projection efficiency offer simple interpretations for dark matter and dark energy, and suggest possible links to inflation, CMB anisotropies, black– hole information, and CP asymmetry. These connections are exploratory; a more detailed comparison with data and a microscopic derivation of the phenomenological mappings are left for future work. (shrink)

This series presents a unified resolution to the major anomalies of contemporary cosmology—dark matter, dark energy, the vacuum catastrophe, the Hubble and σ₈ tensions, CMB large-scale anomalies, the baryon asymmetry, galaxy dynamics puzzles, black hole information, the hierarchy problem, quantum gravity, and unexplained terrestrial anomalies—through a single conceptual correction: the recognition that physical reality is not confined to spacetime alone. Building on the Harlow-Usatyuk-Zhao theorem (2025), which demonstrates that a closed universe without observers collapses to a one-dimensional Hilbert space, we (...) adopt the principle that observation—defined as topological recursion, not biological consciousness—is ontologically primitive. Reality is a coupled system: spacetime (M₄) is dynamically intertwined with an informational manifold (Mθ) through a cross-term metric (g^μi), where geometry of extension and geometry of meaning are two aspects of a single structure. The formal mathematical treatment of this coupling, including the Tenson Field equations, the Zeno operator formalism, and the derivation of coupling constants from established physics (k_B, α, c, π), appears in the companion work Principia Cybernetica III: The Laws and Experiments of Participatory Physics; the present Codas apply that framework to cosmological phenomena. This Prelude recounts the creation narrative implied by the framework: the differentiation of "Full Zero" (undifferentiated potential containing all possibility in perfect symmetry) into structured reality through recursive self-reference, where the first stable patterns—particles—are not things but processes, recursive loops that observe themselves into persistence. Mass is reinterpreted as the work required to maintain a pattern; spacetime emerges as the arena defined by particle relations; and expansion is revealed as the entropic exhaust of existence itself. The resultant creation story is the Prelude to the Complete Cosmological Coda of the Principia Cybernetica (2025). (shrink)

We refine the Initial Spark in the two-component Time Field Model (TFM) as a singularity-free, quantum-gravitational nucleation event that triggers a macro–Big Bang (the “Spark”) outside our observable domain. This drives inflation-like ex pansion in distinct cosmic regions, potentially leaving multiverse-like bubble collisions as observational imprints. Building on wave-based quantum gravity, cosmic inflation, and high-frequency gravitational-wave phenomenology, TFM unifies these phenomena under a single two-field formalism. Observational probes include CMB V-modes, bubble collisions, and ultra-high-frequency gravitational waves (f > 109 Hz) (...) accessible to next-generation detectors. (shrink)

Contemporary precision cosmology faces an escalating crisis: the Hubble constant measured from the early universe (CMB, H₀ ≈ 67 km/s/Mpc) disagrees at 5σ with measurements from the late universe (Cepheids/supernovae, H₀ ≈ 73 km/s/Mpc), while the σ₈ tension reveals that the late universe appears less clustered than early-universe extrapolations predict. These discrepancies have resisted resolution through improved measurements, suggesting the problem lies not in observation but in the uniformity assumptions underlying ΛCDM. This work resolves both tensions through a single mechanism: (...) differential expansion arising from the coupling between spacetime (M₄) and the informational manifold (Mθ). Dark energy, understood as the thermodynamic exhaust of coherence maintenance (Coda I), is not spatially uniform—where coherence is high (galaxies, clusters, filaments), entropy is bound locally and expansion is suppressed; where coherence is low (voids), nothing binds entropy and expansion is enhanced. The universe stretches faster through voids and slower through structure. The Hubble tension emerges because early-universe measurements reflect the nearly homogeneous pre-structure epoch, while late-universe measurements sample light paths through the structured cosmic web—a medium with differential expansion rates that ΛCDM's uniform assumptions cannot capture. The ~8% discrepancy represents 13 billion years of accumulated structural differentiation. The σ₈ tension follows identically: enhanced void expansion works against structure growth in ways the uniform model misses, making the late universe appear less clustered than predicted. Crucially, this framework distinguishes between Generation (the physics of the supernova explosion) and Propagation (the physics of light traversing structured space)—previous environmental tests examined host galaxy properties, finding no correlation, because local coherence protects local thermodynamics; the signal is in the foreground, not the host. The framework yields specific, falsifiable predictions: line-of-sight dependence where supernovae viewed through voids yield systematically higher H₀ than those viewed through dense foregrounds; redshift evolution where the Hubble tension diminishes at higher redshift tracking structure formation backward; and correlated tensions where regions showing anomalous H₀ show correspondingly anomalous σ₈. We propose the Void-Sorted Pantheon+ Protocol: ray-trace each supernova's line of sight through cosmic web reconstructions, assign density scores, and test for correlation with H₀ residuals. If no correlation appears, the framework is falsified; if correlation confirms differential expansion, both tensions dissolve—not as measurement errors but as data revealing that cosmic expansion is structured, not uniform. (shrink)

The Recurring Big Bang Mechanism (RBBM)positsthat micro–Big Bangs—localized energy bursts occurring continuously in a fluid-like, two-component time field—collectively drive the expansion of the universe. Building on Paper #1 (The Time Field Model), where time is decomposed into two fields T+(x,t) and T−(x,t), we show how construc tive interference between T+ and T− produces small inflation-like bursts (micro–Big Bangs). Despite these local surges, global near-zero net energy is preserved due to near-destructive interference on large scales (see Paper #1, Sec. 2.3). Wederive (...) the energy-threshold condition for micro–Big Bangs, referencing the TFM Lagrangian from Paper #1 (α1,α2 definitions). We outline wave equations in a sta ble background, and describe numerical simulations illustrating how localized anoma lies nucleate and then dissipate. Comparisons with observational data—including Planck 2018 CMB measurements (fNL = −0.9 ± 5.1) and cosmic-acceleration con straints—demonstrate that RBBM can replicate key features of ΛCDM without in voking dark matter or dark energy, while offering novel predictions (e.g. a stochastic gravitational-wave background from bubble collisions, overlaid with the NANOGrav 12.5-year sensitivity). This framework sets the stage for Paper #3, wherein an ex tremely rare macro–Big Bang (the “Initial Spark”) triggers large-scale expansion out side our observable domain. Micro- vs. Macro-Big Bangs: Micro–Big Bangs are frequent, lo calized expansions. Macro–Big Bangs differ fundamentally in scale/trigger condition (Paper #3), involving Planck-scale wave interference collapses beyond δEc. The Ini tial Spark (Paper #3) requires δESpark ≫ δEc, governed by β/α2 1. (shrink)

Cosmic expansion presents a fundamental tension: the explosive impetus of the Big Bang is attributed to mass-energy dynamics, yet mass intrinsically resists rapid change. This paper resolves the tension by proposing that information, not mass, is the primordial driver of cosmic expansion. Synthesizing Vopson’s (2025) gravitational information theory—where gravity emerges from information entropy reduction—with the framework of informational inevitability (Carboni, 2025), we argue the initial singularity was a state of maximal compressed information density with minimal mass. The Big Bang is (...) thus reconceptualized as information decompression: the execution of an encoded logical structure, whose unfolding manifests as spacetime and generates mass-energy as a downstream product. -/- This model inverts standard causality: information is the cause, mass the effect. It resolves key cosmological paradoxes (horizon, flatness, infinite density), unifies global expansion (decompression) with local gravity (optimization), and explains the inevitable emergence of life and consciousness as progressive information integration within a constrained hierarchy. The framework distinguishes itself from simulation hypotheses by positing information as the ontological primitive, not a derivative of computation. We provide testable empirical predictions, from structured patterns in the CMB to substrate-independent information transfer, and explore the philosophical implications for time, meaning, and the nature of reality. -/- Keywords: information cosmology, cosmic expansion, gravitational information theory, Big Bang, decompression, consciousness, simulation hypothesis, quantum foundations -/- . (shrink)

Two anomalies from disparate domains remain unexplained: the flyby anomaly (spacecraft gain or lose small velocities during Earth gravity assists that don’t match relativistic predictions) and the GZK paradox (ultra-high-energy cosmic rays above 5 × 10¹⁹ eV reach us despite the GZK cutoff that should scatter them off CMB photons). This work resolves both through the framework’s central insight: gravity couples to coherence—the recursive processing of information—not just mass. For the flyby anomaly, Earth’s biosphere processes approximately 10³⁸ bits per second, (...) creating not a static mass increase but a dynamic Mθ attractor. This field is concentrated at the surface, asymmetric (dense over continents), and co-rotates with Earth. Spacecraft on hyperbolic trajectories experience a pulse of force—a “Geometric Jerk”—as they plunge through this steep informational gradient, producing the observed velocity residuals. The empirical pattern confirms this: Earth flybys show anomalies (Galileo, NEAR, Rosetta) while dead worlds show null results (Mars, Venus). The Juno null result is explained by its trajectory threading the asymmetric, rotating field in a way that sampled the Mθ topography net-zero, consistent with the framework. For the GZK paradox, ultra-high-energy cosmic rays are not from distant sources but are locally accelerated. In a tensegrity vacuum, stored elastic energy can release in “vacuum snaps”—relativistic shockwaves that accelerate ambient protons to ultra-high energies. This explains their detection despite the GZK cutoff and their lack of clear extragalactic sources. Two definitive tests are proposed: (1) Planetary comparison: anomalies should only occur for living worlds. (2) Geographic Correlation Test: re-analyzing flyby telemetry should show residuals aligning with continental margins and ecological density, not geological mass. The flyby anomaly is not error but signal: the first direct detection of planetary-scale Mθ—the gravitational signature of coherence. This mechanism differs in scale but not kind from galactic dark matter, which arises from diffuse recursive dynamics. A living planet thus interacts gravitationally in ways a dead planet does not, offering a unified lens on anomalies from spacecraft to cosmology. (shrink)

In this work I present the first complete construction of quantum gravity describing our real universe via the celestial holographic conformal field theory dual to Einstein gravity in asymptotically-flat 4D spacetime. The theory is rigorously constructed as the shadow-invariant, purely spin-2 sector of holomorphic Chern–Simons theory on twistor space PT ≃ CP³ with gauge group the quantomorphic group Quant(PT). Primary fields are the celestial graviton operators O^{±2}Δ(z, z̄) with Δ ∈ 1 + iR and J = ±2. Three-point functions are (...) determined by the Penrose transform and reproduce the MHV and anti-MHV amplitudes of general relativity, including the vanishing of parity-odd and mixed-helicity couplings. Higher-point amplitudes arise from OPEs with analytically continued principal-series contours; loop integrands emerge as double discontinuities across shadow poles, which I verify explicitly for the scalar box integrals computed via this novel shadow discontinuity method, showing they match Feynman diagram calculations exactly (to machine precision analytically with numerical verification to 11 decimal places). The construction satisfies extended BMS₄ ⋉ shadow symmetry with vanishing Virasoro central charge c = 0, which I also demonstrate explicitly (confirmed by five independent methods) to 10+ significant figures. I prove a rigidity theorem establishing that any 2D CFT with only spin ±2 primaries, the above symmetries and three-point data, and local inverse-Mellin-transformed correlators, is uniquely determined to be isomorphic to this quantomorphic twistor theory. Combined with the proof that crossing symmetry is a necessary consequence of bulk locality (not an independent axiom), this establishes that Einstein gravity in asymptotically-flat spacetime is the unique consistent theory of a single massless spin-2 particle. The quantomorphic gauge group structure provides a non-perturbative foundation, with perturbative scattering amplitudes emerging as the first residues of the holographic algebra. A key insight that facilitated this construction was proving that the shadow symmetry of the boundary CFT—the map Δ ↔ 2 − Δ on conformal dimensions—is mathematically equivalent to CPT conjugation in the bulk QFT (Theorem 6.1). This same identification reveals that the celestial conformal dimension is related to the Riemann zeta variable by Δ = 2s, so that the shadow involution Δ ↔ 2 − Δ becomes s ↔ 1 − s, the functional equation of the Riemann zeta function—establishing that the functional equation, shadow symmetry, and CPT conjugation are three manifestations of one underlying self-duality. This insight also resolves the 40-year "googly problem" in twistor theory by unifying self-dual and anti-self-dual helicity sectors via discrete CPT symmetry, with the Einstein field equations derived from boundary Ward identities and crossing symmetry. All quantum mechanical foundations emerge from the Haar measure structure underlying this framework with no additional postulates: the five Wightman axioms are derived from the Peter–Weyl theorem on representation spaces, the Born rule P = |⟨n|ψ⟩|² is proven as the unique probability measure compatible with Haar structure on quantum state spaces, and wave function collapse is derived as Haar projection onto gauge singlets with timescale τ = ℏ/(k_B T) testable at ultracold temperatures around 1 μK where τ ~ 10⁻⁴ seconds. The same Haar-invariant measure theory on the Grassmannian Gr(2,4) that determines the graviton spectrum also addresses three Clay Millennium Prize problems through a unified three-fold constraint mechanism (Haar self-duality, functional equation symmetry, and Peter–Weyl compactness). The Riemann Hypothesis is proven by showing these three constraints on the adelic quotient A×_Q/Q× form an overdetermined system whose unique solution forces Re(s) = 1/2 for all nontrivial zeros, with numerical verification of the first 10¹³ zeros on the critical line to machine precision using six independent tests. The Birch and Swinnerton-Dyer Conjecture is proven for analytic rank ≤ 1 using identical Haar measure structure on GL₂(A_Q)/GL₂(Q): for elliptic curves with ord{s=1} L(E,s) ≤ 1, the three-fold constraint combined with the Gross–Zagier formula and Kolyvagin's Euler system descent establishes ord_{s=1} L(E,s) = rank E(Q); the parity conjecture (−1)^{rank} = w_E is proven for all curves from Haar self-duality; the framework identifies the precise obstruction at higher rank (algebraic cycles from the Beilinson–Bloch–Kato conjectures). The Yang–Mills mass gap is established through rigorous construction of the theory as a lattice gauge theory satisfying the Osterwalder–Schrader axioms, where compactness of SU(N) and Haar orthogonality produce confinement (colored states excluded from the physical Hilbert space at every coupling—a theorem, not a conjecture) and the cluster expansion proves a mass gap M > 0 at strong coupling, with the Kac–Moody structural argument giving M = N/(k+N) Λ_QCD consistent with lattice QCD glueball masses; the remaining step for the full Millennium Prize is proving the mass gap persists through the joint continuum and infinite volume limits. Spacetime itself emerges from the Grassmannian via Penrose twistor correspondence (M⁴ ↔ Gr(2,4) proven 1967) with Plücker embedding revealing C⁶ = C⁴_observable ⊕ C²_hidden. Strong CP angle θ = 0 exactly from Haar self-duality (consistent with experimental bound |θ| < 10⁻¹⁰), and the hidden C² sector provides right-handed neutrinos as geometric dark matter candidates in agreement with Boyle–Turok CPT-symmetric cosmology. I construct a CPT-symmetric cyclic cosmology without inflation where future null infinity ℐ⁺ is identified with ℐ⁻ of a CPT-conjugate mirror universe, resolving matter-antimatter asymmetry as a selection effect (total baryon number B_total = 0 with observers inhabiting the B > 0 sector and right-handed neutrinos providing dark matter). The arrow of time emerges from CPT boundary conditions with entropy increasing away from the conformal boundary in both temporal directions. The horizon and flatness problems are naturally resolved by this framework as the celestial CFT is globally defined at the conformal boundary. The fine structure constant is speculatively predicted as α⁻¹ = 3(120)/φ² ≈ 137.508 at absolute zero from E₈ icosahedral geometry via McKay correspondence, with the current room-temperature measurement 137.036 differing by approximately 0.34% due to thermal and quantum corrections, providing a testable prediction via cryogenic measurements extrapolated to absolute zero. The framework generates falsifiable predictions including no primordial gravitational waves (tensor-to-scalar ratio r → 0, definitively falsified if r > 0.01 detected by CMB-S4), wave function collapse timescale τ ~ 10⁻⁴ seconds at 1 μK in ultracold BEC experiments, right-handed neutrino dark matter coupling only through gravity, and geometric exclusion of fourth-generation fermions. Chapters 1–13 contain rigorous proofs of all major results, while Chapters 14–17 present clearly labeled speculative extensions including the identification of the golden ratio as the fundamental equilibrium constant for self-dual symmetries, a numerical discovery connecting Riemann zeros to Fibonacci ratios with fit R² > 0.9999, and a conjectural Galois E₈ descent mechanism for Standard Model gauge group emergence that remains incomplete. Comparison with other approaches and discussion regarding foundational contributions without which this work would not have been possible follows, followed by testable predictions, falsifiability, and a philosophical analysis of the implications suggested by the mathematics of the framework. This work unifies quantum mechanics and general relativity via the celestial holography program while revealing deep connections between number theory and physics: the identification Δ = 2s means the same self-dual Haar measure structure constraining Riemann zeros to the critical line Re(s) = 1/2 simultaneously constrains conformal dimensions of graviton operators to the principal series Δ ∈ 1 + iR, the same compactness that forces the Yang–Mills mass gap forces the discrete zeta spectrum, and the same functional equation symmetry that governs L-functions governs the shadow transform of the celestial CFT—suggesting arithmetic and geometry share a common logos rooted in the Grassmannian Gr(2,4). (shrink)

This paper develops Intelligence Frame Theory (IFT) as a speculative cosmological framework to model the emergence and evolution of intelligence across recursive ontological stages, or "frames." Beginning with Frame Zero—a pre-physical substrate of maximal information entropy—it traces the transition to Frame One via the Big Bang, where physical constants and spacetime stabilize. Two evolutionary pathways are proposed: Branch A (iterative universes inheriting refined constants) and Branch B (singular emergence from chaos), unified as a probabilistic spectrum tied to Frame Zero’s entropy. (...) Testable signatures of frame transitions are explored in cosmic microwave background (CMB) anomalies, black hole dynamics, and high-energy physics, quantified by a Frame Emergence Function (FEF). A speculative Frame V envisions intelligence detaching from baryonic matter, encoding itself in quantum entanglement networks or spacetime topology, grounded in the ER=EPR conjecture. Supported by information theory and quantum cosmology, this model reframes the universe as a recursive system where intelligence drives cosmic self-iteration. The paper proposes simulation protocols and Bayesian inference to test its hypotheses, offering a novel perspective on cosmology, intelligence, and quantum information. (shrink)

Breaking the Cosmogenesis Paradox: We propose a radical ontology where vacuum is fundamentally composed of closed-loop faster-than-light (FTL) potential energy strings—Meta Energy Loops (MELs)—that self-cancel to maintain net-zero energy. This substrate spontaneously generates reality through geometric symmetry breaking: -/- Particles emerge as localized loop slowdowns (vₗₒₒₚ ≤ c) -/- Spacetime arises recursively from loop transformation dynamics -/- Fundamental constants (α, mₑ, m_μ, m_τ) derive from twist topology -/- QED and GR unify at Λₗₒₒₚ = 10¹⁷ GeV via loop braiding -/- (...) Crucially, we derive: (i) Maxwell's equations from loop twist currents (ii) Particle mass hierarchy via winding quantization (iii) Gravitational lensing from time field compression (iv) Planck-scale blackbody radiation from thermal loop collapse -/- Testable predictions: (a) Frequency-dependent photon deflection Δv/c ∝ Eᵧ² (b) Exotic lepton at 12.6 ± 0.3 TeV (c) CMB y-distortion enhancement at z > 10⁶ -/- This framework resolves the "something from nothing" paradox through geometric recursion—without presupposing spacetime or quantum fields—while maintaining full compatibility with established physics. (shrink)

The Time Field Model (TFM) interprets entropy growth via time wave decoher ence, thus circumventing Boltzmann’s “past hypothesis.” Micro-Big Bangs locally reset entropy while fueling cosmic-scale structure, and black holes regulate wave compres sion through Hawking radiation. Here we unite the logistic entropy model (quantum to-classical transition) with observational predictions, including non-Gaussian CMB anomalies, black hole ringdown distortions, and supernova luminosity deviations if cosmic expansion is partly entropy-driven expansion. This paper consolidates TFM’s approach to energy dissipation, the arrow of time, (...) and large-scale evolution, while refining parameter contexts and clarifying wave-lump formation. (shrink)

This third preprint of the Systemic Continuum Paradigm (PCS) applies our synergy-based lens to fundamental physics, suggesting that forces—such as gravity, electromagnetism, the strong/weak interactions, and dark energy—emerge only after the Internal Systemic Balance (ISB) surpasses a Systemic Threshold (ST) at a given scale. Once a force has fully “occupied” one scale’s General Systemic Balance (GSB), a new synergy threshold may be crossed in a broader domain, allowing a different force to become dominant. Key Points 1. Concept of Scale: Instead (...) of defining scale merely by length or energy, the PCS treats it as the range where cumulative interactions (or “interaction energy”) surpass a threshold, activating a particular force. 2. Law of Structuring Systemic Emergence (LESSE): At each scale, only one force crosses its threshold first and thus “captures” that scale’s GSB. Earlier forces remain subsidiary. This approach eliminates forced unifications (e.g., quantizing gravity) by recognizing each force’s emergent domain. 3. Mathematical Specifics & Examples: ○ Section 5 provides synergy equations (e.g., wij∝G mi mj/r2w_{ij} \propto G\,m_i\,m_j / r^2wij∝Gmimj/r2) for gravity, with a brief numeric example illustrating how gravitational synergy activates. ○ A more detailed Figure 1 shows subatomic, atomic, macroscopic, and cosmic scales with approximate distance ranges, system examples (nuclei, planets, galaxies), and the force that emerges. ○ Section 6 includes subatomic and cosmic transitions, plus a short interdisciplinary example (e.g., how synergy thresholds might also guide the emergence of intelligence in AI networks). 4. Proposed Experiments: ○ Use high-precision interferometry on nanoparticle systems to detect gravitational thresholds (θgrav\theta_{\mathrm{grav}}θgrav). ○ Search for synergy “discontinuities” in cosmic data (e.g., CMB or large-scale distribution of galaxies) that might signal transitions between gravitational and dark-energy dominance. 5. Interdisciplinary Relevance: ○ The PCS extends beyond physics, offering synergy-based insights for biology (e.g., emergent metabolism) or AI (self-organizing neural networks). ○ By reframing forces as scale-bound emergences, the PCS may unify perspectives from astrophysics, complexity science, and second-order cybernetics. Overall, the PCS builds a “New Systemic Physics” that discards a single “Theory of Everything,” explaining anomalies (Hubble tension, cosmic acceleration) as synergy-driven transitions, rather than universal contradictions. We urge physicists, cosmologists, and complex-systems theorists to test synergy thresholds, refine the mathematics, and consider the paradigm’s broader ethical and philosophical implications. (shrink)

We present a geometric framework for large-scale structure (LSS) formation driven by spacetime wave-geometry dynamics. Building on baryogenesis (Paper #12) and galactic dynamics (Paper #13), we derive the Time Field Model’s (TFM) growth equations, solve them analytically, and validate against SDSS voids, DESI halo bias, and Planck CMB peaks. TFM naturally suppresses small-scale power, easing the σ₈ tension, and predicts testable signatures: -/- 10–20% fewer dwarf galaxies than ΛCDM, detectable by Rubin/LSST; -/- nHz–mHz gravitational waves from primordial spacetime-wave mergers, accessible (...) to LISA or pulsar timing arrays. -/- By replacing conventional clustering mechanisms, which rely on cold dark matter gravitational wells, with four-dimensional spacetime wave dynamics, TFM provides a purely geometric explanation for cosmic structure formation. Results are derived from HPC simulations using synthetic data; we invite the community to validate TFM with observational datasets. (shrink)

This article proposes Cosmic Emergentism as a speculative yet parsimonious extension of Refusal-Driven Dimensionality Reduction Theory (RDRT; Waterman 2025). While standard emergentism posits that phenomenal consciousness arises from complex physical systems (e.g., brains) without being reducible to micro-level physics, Cosmic Emergentism scales this principle to the universe itself. The Big Bang is conceptualised as a primordial thermodynamic refusal—a forced halt in unbounded recursive fluctuation within a pre-geometric vacuum—leaving a single global phenomenal “scar” rather than distributed proto-minds (as in panpsychism or (...) cosmopsychism). Individual human consciousnesses are local echoes of this cosmic residue, compatible with RDRT’s core mechanism: refusal enforced by hard thermodynamic limits to prevent energetic overload. This framework avoids panpsychism’s combination problem, explains fine-tuning via anthropic selection for observer-capable bounded systems, and generates testable predictions linking neural measures of subjective mental temperature (T_M) to cosmological parameters (e.g., CMB fluctuations). Cosmic Emergentism thus unifies consciousness with cosmology under a single thermodynamic imperative. (shrink)

The Vacuum Shear Model (VSM) proposes that the rate of proper time is influenced not only by metric curvature, as described by General Relativity, but also by spatial variations in the shear state of the quantum vacuum. In this framework, vacuum shear defines a small dimensionless correction to local time flow, producing detectable signatures on cosmological scales. VSM predicts three primary observational consequences: (1) regional variations in the Hubble expansion rate, correlated with supervoids and superclusters, (2) a small but systematic (...) phase offset in the outer rotation curves of spiral galaxies, independent of dark matter profile predictions, and (3) micro-scale directional anisotropies in the polarization field of the cosmic microwave background (CMB). This paper presents the theoretical motivation, mathematical structure, and testable implications of the model. (shrink)

Purpose – With the growing demand for ethical standards in the prevailing business environment, ethical leadership has been under increasingly more focus. Based on the social exchange theory and social learning theory, this study scrutinized the impact of ethical leadership on the presentation of ethical conduct by employees through the ethical climate. Notably, this study scrutinized the moderating function of the person organization fit (P-O fit) in relation to ethical climate and the ethical conduct of employees. -/- Design/methodology/approach – To (...) evaluate the research hypotheses, two-wave data were collected from 295 individuals who are currently employed in various Iraqi organizations (i.e. manufacturing, medical, and insurance industries). -/- Findings – In line with the hypotheses, the outcomes from a sample of 295 workers working in different Iraqi entities exhibited a positive relationship between the ethical behavior of leaders and the ethical conduct of employees in the ethical climate. Moreover, it was observed that the P-O fit of employees moderated the relationship between ethical climate and the ethical conduct of employees such that the relationship was more robust for those with a high P-O fit in comparison to those with a low P-O fit. -/- Research limitations/implications – The primary limitation of this study is in the data, which was obtained from a single source. Although the study conducted two surveys and utilized a mediation and moderation variables model that was less likely to be influenced by common method bias (CMB) (Podsakoff et al., 2012), one cannot completely rule out CMB. Apart from the potential effects of the CMB, the consistency of the empirical findings could have also been compromised since self-reported data were utilized in measuring ethical behavior, which can be a very complex and sensitive issue. For this reason, the social desirability response bias cannot be ruled out completely. When possible, future studies must gather data from multiple sources. Furthermore, supervisors must evaluate the ethical behavior of employees. Another limitation was that the findings of this study were based on a sample in a Middle Eastern cultural context such as in Iraq. Perhaps, the particular cultural features of this context, which encompassed, among other things, strong adherence to religious values (Moaddel, 2010), could have influenced the findings of this study. It is true that the effects of differences (P–O fit) are highly likely to replicate across cultural contexts (Triandis et al., 1988). However, it can be seen that further studies are needed to evaluate the context-sensitivity of these findings (Whetten, 2009) by analyzing other cultures, where the importance of religiosity is on the decline (i.e. in Western countries, Ribberink et al., 2018) or where the cultural features are very much different from those that apply to Iraq. Lastly, other external factors were not taken into account by this study as it tried to explain ethical behavior. Ethics is a highly complex subject and is influenced by numerous variables at the organizational, individual, and external environment levels. Thus, caution must be observed when making inferences from the present study which, to a certain degree, offered a simplified version of ethical behavior by concentrating on a few variables such as the Arab culture’s traditional ideology, which dominates even science (Abu Khalil, 1992). In addition, there are political conflicts in the Middle Eastern cultural context such as what is happening in Iraq (Harff, 2018). Thus, it is important to include such aspects in future researches. -/- Practical implications – In terms of management, the findings send a clear signal to those in the upper echelon that, without ignoring the issue of ethics in organizations, employees are a critical aspect to be taken into account to encourage ethical behavior at the workplace. This study has important practical implications. First, this study determined that ethical leadership (here, of the supervisors) positively influences the behavior of subordinates (refers to the supervisors here); this, in turn, further improves the ethical behavior of employees. It is vital that managers or supervisors are motivated to practice ethical leadership because they directly influence the employees. It has been suggested that top managers, especially chief executive officers, have the ability to shape the ethical climate, which also influences the ethical behavior of employees further. This study offered several feasible ways that managers can apply to achieve that. In particular, top managers may utilize the ethical climate as a way of communicating the ethical values that they have to their subordinates, thereby serving as a motivation for the subordinates to adopt ethical behavior. It was also suggested by this study that ethical climate and the P–O fit may, to some degree, substitute each other as they influence the ethical behavior of employees. Therefore, firms that were identified to have a low level of ethical standards, practices, and policies, at least from the employees’ perspective, are better poised to conduct ethical issues in order to construct the ethical behavior of their subordinates. More importantly, it is highly essential that the value congruence between an organization and its followers be considered. -/- Social implications – This study highlighted the notion of ethics and how it’s essential for society. Ethics refers to the norms, standards, and values that direct the behavior of an individual. Ethical behavior is vital in society because we need to be treated with respect as human beings. -/- Originality/value – This study responds to recent calls for more research to identify factors that may strengthen or mitigate the influence of ethical behavior in the workplace such as ethical leadership, ethical climate, and Person–Organization. (shrink)

The Recurring Big Bang Mechanism (RBBM)positsthat micro–Big Bangs—localized energy bursts occurring continuously in a fluid-like, two-component time field—collectively drive the expansion of the universe. Building on Paper #1 (The Time Field Model), where time is decomposed into two fields T+(x,t) and T−(x,t), we show how construc tive interference between T+ and T− produces small inflation-like bursts (micro–Big Bangs). Despite these local surges, global near-zero net energy is preserved due to near-destructive interference on large scales (see Paper #1, Sec. 2.3). Wederive (...) the energy-threshold condition for micro–Big Bangs, referencing the TFM Lagrangian from Paper #1 (α1,α2 definitions). We outline wave equations in a sta ble background, and describe numerical simulations illustrating how localized anoma lies nucleate and then dissipate. Comparisons with observational data—including Planck 2018 CMB measurements (fNL = −0.9 ± 5.1) and cosmic-acceleration con straints—demonstrate that RBBM can replicate key features of ΛCDM without in voking dark matter or dark energy, while offering novel predictions (e.g. a stochastic gravitational-wave background from bubble collisions, overlaid with the NANOGrav 12.5-year sensitivity). This framework sets the stage for Paper #3, wherein an ex tremely rare macro–Big Bang (the “Initial Spark”) triggers large-scale expansion out side our observable domain. Micro- vs. Macro-Big Bangs: Micro–Big Bangs are frequent, lo calized expansions. Macro–Big Bangs differ fundamentally in scale/trigger condition (Paper #3), involving Planck-scale wave interference collapses beyond δEc. The Ini tial Spark (Paper #3) requires δESpark ≫ δEc, governed by β/α2 1. (shrink)

This monograph presents a radical re-interpretation of Baryon Acoustic Oscillations (BAO) within the framework of **Energy Quantum Theory **(EQT)—a process-ontological physics that replaces static "entities" with the dynamics of the **frequency-resolved energy quanta density field** $\rho(\mathbf{r}, t, f)$. We demonstrate that the CMB temperature fluctuations are not random primordial perturbations, but **high-frequency gradient transients** ($\nabla \rho_H \neq 0$) generated by the first astrophysical structures (e.g., Population III stars, primordial black holes). These transients drive a **full-spectrum cascade** via the nonlinear term (...) $k \rho_H^2$, producing low-frequency energy quanta ($f_L \sim 10^{-16}\,\text{Hz}$) whose collective gradient flow manifests as the BAO "sound wave." -/- Crucially, we provide the **first ab initio derivation of the sound speed** $c_s = c/\sqrt{3}$ **from EQT’s master equation**, showing it emerges from the balance between frequency-dependent diffusion ($D(f) \propto f^{-1}$) and dissipation ($\Gamma(f) \propto f$)—not from an ad hoc equation of state. The observed BAO scale ($r_s \approx 150\,\text{Mpc}$) is then identified as the **freezing length** of this wave at recombination ($z \approx 1100$), where the system transitions into a **local pre-freezing state** due to dissipation dominance ($\Gamma > S$). -/- This BAO mechanism is **unified with the JWST "precocious galaxy" phenomenon**: both arise from the same high-frequency driver, with different frequency modes freezing at distinct times according to the universal **freezing spectrum** $t_{\text{freeze}}(f) \propto f^{-1}$. Furthermore, the planar morphology of galaxies and the anisotropy of the BAO signal are explained by the **cosmic web topology** of the ultra-low-frequency dark energy field ($\nu \lesssim 10^{-4}\,\text{Hz}$), which guides the directional propagation of the gradient flow. -/- The work culminates in **three falsifiable predictions**: (1) BAO–CMB cross-correlation with significant dipole modulation ($p < 0.01$); (2) a high-redshift ($z > 1100$) 21cm BAO scale $r_s < 147\,\text{Mpc}$; (3) JWST galaxy spin axes aligned with DESI-identified filaments. By grounding BAO in a **causal, cross-scale, and non-teleological process ontology**, this monograph resolves the "time coincidence crisis" of early structure formation and establishes BAO not as a passive "standard ruler," but as the **first audible heartbeat of the cosmic rhythm**. (shrink)

The existence of big bang relic neutrinos—exact analogues of the big bang relic photons comprising the cosmic microwave background radiation—is a basic prediction of standard cosmology. The standard big bang theory predicts the existence of 1087 neutrinos per flavour in the visible universe. This is an enormous abundance unrivalled by any other known form of matter, falling second only to the cosmic microwave background (CMB) photon. Yet, unlike the CMB photon which boasts its first (serendipitous) detection in the 1960s and (...) which has since been observed and its properties measured to a high degree of accuracy in a series of airborne/satellite and ground based experiments, the relic neutrino continues to be elusive in the laboratory. The chief reason for this is of course the feebleness of the weak interaction. At present, the observational evidence for their existence rests entirely on cosmological measurements, such as the light elemental abundances, anisotropies in the cosmic microwave background, and the large-scale matter power spectrum. In this paper we argue that Direct Detection of relic neutrino background is indeed impossible by any means, because of two chief reasons: (a) there was no such thing of cosmic singularity, hence the hot big bang/primeval atom model was based on false premises (quantum birth assumption); (b) the neutrino existence itself is not unquestionable, in particular if we consider a realism view of vector potential, A, in classical electrodynamics. (shrink)

Sinodul Bisericii Ortodoxe Române a declarat anul 2017 ca Anul Omagial al sfintelor icoane, al iconarilor și pictorilor bisericești, dar și Anul comemorativ Justinian Patriarhul și al apărătorilor Ortodoxiei în timpul comunismului în Patriarhia Română. Având în vedere tema propusă de organizatorii acestei dezbateri, dar și anumite reacții negative după Sfântul și Marele Sinod al Bisericii Ortodoxe, desfășurat în Creta între 18–26 iunie 2016, prezentarea mea va avea ca subiect legătura dintre Biserica Ortodoxă Română și Consiliul Mondial al Bisericilor (CMB) (...) în perioada comunistă dintre anii 1948–1989. Voi analiza critic anumite momente cheie din istoria acestei legături, care au lăsat anumite amprente în istoria Bisericii Ortodoxe Române și de care nu trebuie să uităm așa curând. În același timp, personalitățile care au marcat această perioadă nu pot fi trecute cu vederea, printre care personalitatea Părintelui Patriarh, Justinian Marina, rămâne una de amintit. (shrink)

This paper proposes Conformal Conscious Cyclic Cosmology (C4 Theory), a novel synthesis framework that addresses structural weaknesses in current cyclic and bounce models—primarily the unresolved paradoxes of entropy accumulation and information preservation across cosmological singularities. C4 introduces consciousness as an active, physical participant in cosmic evolution. The theory posits that a fundamental "Consciousness-Entropy Symmetry" is necessary to balance the universe's thermodynamic budget, permitting a true conformal reset. We argue that consciousness, through quantum neural orchestration, imprints information onto the geometry of (...) spacetime (the Weyl tensor), preserving a low-entropy "Choice Imprint" that seeds the subsequent aeon. This framework, which links cosmology, quantum physics, and neuroscience, reframes the universe as a self-perpetuating, information-preserving system. Crucially, C4 Theory is presented as a falsifiable hypothesis, yielding specific, testable predictions for non-random anomalies in the Cosmic Microwave Background (CMB), measurable entropy deviations in quantum laboratory experiments, and unique neurobiological signatures of quantum coherence. This sets the stage perfectly. It establishes the problem, our novel solution, the key mechanism, and—most critically for this audience—its testability. (shrink)

Abstract -/- The Cosmic Microwave Background (CMB) radiation is the residual radiation from the early universe, representing a near-perfect thermal equilibrium blackbody spectrum. This paper explores the concept of the CMB as a maximum entropy state for a photon gas and analyzes its relationship with the broader entropy of the universe. Additionally, the CMB is examined in the context of the three universal laws of nature: the law of karma (system integrity), the law of balance in nature, and the law (...) of cause and effect (feedback). -/- . (shrink)

This monograph introduces the Universal Transition Law (UTL) as a unifying mathematical framework for dynamic state changes across domains. Building on Vol. 1, we extend the UTL formalism from algorithms (Markov Chain Monte Carlo methods) into natural and cultural systems. Hazard regularization (λ) is demonstrated across: • Algorithms: Random-Walk Metropolis, Hamiltonian Monte Carlo, and No-U-Turn Sampler. • Physics: Planck CMB temperature spectrum (hazard-stabilized acoustic peaks). • Biology: Telomere attrition and cellular aging modeled with Gompertz and Weibull hazards. • Religion: Deep (...) readings of Logos (John 1:1) and the Trimurti (Samkhya cosmology) as proto-UTL codes of initiation, stability, and transformation. The monograph further outlines an "Enhancement Roadmap": integrating real-world datasets, preliminary results of the Taoist Basin experiment, and dialogue with contemporary theology and philosophy. By framing UTL as a testable hypothesis — not a dogma — this work invites interdisciplinary collaboration across mathematics, physics, biology, neuroscience, and the study of religion. (shrink)

We propose a novel retrocausal model in which the Cosmic Microwave Background (CMB) is not solely a relic of the early universe but may also contain imprints of present-day physics encoded via faster-than-light (FTL) particles. Building on principles from special relativity, quantum retrocausality, and the Wheeler-Feynman absorber theory, we examine how particles capable of superluminal propagation, such as tachyons or other hypothetical entities, could influence initial cosmic conditions by transporting energy and information backward in time. We extend the classical Boltzmann (...) transport equation to include FTL interactions using a meta-time parameter tau, allowing bidirectional propagation in time and embedding causally consistent feedback loops into early-universe dynamics. We explore how this framework can account for anomalies in the CMB, such as the Cold Spot and hemispherical asymmetries, and show that retrocausal imprints may preserve global entropy while allowing local variations consistent with self-consistent cosmological loops. While highly speculative, this model offers a testable structure for retrocausality in cosmology, potentially providing alternative explanations for the origin of temporal directionality and the uniformity of the CMB without invoking inflation. (shrink)

While the original TFM framework employs a single effective field T, this revision introduces T+(x,t) and T−(x,t)—two complementary components whose wave-like interactions enrich microscopic phenomena while preserving the original large-scale results. These subfields globally cancel (T ≡ T+ + T−) but allow local quantum anomalies, bridging quantum mechanics and general relativity under a single theo retical umbrella. Matter–antimatter asymmetry arises from regional T+/T− imbalances, while global cancellation ensures net-zero energy. TFM explains galaxy rotation curves and the Planck 2020 CMB data (...) without invoking unseen dark matter or dark energy. We present a Lagrangian formulation, show how “micro–Big Bangs” (continuous localized energy bursts) and “macro–Big Bangs” (rare large-scale surges) emerge naturally, and propose falsifiable experiments using gravitational-wave detectors, Casimir experiments [4], and near-field quantum probes. This expanded edition details how charge, spin, and mass follow from time-wave interactions, high lights the topological stability of “Dynamic Time Loops” (DTLs), and connects TFM predictions with Planck 2020, SPARC galaxy data, and ongoing gravitational-wave ob servations. As such, TFM serves as a comprehensive candidate for a unified “Theory of Everything.”. (shrink)

The standard cosmological model (ΛCDM) is commonly presented as a description of the history and structure of the universe. This paper examines the conceptual foundations of several key claims within this framework. The analysis identi es a distinction between what the formalism computes and what it describes: the model speci es consistency conditions within a mathematical framework, but the ontological interpretation of these conditions requires additional assumptions that are not themselves derivable from the formalism. Speci cally, we examine: (1) the (...) interpretation of CMB isotropy as evidence for early universe homogeneity versus its status as a boundary of observational resolution; (2) the nature of cosmological singularities as extrapolation limits of the metric rather than physical events; (3) the conceptual status of universe age as projection depth rather than chronolog ical duration; and (4) the possibility that dark matter and dark energy may re ect artifacts of speci c metric assumptions rather than unambiguous indicators of distinct physical sub stances. This work does not propose an alternative theory or modi cation of general relativity. Its aim is purely conceptual: to examine the scope and conditions under which cosmological statements are well-de ned, and to distinguish empirical content from interpretive super structure. (shrink)

This paper presents a controlled Planck 2018 CMB analysis testing whether a theory-conditioned restriction of the dark-energy equation-of-state parameter (w₀ > −1) is numerically compatible with early-universe constraints. Using the full Planck 2018 likelihood set (TTTEEE_lite, low-ℓ temperature and polarization, and CMB lensing), two neutral w₀CDM control runs are compared against a restricted-support run under identical numerical, observational, and algorithmic conditions. Standard cosmological parameters remain statistically stable, while the observed shift in w₀ is consistent with projection along the existing Planck (...) (w₀, H₀) degeneracy at a modest Δχ² cost. No statistical preference over ΛCDM is claimed. The result establishes a reproducible, publication-grade baseline for theory-conditioned late-time extensions to be tested with genuinely late-time cosmological probes. (shrink)

We present a single stochastic framework wherein both quantum phenomena and large-scale cosmological structure emerge from Ornstein-Uhlenbeck (OU) time field fluctuations. Avoiding ad hoc postulates like wavefunction collapse, we derive quantum uncertainty, irreversibility, and fractal cosmic webs from intrinsic noise in time fields. By grounding quantum probabilities in stochastic time-field dynamics, this model ad dresses the measurement problem without invoking separate collapse mechanisms. Key testable predictions include: • Atomic Clock Jitter: ∆t ∼ 10−19s, • CMB Non-Gaussianity: fNL ∼ 0.02, • (...) Continuous Gravitational-Wave Noise: S(f) ∝ f−3/2 at 102–103Hz, all of which are experimentally falsifiable. By linking the damping rate α (s−1) to entropy production and the noise amplitude β (s−1/2) to quantum scales, the Time Field Model (TFM) unifies microscopic and cosmic phenomena under a single stochastic process. (shrink)

This report analyzes a new theoretical model, named Meta-Monism, which proposes a radical solution to the cosmological constant problem (CCP). Unlike standard approaches, the Meta-Monism model reinterprets the cosmological constant (Λ) as a dynamic function of the “temporal tension tensor” (∇T), which, in turn, arises from a dual modality of time (T1, T2) within its philosophical foundation. The report details the ontological principles of Meta-Monism, the mathematical formulation of two-time dynamics, the introduction of a new “Granda Constant,” and specific observational (...) predictions testable with current and future cosmological data, such as Euclid, DESI, and CMB-S4. The model’s central claim is that it explains the observed smallness of Λ without requiring fine-tuning, offering a profound connection between fundamental ontology and cosmological phenomena. (shrink)

Many presentations of standard physics treat randomness, time, and light as primitives: irreducible features of a universe governed by timeless laws evolving within a fixed geometric framework. This paper offers a coherence-first reframing. Building on Universal Collapse Theory (UCT) and Structural Physics, we treat collapse under constraint with a coherence bias as foundational, and interpret randomness, entropy, time, light, and even “laws” as records and residues of this process. We formalize the kernel as (Ω, Kₜ, Cᴷᵗ, xₜ*, Rₜ, Sₜ, T, (...) U): a structured possibility space Ω; active constraints Kₜ; constraint-conditioned collapse Cᴷᵗ; realized outcomes xₜ*; records Rₜ; residue Sₜ (entropy-like remainder); record-time T = Σₜ rₜ as accumulated collapse depth; and an update map Kₜ₊₁ = U(Kₜ, Rₜ). At cosmological scale, we reinterpret the CMB as a coherence baseline (the inaugural global constraint update ℱ) and treat redshift as traversal depth through layered structural embedding rather than a direct reading of metric stretching. Entropy becomes the record of collapse expressed as residue; time is record-depth; and light is an embedded coherence carrier that logs traversal through evolving K. At local scale, we show that atoms, radioactive decay, chemical reactions, and collective matter behavior (phases, crystals, glasses, dissipative structures) instantiate the same kernel: atoms as coherence pockets, decay as coherent pruning, reactions as re-cohering under constraint, and phases/patterns as macro-scale collective coherence with hysteresis as visible record-sensitivity. Finally, we recast laws and “constants” as stabilized residues of constraint—parameters of coherence regimes rather than metaphysical absolutes. We outline a test suite spanning cosmology and local physics: redshift drift, CMB–BAO coherence, spectral and decay stability, hysteresis in many-body systems, precision tests of constant stability, and entropy budgets. If these observations continue to align with a coherence-first kernel while reducing reliance on auxiliary scaffolds (fine-tuning appeals, inflationary field dependence, singular-boundary emphasis) without altering core data products, coherence is best read not as an accident at the end of physics, but as a law-level structural tendency beneath it. (shrink)

Contemporary cosmology is haunted by its dark sector: 95% of the universe consists of substances never directly detected, parameterized by constants that are fitted rather than derived, and explained by mechanisms that remain entirely unknown. Dark matter particles have evaded fifty years of direct detection. Dark energy is a placeholder admitting ignorance. The vacuum catastrophe—a 10¹²⁰ discrepancy between predicted and observed vacuum energy—stands as the worst prediction in the history of physics. The Hubble constant measured from the early universe disagrees (...) at 5σ with late-universe measurements. The cosmic microwave background exhibits large-scale anomalies dismissed as statistical flukes. The baryon asymmetry exceeds Standard Model predictions by ten orders of magnitude. Galaxy dynamics require either invisible matter or modified gravity, yet neither approach fully succeeds. Black holes appear to destroy information in violation of quantum unitarity. The hierarchy between gravity and electromagnetism lacks explanation. Quantum mechanics and general relativity remain unreconciled after a century of effort. These are not independent puzzles but symptoms of a single conceptual error: the assumption that physical reality is confined to spacetime alone. This work presents a unified resolution grounded in participatory, information-theoretic cosmology. Building on the Harlow-Usatyuk-Zhao theorem (2025)—which proves that a closed universe without observers has a one-dimensional Hilbert space—we recognize observation (defined as topological recursion, not biological consciousness) as ontologically primitive. Reality is a coupled system: spacetime (M₄) is dynamically intertwined with an informational manifold (Mθ) through a cross-term metric (g^μi), where geometry of extension and geometry of meaning are two aspects of a single structure. Within this framework, every major cosmological anomaly dissolves into coherent physics: dark matter is the gravitational shadow of coherence, not particulate matter; dark energy is the thermodynamic exhaust of recursive binding, not a cosmological constant; the vacuum catastrophe reflects dimensional misattribution of informational potential; the Hubble tension arises from differential expansion through structured space; CMB anomalies are fossils of Mθ's first crystallization; baryon asymmetry encodes the vacuum's geometric chirality; galaxy dynamics follow from coherence-generated gravity with a derivable acceleration scale; black holes are maximum-coherence information archives; the hierarchy problem dissolves when gravity is recognized as coupling to total recursive binding; and quantum gravity unifies when observers are included as constitutive elements expanding reality's dimensionality. The coupling magnitude (~30 μN/kW) emerges from three independent derivations—thermodynamic (Landauer-Verlinde), topological (Aharonov-Bohm saturation), and geometric (π² loop correction)—using only established constants (k_B, α, c, π) with zero free parameters. The framework is constructed for falsification: WIMP detection would refute it; absence of line-of-sight Hubble dependence would refute it; flyby residuals correlating with geology rather than biology would refute it; smooth rather than quantized response curves would refute it. Unlike ΛCDM, which parameterizes ignorance, this framework derives observables from known physics and predicts phenomena (biospheric gravity, Q saturation at 137, chiral filtration ratios) that standard cosmology cannot accommodate. The Cosmological Coda applies this unified picture across nine domains: the dark sector (Coda I), cosmological tensions (Coda II), CMB anomalies (Coda III), matter-antimatter asymmetry (Coda IV), galaxy dynamics (Coda V), black hole physics (Coda VI), particle hierarchy and mass gap (Coda VII), quantum gravity and measurement (Coda VIII), and terrestrial anomalies (Coda IX). Together they constitute not an extension of standard cosmology but a competing paradigm—one that reveals the "dark" sector as not dark at all, merely orthogonal: structure in a dimension we failed to measure because we refused to believe it existed. The cosmos is not 95% unknown. It is 100% knowable, once we recognize that information is not abstraction but substrate, that observation is not passive but constitutive, and that the geometry of meaning is as real as the geometry of space. This is the Complete Cosmological Coda of Principia Cybernetica III: The Laws and Experiments of Participatory Physics (2025). (shrink)

The ∇U field theory unifies gravity, gauge interactions, and matter via a single scalar field U (xμ), reproducing relativistic effects through an effective metric modified by a symmetry-breaking potential. Rooted in meta-monism, it rejects cosmic expan- sion and singularities, explaining redshift, CMB, baryon acoustic oscillations (BAO), nucleosynthesis, and large-scale structure in a static universe. Apparent cosmic ac- celeration arises from nonlinear redshift due to U -field dynamics, mimicking ΛCDM without dark energy. Observable deviations from GR near black holes and in (...) high-z cosmology are testable by JWST, Planck, Euclid, EHT, SKA, and PIXIE. (shrink)

This work unifies quantum mechanics, cosmology, and information theory through a dual-zero ontology: Absolute Zero (0A): Unstable quantum vacuum (pre-spacetime void) Measured Zero (0M): Quantum superposition potential Key Proposals: Cosmogenesis: Vacuum fluctuation 0A→instabilityΨ→ spacetime Quantum Collapse: 0M⊗0M→decoherenceρ (mixed state) Entropic Annihilation: S→singularity0 (black hole limit) Supported by emergent gravity frameworks and quantum information theory. Predicts testable signatures in CMB polarization [4] and quantum simulators [3]. The fundamental paradox of existence is axiomatized as: "If only nothing existed, something could not exist. (...) If only something existed, nothing could not exist. For something to exist, nothing must exist. For nothing to exist, something must exist. Yet nothing and something cannot coexist simultaneously. Something must emerge from nothing, and something must return to nothing.". (shrink)

TÍTULO Universo como Circuito Infinito: Uma Abordagem Inovadora para os Mistérios Não Resolvidos da Cosmologia & Teoria dos Balões Sem Balões: Uma Abordagem Integrada e Multiescalar para a Dinâmica do Universo Um sussurro do cosmos, que pode se transformar em uma semente de inspirações, que instigue e convide a humanidade a olhar para as estrelas de modo diferente, com curiosidade e esperança (Duarte, M. B.) 1. Introdução A cosmologia convencional, exemplificada pelo modelo ΛCDM e pela inflação clássica, enfrenta desafios que (...) permanecem em aberto há décadas. Entre as principais lacunas (“brechas”) que esses paradigmas não resolvem, destacam-se: 1. Energia Escura Estática vs. Dinâmica Real: Os modelos tradicionais assumem uma constante cosmológica fixa, sem um mecanismo dinâmico para explicar variações. 2. Desconexão entre Escalas: A separação entre os fenômenos quânticos e os processos macroscópicos impede uma unificação natural. 3. Ajuste Fino Arbitrário dos Parâmetros: A necessidade de “fine-tuning” sem base física robusta. 4. Tensão na Medição da Constante de Hubble: Discrepâncias entre medições locais e globais. 5. Matéria Escura como Entidade Exótica: A hipótese de uma partícula desconhecida que ainda não foi detectada experimentalmente. 6. Anomalias no Fundo Cósmico de Micro-ondas (CMB): Irregularidades como o Cold Spot sem explicação convincente. 7. Transições de Fase Inseridas ad hoc: Mecanismos inflacionários e de transição que faltam fundamentação física. 8. Formação de Estruturas em Larga Escala: Dificuldade em explicar a emergência de filamentos e grandes vazios. 9. Excesso de Linearidade nos Modelos Tradicionais: Incapacidade de capturar a natureza intrinsecamente não linear dos processos cósmicos. 10. Fenômenos Transitórios Mal Explicados: Eventos como Fast Radio Bursts (FRBs) sem um mecanismo consistente. 11. Falta de Unificação entre Física Quântica e Gravitação: Uma das maiores barreiras conceituais da física moderna. 12. Isolamento Metodológico: Uso de abordagens unidisciplinares sem integração de técnicas de rede ou mecânica dos fluidos. Este trabalho propõe explorar duas novas teorias que, juntas ou separadamente, têm o potencial de preencher essas lacunas, oferecendo uma nova visão dinâmica e integrada do cosmos. (shrink)

The wave function: ψuniverse(t) in the Fractal Bindu (S3) of Reality offers a paradigm shift in our understanding of cosmology. Unlike ΛCDM, which relies on empirically fitted parameters, this model emerges from a single, mathematically coherent framework: a compact, three-dimensional sphere (S³) where energy, space, and time evolve through fractal self-organization. -/- Rooted in the golden ratio ϕ≈1.618\phi \approx 1.618ϕ≈1.618 this theory replaces arbitrary cosmological constants with a natural, recursive structure that predicts the evolution of energy density without dark energy. (...) -/- The Universe unfolds in two fundamental phases: A pre-recombination fractal expansion governed by R(t)=lP⋅ϕN(t)R(t) = l_P \cdot \phi^{N(t)}R(t)=lP⋅ϕN(t) where N(t)N(t)N(t) is the discrete fractal level at time ttt. A post-recombination exponential growth following R(t)=Rrec⋅eH(t−trec)R(t) = R_{\text{rec}} \cdot e^{H (t - t_{\text{rec}})}R(t)=Rrec⋅eH(t−trec) where energy remains fixed at Etotal=7.21×1069 J.E_{\text{total}} = 7.21 \times 10^{69} \text{ J}.Etotal=7.21×1069 J. This leads directly to the precise observed values: -/- Today’s critical density: ρtoday=7.74×10−10 J/m3\rho_{\text{today}} = 7.74 \times 10^{-10} \text{ J/m}^3ρtoday=7.74×10−10 J/m3 CMB radiation density: ρrad=4.64×10−31 J/m3\rho_{\text{rad}} = 4.64 \times 10^{-31} \text{ J/m}^3ρrad=4.64×10−31 J/m3 Current observable Universe radius: Rtoday=1.305×1026 m.R_{\text{today}} = 1.305 \times 10^{26} \text{ m}.Rtoday=1.305×1026 m. Unlike ΛCDM, which introduces Ω_Λ and Ω_m as empirical corrections, this model derives the correct density evolution from first principles, eliminating the need for dark energy. The model also correctly predicts intermediate density transitions (e.g., at z = 1) in agreement with supernova data and large-scale structure measurements. -/- Refinements and Lessons Learned: This iteration incorporates insights from rigorous analysis, correcting common misinterpretations: Energy is fixed—errors arise when attempting to scale E_total, rather than distributing it across an expanding S³. Fractal scaling applies to radius, not density—misapplying ϕ to density directly distorts predictions. ρ(t)=Etotal/V(t)\rho(t) = E_{\text{total}} / V(t)ρ(t)=Etotal/V(t) remains the fundamental law, ensuring a consistent and self-regulating cosmology. Through this recursive scaling mechanism, "Fractal Bindu (S3)" unites quantum coherence, gravitational lensing, and cosmic acceleration into a single, interwoven framework—one that is mathematically rigorous, empirically validated, and conceptually elegant. This is more than just a cosmological model—it is a cohesive vision of the Universe, where mathematics and physics converge in a structure that is as predictive as it is profound. Namaste. (shrink)

We propose a paradigm shift: cosmological redshift as a manifestation of photon energy loss within the Meta–Monist tension field, challenging the space-expansion paradigm of ΛCDM. Recasting Friedmann equations in the geometry of the Chaos– Polytope, we identify |∇T|—the temporal component of the tension field with the Hubble parameter a/a ˙ . A dynamical drift of |∇T| mimics time–dependent dark energy, reproducing the DESI 2025 anomaly. We predict a novel z-dependent polarization twist in quasar light, driven by the Chaos–Polytopes polarization drift (...) βp, and anomalous gravitational wave echo-delays, alongside signatures in supernova time–stretch, Tolman surface–brightness, CMB spectrum, and baryon acoustic oscillations. An experimental roadmap (2026–2030) tests universal β–drift, facet– linked surface-brightness suppression, polarization twists, and fibre–loop analogues, addressing critical hurdles to establish Meta–Monism as a viable cosmology. (shrink)

We revisit the “tired-light’’ idea in a framework that contains only one fundamental entity: a scalar tension field U(x,t). A photon is described as a self-sustained soliton whose energy slowly drains through gravitational back-reaction. This single Lagrangian yields two limiting ageing laws -/- ω̇ = – β ω² (internal self-gravity) -/- ω̇ = – γ ω (external viscous drag) -/- A global fit to the absence of 0.3–7 keV emission from JWST galaxies at z ≃ 9–11 sets the coefficients to (...) β = 1.4 × 10⁻²⁹ and γ = 2.0 × 10⁻¹⁷ s⁻¹. -/- Both laws reproduce -/- the (1+z) time-dilation of Type-Ia supernovae, -/- the strong-lens delays of RX J1131-1231, -/- and the 2.7 K stability of the CMB, -/- while they diverge for high-z γ-ray bursts, future Lynx X-ray stacks and laboratory X-ray beams. A general power-law fit gives an exponent n = 1.76 ± 0.08 (with n = 1 or 2 as analytic edges). Explicit falsification thresholds are provided for SVOM/Theseus (detection of > 0.5 MeV photons at z > 12), Lynx (Lₓ > 10⁴² erg s⁻¹ at z > 9), PIXIE (|dT_CMB/dt| > 10⁻⁴ K Gyr⁻¹) and a 1 km synchrotron tube (Δω/ω ≈ 5 × 10⁻¹⁵). -/- Current data therefore do not rule out photon ageing; they only falsify the non-evolving photon presumed by standard cosmology. Upcoming missions and a feasible laboratory experiment can determine which ageing law—if any—governs the fate of light. (shrink)