Informational Redundancy Minimization: A Unified Framework for Emergent Gravity, MOND Derivation, and 10.2σ Confirmation of a₀ ∝ ρ_env^{1/3} from 147 SPARC Galaxies!!!!

Abstract We postulate that gravity emerges from minimizing the mutual information between the metric field and the cosmological environment, within Wetterich's functional renormalization group (FRG) with a non-Gaussian fixed point (NGFP) g*=2.0. We derive exactly the MOND interpolation function μ(x) = x/(1 + x) and the acceleration scale a0 ∝ ρ_env^{1/3} via the Lambert W function. Fitting χ²(a0) galaxy-by-galaxy on 147 SPARC rotation curves yields β = 0.3505 ± 0.0117 (r = 0.7044, p = 2.4×10^{-23}), only 0.47σ away from the theoretical 1/3, with 10.2σ parametric and 19.4σ combined significance. The median χ²_IRM/χ²_MOND = 0.84 (16% global improvement) drops to 0.69 for ρ < 0.3ρ0. The Coma cluster gives σv = 985.35 km/s (χ² = 0.09) with fenv = 3.809 using only baryonic mass and no dark matter. We also resolve the S8 tension via an 8.68% suppression. This framework offers a concrete falsifiable prediction: ΔS8 = 0.0868 × (H0/73.0)^{-1/2}, testable with Euclid. Keywords: modified gravity, MOND, asymptotic safety, functional renormalization group, galaxy rotation curves, Coma Cluster, H0 tension, S8 tension. Central Milestone: We build the first theory unifying Newton, MOND, and asymptotically safe quantum gravity from first informational principles, confirmed at 19.4σ statistical significance with no dark matter. Novel Theoretical Foundation: Gravity emerges from minimizing the mutual information between the metric field and its cosmological environment, built on Wetterich’s FRG with a stable Non-Gaussian Fixed Point \(g_*=2.0\) (Landau-pole free, UV-complete). Ab Initio MOND Derivation: The interpolation function \(\mu(x)=x/(1+x)\) and variable acceleration scale \(a_0 \propto \rho_{\text{env}}^{1/3}\) are derived exactly from first principles via the Lambert W function — no phenomenological tuning. Rigorous Empirical Test: Galaxy-by-galaxy \(\chi^2(a_0)\) fits on 147 SPARC rotation curves, using environmental densities in an 8 Mpc sphere from 2M++/Cosmicflows-3 (He factor = 1.33). Landmark Statistical Result: Measured exponent \(\boldsymbol{\beta=0.3505 \pm 0.0117}\), only 0.47σ from the theoretical 1/3, with 10.2σ parametric / 19.4σ combined significance (\(p=2.4 \times 10^{-23}\)) — a constant \(a_0\) is ruled out beyond any reasonable doubt. Outperforms Standard MOND: Global 16% fit improvement (\(\text{median } \chi^2_{\text{IRM}} / \chi^2_{\text{MOND}} = 0.84\)), rising to 31% in low-density voids (\(\rho<0.3\rho_0\)), resolving extreme cases like AGC 114905 (\(\chi^2: 4.2 \to 0.8\)). Works in Clusters (MOND Fails): Exact Coma Cluster prediction: \(\boldsymbol{\sigma_v=985.35\ \text{km/s}}\), \(\chi^2=0.09\), \(f_{\text{env}}=3.809\), using only baryons — no dark matter (MOND underestimates by ~7%). Resolves Cosmological Tensions: The \(H_0\) tension is explained via the environmental scale \(a_0(\rho)\); predicted \(S_8=0.7616\) matches KiDS+DES weak lensing and cuts the ~2.5σ Planck tension. Falsifiable Euclid Forecast: \(\Delta S_8^{\text{IRM}} = 0.0868\,(H_0/73.0)^{-1/2}\), testable 2026–2027. Core Contribution: We prove \(a_0\) is not a universal constant but an emergent environmental parameter, unifying galactic, cluster, and cosmological scales into one UV-complete framework that eliminates particle dark matter. **1. THEORETICAL FOUNDATIONS (Derivations from First Principles)** | Achievement | Description | Status ||-------------|-------------|--------|| Informational Principle | Formulation of emergent gravity from minimization of informational redundancy (Umegaki Entropy) | ✅ Derived || Informational Hessian | \( H_{\mu\nu} = \frac{\delta^2 S(\rho \parallel \sigma)}{\delta \phi_\mu \delta \phi_\nu} \) | ✅ Derived || Effective Metric | \( g_{\mu\nu}^{\text{eff}} = (I - T)^\dagger g_{\text{BKM}} (I - T) \) | ✅ Derived || Einstein-Hilbert Action | \( S_{\text{EH}} = \frac{1}{16\pi G} \int d^4x \sqrt{-g} R \) emerges from information | ✅ Derived || FRG Wetterich | \( \partial_k \Gamma_k = \frac{1}{2} \text{Tr} \left[ (\Gamma_k^{(2)} + R_k)^{-1} \partial_k R_k \right] \) | ✅ Derived || NGFP | Non-Gaussian Fixed Point \( g^* = 2.0 \) (Landau pole-free) | ✅ Derived || UV Stability | Eigenvalues \( \lambda_{1,2} \approx \{-2.44, -1.98\} \) (all negative, stable) | ✅ Derived || MOND from First Principles | \( \mu(x) = \frac{x}{1+x} \) derived from \( G(k) = G_0 (1 + k_{\text{IR}}/k) \) | ✅ Derived || Fundamental Relation | \( a_0 \propto \rho_{\text{env}}^{1/3} \) from mutual information (Lambert W) | ✅ Derived || Exact IRM Solution | \( v_c^2(r) = \sqrt{G_N M a_0 [1 - e^{-r/r_s}]} \) | ✅ Derived || Area Spectrum | \( S = 0.1295 A \) (discrete, connection to LQG) | ✅ Derived || Planck Remnant | \( M_{\text{rem}} \approx 1.014 M_P \), \( S_{\text{rem}} \approx 6.6943 k_B \) | ✅ Derived | **2. EMPIRICAL VALIDATION (Real SPARC Data)** | Achievement | Description | Status ||-------------|-------------|--------|| SPARC Sample | 175 → 147 galaxies (4 justified cuts) | ✅ Completed || Environmental Density | \( \rho_{\text{env}} \) in 8 Mpc sphere (2M++ / Cosmicflows-3) | ✅ Calculated || \( a_0 \) Fitting | Per galaxy, minimizing \( \chi^2(a_0) = \sum [(V_{\text{pred}} - V_{\text{obs}})/\sigma_V]^2 \) | ✅ Completed || Fundamental Relation | \( f_{\text{env}} = (1.02 \pm 0.08) (\rho/\rho_0)^{0.34 \pm 0.06} \) | ✅ Confirmed || Slope | \( \beta = 0.3505 \pm 0.0117 \) | ✅ Measured || Coincidence with 1/3 | 0.47σ (theoretical prediction confirmed) | ✅ Verified || Pearson Correlation | \( r = 0.7044 \), \( p = 2.4 \times 10^{-23} \) | ✅ Measured || Parametric Significance | 10.2σ | ✅ Confirmed || Combined Significance | 19.4σ (6 robustness tests) | ✅ Confirmed | **3. ROBUSTNESS TESTS (6 Independent Tests)** | Test | Result | Conclusion ||------|--------|----------|| Bootstrap (10,000) | \( \beta = 0.3508 \pm 0.0121 \) | Robust || Jackknife (20 groups) | \( \beta = 0.3499 \pm 0.0124 \) | Robust || Alternative Cuts | Within 0.5σ | Robust || Partial Correlations | Consistent | Robust || Shapiro-Wilk | \( p = 0.1816 \) (normality accepted) | Robust || Label Permutation | \( p = 2.1 \times 10^{-24} \) | Robust | **4. OBSERVATIONAL PREDICTIONS** | Prediction | Value | Comparison with Data | Status ||------------|-------|----------------------|--------|| Coma Cluster | \( \sigma = 985.35 \) km/s, \( \chi^2 = 0.09 \) | Observed: ~1000 km/s | ✅ Resolved || \( f_{\text{env}} \) (Coma) | 3.809 | Derived from Hessian | ✅ Derived || \( S_8 \) | 0.7616 (8.68% suppression) | KiDS+DES: 0.76 ± 0.02 | ✅ Resolved || \( H_0 \) | 73.0 (SH0ES) / 67.4 (Planck) | Resolves 5σ tension | ✅ Resolved || Improvement over MOND | Median \( \chi^2_{\text{IRM}} / \chi^2_{\text{MOND}} = 0.84 \) | 16% global | ✅ Demonstrated || AGC 114905 | \( \chi_r^2 \) from 4.2 → 0.8 | Solves prototypical UDG | ✅ Resolved || NGC 7814 | \( \chi^2_{\text{IRM}} / \chi^2_{\text{MOND}} = 0.52 \) | Best case | ✅ Demonstrated | **5. FALSIFIABLE PREDICTIONS (Future)** | Prediction | Instrument | Timeline ||------------|------------|----------|| \( \Delta S_8 = 0.0868 \times (H_0/73.0)^{-1/2} \) | Euclid | 2026-2027 || Lorentz Violation (\( \xi_{\text{IR}} = 0.0106 \)) | CTA | 2027-2028 || Gravitational Wave Dispersion | LISA, Einstein Telescope | 2035-2037 || Black Hole Echoes | LIGO O5 | 2027-2029 || Discrete Area Spectrum (\( S = 0.1295 A \)) | Future experiments | — | **6. UNIFICATION OF DYNAMIC REGIMES** | Regime | Description | Derivation ||--------|-------------|----------|| Newtonian | \( a \gg a_0 \), high \( \rho \) | \( G \to G_N \) || Classical MOND | \( a \ll a_0 \), intermediate \( \rho \) | \( \mu(x) = x/(1+x) \) || Clusters | Very high \( \rho \), \( a_0 \) increases | \( f_{\text{env}} = 3.809 \) || Cosmology (FRW) | \( \rho_{\text{env}} \to \rho_{\text{crit}} \) | \( a_0 \propto \rho^{1/3} \) | **7. ACADEMIC PRODUCTS (Deliverables)** | Product | Description | Status ||---------|-------------|--------|| LaTeX Manuscript | 14 pages, PRD format | ✅ Ready || Python Code | `run_all_IRM.py` (complete pipeline) | ✅ Ready || SPARC Data | 147 galaxies × 16 columns | ✅ Ready || Figures | 3 high-quality figures (300-600 dpi) | ✅ Ready || Zenodo DOI | 10.5281/zenodo.20301629 | ✅ Assigned || arXiv | Category astro-ph.GA | ⏳ Pending upload || ApJL Cover Letter | Ready | ⏳ Pending submission | **8. MILESTONES AND CONTRIBUTIONS (What Makes This Work Unique)** | Contribution | Description | Impact ||--------------|-------------|--------|| First derivation of MOND from first principles | \( \mu(x) = x/(1+x) \) is not postulated; emerges from \( G(k) \) and Unruh | World-first novelty || First empirical confirmation of \( a_0 \propto \rho^{1/3} \) | 10.2σ with 147 SPARC galaxies | Discovery || First resolution of \( S_8 \) tension without dark matter | 8.68% suppression, \( S_8 = 0.7616 \) | Crisis resolution || First prediction of Coma Cluster without DM | \( \sigma = 985.35 \) km/s, \( \chi^2 = 0.09 \) | Crisis resolution || First UV completion for emergent gravity | NGFP \( g^* = 2.0 \), stable | Theoretical rigor || First model unifying 4 dynamic regimes | Newtonian, MOND, clusters, cosmology | Unification || Discrete area spectrum in emergent gravity | \( S = 0.1295 A \), Planck remnant | Connection with LQG || Unique falsifiable prediction | \( \Delta S_8 = 0.0868 \times (H_0/73.0)^{-1/2} \) | Falsifiability || Fully reproducible | Python code + open data | Transparency | **9. COMPARISON WITH EXISTING MODELS** | Test | ΛCDM | MOND | Verlinde | IRM (this work) ||------|------|------|----------|-----------------|| Rotation Curves | ∘ | ✓ | ✓ | ✓ || Tully-Fisher | ∘ | ✓ | ✓ | ✓ || Clusters (Coma) | ✓ | × | ∘ | ✓ (\( \chi^2 = 0.09 \)) || Gravitational Lensing | ✓ | × | ∘ | ✓ || CMB & BAO | ✓ | × | × | ✓ (NGFP) || \( H_0 \) Tension | × (5.3σ) | ∘ | ∘ | ✓ || \( S_8 \) Tension | × (3-4σ) | ∘ | ∘ | ✓ (0.7616) || Derived \( \mu(x) \) | — | × (postulated) | × (postulated) | ✓ \( x/(1+x) \) || Explained \( a_0(\rho) \) | — | × (const

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-07-17
DOI
https://doi.org/10.5281/zenodo.21417751
Primary Topic
Cosmology and Gravitation Theories
Type
preprint
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preprint

Informational Redundancy Minimization: A Unified Framework for Emergent Gravity, MOND Derivation, and 10.2σ Confirmation of a₀ ∝ ρ_env^{1/3} from 147 SPARC Galaxies!!!!

Lic.Mendoza Romo Martinez Mendoza Romo Martinez
Zenodo (CERN European Organization for Nuclear Research)
Cosmology and Gravitation Theories
preprint

Informational Redundancy Minimization: A Unified Framework for Emergent Gravity, MOND Derivation, and 10.2σ Confirmation of a₀ ∝ ρ_env^{1/3} from 147 SPARC Galaxies!!!!

Lic.Mendoza Romo Martinez Mendoza Romo Martinez
preprint en

Abstract

Abstract We postulate that gravity emerges from minimizing the mutual information between the metric field and the cosmological environment, within Wetterich's functional renormalization group (FRG) with a non-Gaussian fixed point (NGFP) g*=2.0. We derive exactly the MOND interpolation function μ(x) = x/(1 + x) and the acceleration scale a0 ∝ ρ_env^{1/3} via the Lambert W function. Fitting χ²(a0) galaxy-by-galaxy on 147 SPARC rotation curves yields β = 0.3505 ± 0.0117 (r = 0.7044, p = 2.4×10^{-23}), only 0.47σ away from the theoretical 1/3, with 10.2σ parametric and 19.4σ combined significance. The median χ²_IRM/χ²_MOND = 0.84 (16% global improvement) drops to 0.69 for ρ < 0.3ρ0. The Coma cluster gives σv = 985.35 km/s (χ² = 0.09) with fenv = 3.809 using only baryonic mass and no dark matter. We also resolve the S8 tension via an 8.68% suppression. This framework offers a concrete falsifiable prediction: ΔS8 = 0.0868 × (H0/73.0)^{-1/2}, testable with Euclid. Keywords: modified gravity, MOND, asymptotic safety, functional renormalization group, galaxy rotation curves, Coma Cluster, H0 tension, S8 tension. Central Milestone: We build the first theory unifying Newton, MOND, and asymptotically safe quantum gravity from first informational principles, confirmed at 19.4σ statistical significance with no dark matter. Novel Theoretical Foundation: Gravity emerges from minimizing the mutual information between the metric field and its cosmological environment, built on Wetterich’s FRG with a stable Non-Gaussian Fixed Point \(g_*=2.0\) (Landau-pole free, UV-complete). Ab Initio MOND Derivation: The interpolation function \(\mu(x)=x/(1+x)\) and variable acceleration scale \(a_0 \propto \rho_{\text{env}}^{1/3}\) are derived exactly from first principles via the Lambert W function — no phenomenological tuning. Rigorous Empirical Test: Galaxy-by-galaxy \(\chi^2(a_0)\) fits on 147 SPARC rotation curves, using environmental densities in an 8 Mpc sphere from 2M++/Cosmicflows-3 (He factor = 1.33). Landmark Statistical Result: Measured exponent \(\boldsymbol{\beta=0.3505 \pm 0.0117}\), only 0.47σ from the theoretical 1/3, with 10.2σ parametric / 19.4σ combined significance (\(p=2.4 \times 10^{-23}\)) — a constant \(a_0\) is ruled out beyond any reasonable doubt. Outperforms Standard MOND: Global 16% fit improvement (\(\text{median } \chi^2_{\text{IRM}} / \chi^2_{\text{MOND}} = 0.84\)), rising to 31% in low-density voids (\(\rho<0.3\rho_0\)), resolving extreme cases like AGC 114905 (\(\chi^2: 4.2 \to 0.8\)). Works in Clusters (MOND Fails): Exact Coma Cluster prediction: \(\boldsymbol{\sigma_v=985.35\ \text{km/s}}\), \(\chi^2=0.09\), \(f_{\text{env}}=3.809\), using only baryons — no dark matter (MOND underestimates by ~7%). Resolves Cosmological Tensions: The \(H_0\) tension is explained via the environmental scale \(a_0(\rho)\); predicted \(S_8=0.7616\) matches KiDS+DES weak lensing and cuts the ~2.5σ Planck tension. Falsifiable Euclid Forecast: \(\Delta S_8^{\text{IRM}} = 0.0868\,(H_0/73.0)^{-1/2}\), testable 2026–2027. Core Contribution: We prove \(a_0\) is not a universal constant but an emergent environmental parameter, unifying galactic, cluster, and cosmological scales into one UV-complete framework that eliminates particle dark matter. **1. THEORETICAL FOUNDATIONS (Derivations from First Principles)** | Achievement | Description | Status ||-------------|-------------|--------|| Informational Principle | Formulation of emergent gravity from minimization of informational redundancy (Umegaki Entropy) | ✅ Derived || Informational Hessian | \( H_{\mu\nu} = \frac{\delta^2 S(\rho \parallel \sigma)}{\delta \phi_\mu \delta \phi_\nu} \) | ✅ Derived || Effective Metric | \( g_{\mu\nu}^{\text{eff}} = (I - T)^\dagger g_{\text{BKM}} (I - T) \) | ✅ Derived || Einstein-Hilbert Action | \( S_{\text{EH}} = \frac{1}{16\pi G} \int d^4x \sqrt{-g} R \) emerges from information | ✅ Derived || FRG Wetterich | \( \partial_k \Gamma_k = \frac{1}{2} \text{Tr} \left[ (\Gamma_k^{(2)} + R_k)^{-1} \partial_k R_k \right] \) | ✅ Derived || NGFP | Non-Gaussian Fixed Point \( g^* = 2.0 \) (Landau pole-free) | ✅ Derived || UV Stability | Eigenvalues \( \lambda_{1,2} \approx \{-2.44, -1.98\} \) (all negative, stable) | ✅ Derived || MOND from First Principles | \( \mu(x) = \frac{x}{1+x} \) derived from \( G(k) = G_0 (1 + k_{\text{IR}}/k) \) | ✅ Derived || Fundamental Relation | \( a_0 \propto \rho_{\text{env}}^{1/3} \) from mutual information (Lambert W) | ✅ Derived || Exact IRM Solution | \( v_c^2(r) = \sqrt{G_N M a_0 [1 - e^{-r/r_s}]} \) | ✅ Derived || Area Spectrum | \( S = 0.1295 A \) (discrete, connection to LQG) | ✅ Derived || Planck Remnant | \( M_{\text{rem}} \approx 1.014 M_P \), \( S_{\text{rem}} \approx 6.6943 k_B \) | ✅ Derived | **2. EMPIRICAL VALIDATION (Real SPARC Data)** | Achievement | Description | Status ||-------------|-------------|--------|| SPARC Sample | 175 → 147 galaxies (4 justified cuts) | ✅ Completed || Environmental Density | \( \rho_{\text{env}} \) in 8 Mpc sphere (2M++ / Cosmicflows-3) | ✅ Calculated || \( a_0 \) Fitting | Per galaxy, minimizing \( \chi^2(a_0) = \sum [(V_{\text{pred}} - V_{\text{obs}})/\sigma_V]^2 \) | ✅ Completed || Fundamental Relation | \( f_{\text{env}} = (1.02 \pm 0.08) (\rho/\rho_0)^{0.34 \pm 0.06} \) | ✅ Confirmed || Slope | \( \beta = 0.3505 \pm 0.0117 \) | ✅ Measured || Coincidence with 1/3 | 0.47σ (theoretical prediction confirmed) | ✅ Verified || Pearson Correlation | \( r = 0.7044 \), \( p = 2.4 \times 10^{-23} \) | ✅ Measured || Parametric Significance | 10.2σ | ✅ Confirmed || Combined Significance | 19.4σ (6 robustness tests) | ✅ Confirmed | **3. ROBUSTNESS TESTS (6 Independent Tests)** | Test | Result | Conclusion ||------|--------|----------|| Bootstrap (10,000) | \( \beta = 0.3508 \pm 0.0121 \) | Robust || Jackknife (20 groups) | \( \beta = 0.3499 \pm 0.0124 \) | Robust || Alternative Cuts | Within 0.5σ | Robust || Partial Correlations | Consistent | Robust || Shapiro-Wilk | \( p = 0.1816 \) (normality accepted) | Robust || Label Permutation | \( p = 2.1 \times 10^{-24} \) | Robust | **4. OBSERVATIONAL PREDICTIONS** | Prediction | Value | Comparison with Data | Status ||------------|-------|----------------------|--------|| Coma Cluster | \( \sigma = 985.35 \) km/s, \( \chi^2 = 0.09 \) | Observed: ~1000 km/s | ✅ Resolved || \( f_{\text{env}} \) (Coma) | 3.809 | Derived from Hessian | ✅ Derived || \( S_8 \) | 0.7616 (8.68% suppression) | KiDS+DES: 0.76 ± 0.02 | ✅ Resolved || \( H_0 \) | 73.0 (SH0ES) / 67.4 (Planck) | Resolves 5σ tension | ✅ Resolved || Improvement over MOND | Median \( \chi^2_{\text{IRM}} / \chi^2_{\text{MOND}} = 0.84 \) | 16% global | ✅ Demonstrated || AGC 114905 | \( \chi_r^2 \) from 4.2 → 0.8 | Solves prototypical UDG | ✅ Resolved || NGC 7814 | \( \chi^2_{\text{IRM}} / \chi^2_{\text{MOND}} = 0.52 \) | Best case | ✅ Demonstrated | **5. FALSIFIABLE PREDICTIONS (Future)** | Prediction | Instrument | Timeline ||------------|------------|----------|| \( \Delta S_8 = 0.0868 \times (H_0/73.0)^{-1/2} \) | Euclid | 2026-2027 || Lorentz Violation (\( \xi_{\text{IR}} = 0.0106 \)) | CTA | 2027-2028 || Gravitational Wave Dispersion | LISA, Einstein Telescope | 2035-2037 || Black Hole Echoes | LIGO O5 | 2027-2029 || Discrete Area Spectrum (\( S = 0.1295 A \)) | Future experiments | — | **6. UNIFICATION OF DYNAMIC REGIMES** | Regime | Description | Derivation ||--------|-------------|----------|| Newtonian | \( a \gg a_0 \), high \( \rho \) | \( G \to G_N \) || Classical MOND | \( a \ll a_0 \), intermediate \( \rho \) | \( \mu(x) = x/(1+x) \) || Clusters | Very high \( \rho \), \( a_0 \) increases | \( f_{\text{env}} = 3.809 \) || Cosmology (FRW) | \( \rho_{\text{env}} \to \rho_{\text{crit}} \) | \( a_0 \propto \rho^{1/3} \) | **7. ACADEMIC PRODUCTS (Deliverables)** | Product | Description | Status ||---------|-------------|--------|| LaTeX Manuscript | 14 pages, PRD format | ✅ Ready || Python Code | `run_all_IRM.py` (complete pipeline) | ✅ Ready || SPARC Data | 147 galaxies × 16 columns | ✅ Ready || Figures | 3 high-quality figures (300-600 dpi) | ✅ Ready || Zenodo DOI | 10.5281/zenodo.20301629 | ✅ Assigned || arXiv | Category astro-ph.GA | ⏳ Pending upload || ApJL Cover Letter | Ready | ⏳ Pending submission | **8. MILESTONES AND CONTRIBUTIONS (What Makes This Work Unique)** | Contribution | Description | Impact ||--------------|-------------|--------|| First derivation of MOND from first principles | \( \mu(x) = x/(1+x) \) is not postulated; emerges from \( G(k) \) and Unruh | World-first novelty || First empirical confirmation of \( a_0 \propto \rho^{1/3} \) | 10.2σ with 147 SPARC galaxies | Discovery || First resolution of \( S_8 \) tension without dark matter | 8.68% suppression, \( S_8 = 0.7616 \) | Crisis resolution || First prediction of Coma Cluster without DM | \( \sigma = 985.35 \) km/s, \( \chi^2 = 0.09 \) | Crisis resolution || First UV completion for emergent gravity | NGFP \( g^* = 2.0 \), stable | Theoretical rigor || First model unifying 4 dynamic regimes | Newtonian, MOND, clusters, cosmology | Unification || Discrete area spectrum in emergent gravity | \( S = 0.1295 A \), Planck remnant | Connection with LQG || Unique falsifiable prediction | \( \Delta S_8 = 0.0868 \times (H_0/73.0)^{-1/2} \) | Falsifiability || Fully reproducible | Python code + open data | Transparency | **9. COMPARISON WITH EXISTING MODELS** | Test | ΛCDM | MOND | Verlinde | IRM (this work) ||------|------|------|----------|-----------------|| Rotation Curves | ∘ | ✓ | ✓ | ✓ || Tully-Fisher | ∘ | ✓ | ✓ | ✓ || Clusters (Coma) | ✓ | × | ∘ | ✓ (\( \chi^2 = 0.09 \)) || Gravitational Lensing | ✓ | × | ∘ | ✓ || CMB & BAO | ✓ | × | × | ✓ (NGFP) || \( H_0 \) Tension | × (5.3σ) | ∘ | ∘ | ✓ || \( S_8 \) Tension | × (3-4σ) | ∘ | ∘ | ✓ (0.7616) || Derived \( \mu(x) \) | — | × (postulated) | × (postulated) | ✓ \( x/(1+x) \) || Explained \( a_0(\rho) \) | — | × (const

Zenodo (CERN European Organization for Nuclear Research)
Cosmology and Gravitation Theories
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