Matter to Dark Energy via Black Hole Mechanism: M2DE/THEAD Theory v7.3 - A Unified Dark Sector from PBH Memory and Percolation

Matter to Dark Energy via Black Hole Mechanism (M2DE/THEAD) Theory v7.3 - A Unified Dark Sector from PBH Memory and Percolation We propose a unified origin for dark matter and dark energy from primordial black holes (PBHs). Bimodal PBH population:- Population A (light, rare): M1 = 5e14 - 1e17 g, f1 = 1e-10, n0 = 1.18e-4 Mpc^-3, lifetime ~10 Gyr, acting as dark energy seeds. Evades Fermi-LAT PRL131 101002 (f < 1e-9).- Population B (heavy, common): M2 = 1-5 M_sun, f2 = 0.2, Omega_PBH = 0.26 as cold dark matter. Allowed by LIGO O3 and OGLE microlensing. Evades Subaru HSC 1e20-1e25 g exclusion. Mechanism:1. Equal matter-antimatter annihilates, rare 3-sigma curvature peaks (delta~0.45) collapse to PBHs.2. Memory stored via Hawking-Perry-Strominger soft hair Q_f and Skyrme topological charge via anomaly inflow (conjectural ansatz, effective field theory).3. Entanglement entropy S_ent with Gibbons-Hawking temperature T_GH = H0/2pi gives rho_eff ~ xi^-3 ~ a^-6 early, grows after percolation.4. Percolation: overlapping spheres eta = n * 4pi xi^3/3, critical eta_c = 0.341889, p_c = 0.28955. With n=n0 a^-3, xi=xi0 a^2, xi0 = 1/(H0 sqrt(n0)) ~10 Mpc, transition at a_T = 0.76 (z_T = 0.32), P_inf = (p-p_c)^0.41, explains coincidence problem. Quintom:Two fields Qm (quintessence) + Qa (phantom), K = [[1,epsilon],[epsilon,1]], epsilon = Pdot_inf/H ~0.2, eigenvalues 1.2, 0.8 >0, c_s^2=1, no ghost/tachyon/gradient instability. Effective w_eff < -1 from growing ~ P_inf, not negative kinetic. CPL w(a)=w0+wa(1-a) best-fit w0=-0.82+-0.08, wa=-0.74+-0.18, consistent with DESI DR2 2025 (arXiv:2503.06586) within 1 sigma. Marginalized mean w0=-0.92, wa=-0.45 shown for comparison. Signatures:- S8(k): 0.83 at large scales, 0.71 at k=0.1 Mpc^-1, average 0.77, dS8/dlnk = -0.05+-0.01 (12.5 sigma for Euclid DR1)- GRB 221009A: LV omega^2=k^2[1+(E/M*)^4], M*~1e10 GeV, coherent Ncoh=P_inf Ntot~1e21 gives effective transparency at 18 TeV, evades Fermi M*>1e11 GeV bound (assumes incoherent)- Future: DESI DR3 Delta chi^2>15, Roman microlensing f1, ET Omega_GW~1e-9 at 1e3 Hz, P(k) 2-5% bump at 0.6 h/Mpc, ISW 5-10% at l<30 Figures:Fig1: Bimodal mass function evading constraintsFig2: Percolation P_inf(a) at a_T=0.76Fig3: w(z) quintom crossing vs DESI DR2

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-08
DOI
https://doi.org/10.5281/zenodo.23236399
Primary Topic
Cosmology and Gravitation Theories
Type
preprint
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preprint

Matter to Dark Energy via Black Hole Mechanism: M2DE/THEAD Theory v7.3 - A Unified Dark Sector from PBH Memory and Percolation

tsz chun jacky leung
Zenodo (CERN European Organization for Nuclear Research)
Cosmology and Gravitation Theories
preprint

Matter to Dark Energy via Black Hole Mechanism: M2DE/THEAD Theory v7.3 - A Unified Dark Sector from PBH Memory and Percolation

tsz chun jacky leung
preprint en

Abstract

Matter to Dark Energy via Black Hole Mechanism (M2DE/THEAD) Theory v7.3 - A Unified Dark Sector from PBH Memory and Percolation We propose a unified origin for dark matter and dark energy from primordial black holes (PBHs). Bimodal PBH population:- Population A (light, rare): M1 = 5e14 - 1e17 g, f1 = 1e-10, n0 = 1.18e-4 Mpc^-3, lifetime ~10 Gyr, acting as dark energy seeds. Evades Fermi-LAT PRL131 101002 (f < 1e-9).- Population B (heavy, common): M2 = 1-5 M_sun, f2 = 0.2, Omega_PBH = 0.26 as cold dark matter. Allowed by LIGO O3 and OGLE microlensing. Evades Subaru HSC 1e20-1e25 g exclusion. Mechanism:1. Equal matter-antimatter annihilates, rare 3-sigma curvature peaks (delta~0.45) collapse to PBHs.2. Memory stored via Hawking-Perry-Strominger soft hair Q_f and Skyrme topological charge via anomaly inflow (conjectural ansatz, effective field theory).3. Entanglement entropy S_ent with Gibbons-Hawking temperature T_GH = H0/2pi gives rho_eff ~ xi^-3 ~ a^-6 early, grows after percolation.4. Percolation: overlapping spheres eta = n * 4pi xi^3/3, critical eta_c = 0.341889, p_c = 0.28955. With n=n0 a^-3, xi=xi0 a^2, xi0 = 1/(H0 sqrt(n0)) ~10 Mpc, transition at a_T = 0.76 (z_T = 0.32), P_inf = (p-p_c)^0.41, explains coincidence problem. Quintom:Two fields Qm (quintessence) + Qa (phantom), K = [[1,epsilon],[epsilon,1]], epsilon = Pdot_inf/H ~0.2, eigenvalues 1.2, 0.8 >0, c_s^2=1, no ghost/tachyon/gradient instability. Effective w_eff < -1 from growing ~ P_inf, not negative kinetic. CPL w(a)=w0+wa(1-a) best-fit w0=-0.82+-0.08, wa=-0.74+-0.18, consistent with DESI DR2 2025 (arXiv:2503.06586) within 1 sigma. Marginalized mean w0=-0.92, wa=-0.45 shown for comparison. Signatures:- S8(k): 0.83 at large scales, 0.71 at k=0.1 Mpc^-1, average 0.77, dS8/dlnk = -0.05+-0.01 (12.5 sigma for Euclid DR1)- GRB 221009A: LV omega^2=k^2[1+(E/M*)^4], M*~1e10 GeV, coherent Ncoh=P_inf Ntot~1e21 gives effective transparency at 18 TeV, evades Fermi M*>1e11 GeV bound (assumes incoherent)- Future: DESI DR3 Delta chi^2>15, Roman microlensing f1, ET Omega_GW~1e-9 at 1e3 Hz, P(k) 2-5% bump at 0.6 h/Mpc, ISW 5-10% at l<30 Figures:Fig1: Bimodal mass function evading constraintsFig2: Percolation P_inf(a) at a_T=0.76Fig3: w(z) quintom crossing vs DESI DR2

Zenodo (CERN European Organization for Nuclear Research)
Cosmology and Gravitation Theories
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Matter to Dark Energy via Black Hole Mechanism: M2DE/THEAD Theory v7.3 - A Unified Dark Sector from PBH Memory and Percolation — tsz chun jacky leung · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS