We present a unified geometric framework in which all physical phenomena emerge from the structure of a three-dimensional charge space spanned by orthogonal planes (EM, Neutral, Charge) sharing a common displacement field VV. Particles are characterized by their orientation in this space rather than by intrinsic flavor quantum numbers. Interactions are geometric couplings between charge planes, mediated by the shared fields VV and the Higgs. Space-time is created dynamically by VV, and special relativity emerges from charge-space rotations preserving the total incidence. The framework rests on eight experimental inputs: the electromagnetic coupling, the electron mass, the neutron-proton mass difference, the string tension, the Fermi constant, the ZZ boson mass, the QCD deconfinement temperature, and the nuclear pairing gap. All remaining quantities are derived. Key predictions include the pion mass (mπ=136mπ=136 MeV, agreement 0.76%0.76%), the WW boson mass (MW=80.38MW=80.38 GeV, agreement 0.004%0.004%), and the Hubble constant (H0≈70H0≈70 km/s/Mpc), the last obtained from a geometric derivation of the Proca mass M0M0 via three-dimensional mode counting in charge space. The framework predicts a third elementary excitation — the BACON — as the pure excitation of the Charge plane, with mass mB=0.850mB=0.850 GeV, spin 1/21/2, electric charge zero, and absolute stability, making it a natural cold dark matter candidate. Quark confinement is derived as a thermodynamic necessity: the torsional self-energy of an isolated quark (∼1019∼1019 GeV) exceeds the pair-creation cost by twenty-two orders of magnitude. Fractional quark charges (+2/3+2/3, −1/3−1/3) are shown to be the only possibilities consistent with C3C3 geometry and simultaneous torsion cancellation plus correct total charge. The CKM matrix emerges from angular projections with a single rotation angle δ=14.8∘δ=14.8∘, and the CP-violating phase is identified as a Berry phase. Neutrino mixing is reformulated without a fundamental PMNS matrix: observed oscillations are the temporal evolution of vector superpositions in charge space. Electroweak resonances are reinterpreted as collective oscillations of the Neutral and Charge fields without fundamental mediator particles. The Breit-Wigner line shape emerges from forced damped oscillator dynamics with NACR=7358NACR=7358 coherent modes. The muon g−2g−2 anomaly receives a geometric correction of order 10−910−9 with the correct sign, bounded by the current experimental discrepancy. All tree-level QED cross-sections are exactly reproduced. Electromagnetism and gravity are unified through a common Proca/Maxwell structure, and the hierarchy problem is resolved geometrically without fine-tuning. The framework is consistent with all current LHC results, precision electroweak data, and flavor physics measurements. Falsifiable predictions include the BACON, the energy dependence of the weak coupling (αweak=1/38.7αweak=1/38.7 at low energies rising to 1/301/30 at the ZZ pole), cosmic deceleration (q0>0q0>0), and specific subshell closures in the nuclear chart. Open problems are catalogued honestly, including the first-principles derivation of δeampδeamp, the precise evaluation of the geometric measure in loop integrals, and the numerical solution of the two-dimensional Schrödinger equation for the full hadronic spectrum.
Ricardo Morales Velásquez (2026) studied this question.