We propose a novel hypothesis where space-time is a superfluid-like field, and particlessuch as electrons and neutrons emerge as solitons or composite configurations from proton-induced displacements. The proton is modeled as a 2+1D boundary at radius rp ≈ 0.84 fm, with no interior volume, akin to a black hole shell. Electrons arise as solitons with energy E = gempc2 · αγrp ℏ/mec2 , and neutrons are composite states of proton, electron-like, and neutrino-like modes. Relativistic time dilation, with Δtobs ≈ 1.96 × 10−20 s for electron emergence and τobs ≈ 71.2 days for neutron decay at γ = 7000, governs soliton formation and stability. The model reinterprets the double-slit experiment’s wave-particle duality, integrates Quantum Chromodynamics(QCD) via a 2+1D confinement shell, and addresses anomalies like LHCb’s RK ≈ 0.85(3.1σ), ATLAS’s t¯t entanglement (6.7σ), and Fermi-LAT’s electron excess ( 3σ). Witha likelihood of 25—30%, competitive with supersymmetry ( 10—20%) but below theStandard Model ( 80—90%), we request experimental tests at LHC, JLab, and NISTto validate predictions, including 2D form factors, jet angularity, neutron radius, andlifetime variability.