A Deterministic Charge-Lattice Model of Matter: Proton, Neutron, Quark Patterns, and Nuclear Fusion from ± Charge Geometry

We present a fundamental, deterministic charge-lattice framework in which protons, neutrons, quark-like patterns, electrons, photons, and all light nuclear processes arise from discrete positive (+) and negative (−) charge units arranged in stable 3 × 3 geometric configurations. In this formulation the proton is not composed of three fundamental quarks, but is instead a structurally stable 3 × 3 charge lattice containing five positive and four negative units, thereby reproducing its net charge of +1. The neutron is the complementary lattice containing four positive and five negative units, and becomes electrically neutral when stabilized by an external negative charge. The six “quark flavors” of the Standard Model emerge naturally as the six geometric projections of these 3 × 3 charge matrices. Thus, quarks are not elementary constituents but orientation-dependent charge patterns arising from the underlying lattice geometry. The framework yields a deterministic description of atomic and nuclear transformations. A hydrogen atom consists of one proton lattice and an external negative charge (electron). During hydrogen–hydrogen fusion, an external negative charge enters the nuclear lattice, one positive charge is expelled as a photon, and one proton lattice undergoes a structural reconfiguration into a neutron lattice. As a result, deuterium is formed without invoking probabilistic quantum transitions, solely through charge balancing and lattice rearrangement. This charge-lattice approach provides a unified, mechanical explanation for proton stability, neutron formation, photon emission, and the synthesis of light nuclei. It constitutes a testable and geometrically minimal alternative to the Standard Model quark hypothesis, offering experimentally distinguishable predictions for future high-resolution hadronic imaging and fusion spectroscopy.