The "Proton Spin Crisis"—the experimental discovery that valence quarks contribute only about 30% to the proton's total spin—remains a significant challenge for the constituent quark model. Standard Quantum Chromodynamics (QCD) attempts to resolve this by summing contributions from gluon polarization and orbital angular momentum, but lacks a unified geometric principle for this partition. Unified Field Dynamics (UFD) offers a topological resolution. We posit that the proton is not a composite bag of particles, but a single, continuous topological soliton with the topology of a Trefoil Knot (3_1) in the S^3 vacuum fibration. In this framework, "Spin" is identified as the global rotational homotopy class of the entire knot structure, not the arithmetic sum of its local curvature peaks (quarks). We demonstrate that the majority of the angular momentum is stored in the "flux tubes" (the topological strands connecting the crossings) rather than in the crossings themselves. By treating the baryon as a holistic geometric entity, UFD naturally explains why the spin is delocalized and why the "quark spin" is merely a fractional projection of the global topological invariant.