We propose a coherent physical framework in which the properties of elementary particles emerge from the topological and hydrodynamic dynamics of a Superfluid Energy Field (SEF), where the physical vacuum is described as a coherent medium governed by a complex scalar field. Within this approach, particles are not treated as fundamental point-like entities but are reinterpreted as localized, finite-energy topological defects—such as vortices and solitons—of the underlying field configuration. These defects are characterized by quantized phase winding, leading to conserved topological charges that naturally ensure their stability. We show that key physical properties, including mass, can be understood as emergent features of the field configuration. In particular, the effective mass arises from the energy stored in both core deformations and extended phase gradients of the field. The framework further provides a natural interpretation of antimatter as the conjugate topological sector associated with opposite phase winding, while particle--antiparticle annihilation corresponds to a relaxation of the field toward its coherent ground state. We discuss how discrete quantum numbers may arise from geometric and topological properties of the field, and we examine the relation of this description to the effective phenomenology of the Standard Model, which is interpreted here as a coarse-grained limit of the underlying dynamics. Finally, we outline potential phenomenological implications, including environment-dependent mass corrections and nontrivial vacuum responses in strong-field regimes. This work establishes a consistent conceptual and mathematical framework in which the properties of matter may be understood as emergent features of an underlying coherent vacuum structure.
Nathalie Puccio (Mon,) studied this question.