Why Physicists Say "Maybe There Are No Particles": A Space-Phase (SP3) Resolution of the Particle–Wave False Dichotomy
Abstract
Recent decades have seen a growing rhetorical shift in fundamental physics toward theclaim that “maybe there are no particles.” This view arises not from experimental failure,but from the mathematical structure of quantum field theory and the ubiquity of wave-likebehavior in quantum experiments. However, this position introduces conceptualcontradictions: discrete detection events persist, particle colliders remain indispensable,and the measurement problem continues unresolved. This paper argues that the particle–wave dichotomy is a false opposition created by the absence of an explicit ontologicalsubstrate. Within the Space-Phase-3 (SP3) framework, both particles and waves areunderstood as interaction modes of a conditionable space-phase. Particles correspond tostable, localized space-phase conditioning structures that support discrete energyexchange, while waves correspond to propagating space-phase modulations.Measurement and “collapse” are reinterpreted as enforced re-conditioning and relaxationof space-phase, eliminating the need for metaphysical collapse postulates. The SP3framework clarifies why wave-only or particle-only descriptions are incomplete, restoresphysical meaning to experimental practice such as particle colliders, and resolveslongstanding interpretational paradoxes without altering successful predictivemathematics.
Fields of Study & Subjects
Quantum Mechanics and Applications
Quantum and Classical Electrodynamics
Relativity and Gravitational Theory
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 13 January 2026
- Document type
- Preprint