Neutrino Chirality, Majorana Possibility, and the Antimatter Link
Creators: name: Kirjonen, Miikka Markus
name: Kirjonen, Miikka Markus
Publisher: name: Zenodo
Year: 2025
Subjects: subject: antimatter
subject: Dark matter
subject: superfluid
subject: gravitational anomalies
subject: superfluid substrate
subject: Bose-einstein condensates
subject: chirality
subject: neural coherence
subject: oscillatory modes
subject: 0 K
subject: the Resonance Synchronization Model (RSM)
subject: spacetime
subject: Dirac
subject: matter antimatter symmetry
subject: overtones
subject: fractal recursion
subject: harmonic structure
subject: Neutrinos
subject: neutrinos
subject: Majorana
subject: Fermions
subject: fermionic
subject: semi‐Dirac
subject: phase-inverted
subject: frictionless
subject: super-conductive
subject: Energy conversion
subject: energy
subject: anti matter
subject: Cosmic Radiation
subject: Cosmic Radiation/adverse effects
subject: coherence

description: In the Resonance Synchronization Model (RSM), spacetime is conceived as a superfluid wavefield, enabling frictionless propagation and robust coherence across scales. This work explores an alternative perspective in which antimatter phenomena are reinterpreted as phase inversions within this coherent wavefield. In standard physics, antimatter is merely matter’s mirror image—possessing equal mass and opposite charge—while neutrinos are typically described as strictly left‐handed if Dirac, or, in the Majorana scenario, as unifying matter and antimatter states. Here, we propose that each “crest” (matter) in the universal wavefunction is complemented by a “trough” (antimatter) that is phase‐inverted yet equally crucial for maintaining overall coherence. Within RSM, partial “meltdown synergy” may cause the conventional separation between opposite chiral states to collapse under a deeper wave coherence. This suggests that neutrino chirality—whether in a Dirac, semi‐Dirac, or Majorana form—can be understood as a vantage‐limited effect: what appears as distinct matter and antimatter states may in fact be different manifestations of the same underlying phase structure.

Furthermore, superfluid conduction at near 0 K underscores the illusion of separation, offering a wave-based framework for phenomena such as dark matter anomalies, neural synchrony, and bosonic–fermionic interplay.e hypothesize that if neutrinos, especially those with sterile or heavy characteristics, partly exist in hidden “trough” states, then the ensuing partial mixing of left– and right–handed components may bridge the matter–antimatter boundary. Under this view, the reorganization of energy from wave crests to troughs—captured by our formal expansions and meltdown synergy operators — may generate the observational illusions of “unseen mass” or subtle gravitational anomalies.

This framework draws an analogy to a vibrating string, where the oscillatory behavior naturally produces alternating crests and troughs. In the context of RSM, the universal wavefunction is not a mere superposition of independent particles; rather, it is a continuum of oscillatory modes in which constructive interference at the crests (matter) is balanced by the phase-inverted troughs (antimatter). Such a balance is not only mathematically elegant but is also vital for the global symmetry and energy conservation of the system. Moreover, the phenomenon of superfluid conduction—observed in systems cooled near absolute zero — illustrates an environment in which frictionless transport prevails. In such conditions, the traditional notion of discrete “fermionic lumps” or separated matter and antimatter states begins to dissolve. We propose that what appear to be distinct chiralities or separate matter–antimatter states are, in fact, artifacts of our vantage-limited sampling. These observations emerge from partial “meltdown expansions” of the underlying universal wavefunction, which, when fully coherent, manifests as a unified phase field.