Regime Behavior — Standard Model
TriadicFrameworks /docs/theories/standard_model/regimes.md#
The Standard Model (SM) is a sector grammar of excitation modes.
Its behavior changes across regimes R0 → R4 as symmetry, excitation
stability, and gauge geometry shift.
This file defines how the SM behaves in each regime, what collapses,
what stabilizes, and where the theory becomes incomplete.
R0 — No Substrate / No Excitations#
Regime: pre‑physical • no dimensional anchor • no excitation modes
- No fields
- No excitations
- No gauge geometry
- No Higgs potential
- No symmetry to break or restore
SM status:
❌ Undefined — the Standard Model requires a substrate field structure.
R1 — Quantum Regime (Excitations Collapse)#
Regime: quantum‑dominant • no stable sectors • no mass generation
- Excitations do not stabilize
- Gauge geometry collapses into phase structure
- Higgs field inactive; no mass generation
- No confinement; no flavor structure
- Only quantum amplitudes and phase relations remain
SM status:
⚠️ Collapsed — the Standard Model cannot form stable excitation sectors.
R2 — Standard Model Regime (Canonical Behavior)#
Regime: stable excitation sectors • broken electroweak symmetry
- Quarks, leptons, gauge bosons, Higgs appear as stable excitations
- SU(3) × SU(2) × U(1) gauge geometry fully active
- Higgs field generates mass via Yukawa coupling
- Color confinement stable
- Flavor mixing (CKM/PMNS) stable
- Renormalization structure valid
SM status:
✅ Fully active — this is the Standard Model’s natural regime.
R3 — High‑Energy Regime (Symmetry Restoration)#
Regime: high‑energy resonance • sector merging • unification behavior
- Electroweak symmetry restores
- Higgs potential reshapes; mass hierarchy shifts
- Excitation surfaces merge into unified resonance structures
- Gauge couplings run toward unification
- Flavor mixing surfaces shift
- Confinement weakens at extreme energies
SM status:
⚡ Resonance‑extended — the Standard Model behaves as a
high‑energy resonance topology, not a low‑energy sector grammar.
R4 — Cosmological Regime (SM Incomplete)#
Regime: horizon‑scale fields • inflationary dynamics • dark sector
- Standard Model fields insufficient to describe cosmological behavior
- Dark matter, dark energy, inflationary fields dominate
- Gauge geometry incomplete
- Higgs field insufficient for cosmic mass/energy structure
- Excitation sectors no longer define system behavior
SM status:
❌ Incomplete — requires cosmology, QFT‑in‑curved‑spacetime, and
substrate‑level fields beyond the Standard Model.
Summary Table#
| Regime | Behavior | SM Status |
|---|---|---|
| R0 | No substrate; no excitations | ❌ Undefined |
| R1 | Quantum collapse; no stable sectors | ⚠️ Collapsed |
| R2 | Stable sectors; Higgs active; gauge geometry stable | ✅ Fully active |
| R3 | Symmetry restoration; sector merging; unification | ⚡ Resonance‑extended |
| R4 | Cosmological fields dominate; SM incomplete | ❌ Incomplete |
Drift Boundaries#
To maintain coherence:
- Do not extend SM into R4
- Do not collapse SM into R1
- Do not treat excitations as particles
- Do not treat gauge fields as forces
- Do not treat mass as intrinsic
- Do not treat symmetry as metaphysical
The Standard Model is a sector grammar, not an ontology.
Cross‑Module Notes#
- QFT: provides excitation structure
- QM: dominates R1 behavior
- Cosmology: dominates R4 behavior
- Thermodynamics: interacts via high‑energy resonance
- Information Theory: classifies charges and symmetry states