IndisputableMonolith.Gravity.NoGraviton
In Recognition Science, gravity is large-scale ledger curvature, not a force needing a gauge boson. This module packages the no-graviton stance: gravity is emergent and not force-mediated, there is no separate graviton quantum, the RS coupling κ is fixed by φ alone (Fibonacci form), and GW polarizations equal two as in GR. Downstream UnitBridge converts κ_rs = 8φ⁵ into SI BMV phase rates. Structure is theorem packaging over ZeroParameterGravity plus positivity and polarization lemmas.
claimGravity is emergent curvature of the recognition ledger, not a force mediated by a gauge boson; there is no separate graviton quantum. The RS coupling is $\kappa_{\mathrm{rs}} = 8\varphi^5$ (from $\varphi$ alone, Fibonacci form), with $\kappa_{\mathrm{rs}} > 0$. Gravitational waves have exactly two polarizations, matching GR. The BMV coupling built from $\kappa_{\mathrm{rs}}$ is positive.
background
Recognition Science treats gravity as geometry of the ledger lattice rather than a fundamental interaction. The parent ZeroParameterGravity module states G-001: gravity is not a fundamental force; it is large-scale curvature induced by defect distributions on the ledger. Constants supply the RS time quantum τ₀ = 1 tick; AlphaDerivation supplies φ-dressing and recognition-scale content used when couplings are written in RS-native units.
This module sharpens the particle-physics reading of that claim. If gravity is ledger curvature, there is no need for a spin-2 gauge boson as mediator. The coupling that appears in the quantum channel is κ_rs, forced from φ (with the band from ZeroParameterGravity.kappa_bounds), not fitted. Sibling names mark the local vocabulary: emergent gravity, no force mediation, no separate graviton quantum, κ from φ alone, two GW polarizations, and a positive BMV coupling.
proof idea
Not a single theorem: a gravity-domain module that packages consequences of ZeroParameterGravity. Core stance theorems assert gravity is emergent and not force-mediated, hence no separate graviton quantum. Positivity lemmas derive κ > 0 and κ ≠ 0 from the emergent picture. Coupling lemmas identify κ with a pure φ expression (Fibonacci form, κ_rs = 8φ⁵ in the downstream bridge). Polarization lemmas count GW modes and match GR (exactly two). BMV coupling definitions and positivity close the quantum-channel interface. Imports are Mathlib, Constants, AlphaDerivation, and ZeroParameterGravity; no independent dynamical derivation lives here.
why it matters in Recognition Science
Places the no-graviton reading of RS gravity in Lean so later quantum-channel work can cite it cleanly. Feeds IndisputableMonolith.Gravity.NoGraviton.UnitBridge, which formalizes Theorem 4 of Gravity from Recognition IV: the dimensionless κ_rs = 8φ⁵ (band from ZeroParameterGravity.kappa_bounds) converts to the dimensionful BMV entangling phase rate via an RS-native-to-SI bridge.
Aligns with framework landmarks: gravity as ledger curvature (G-001), couplings built from φ rather than free parameters, and continuity with GR at the level of two GW polarizations. Does not replace the full zero-parameter gravity derivation; it is the particle-content and coupling interface layer between ZeroParameterGravity and the BMV unit bridge.
scope and limits
- Does not derive Einstein equations or full GR dynamics from the ledger.
- Does not prove experimental absence of gravitons beyond the RS emergent reading.
- Does not fix exact infrared α; AlphaDerivation seed identification remains open.
- Does not itself perform the SI unit bridge; that lives in NoGraviton.UnitBridge.
- Does not introduce free fit parameters for κ; κ is φ-fixed in this package.
used by (1)
depends on (3)
declarations in this module (28)
-
def
gravity_is_emergent -
theorem
gravity_not_force_mediated -
theorem
no_separate_graviton_quantum -
theorem
emergent_implies_kappa_pos -
theorem
emergent_implies_kappa_ne_zero -
theorem
kappa_from_phi_alone -
theorem
kappa_fibonacci_form -
def
gw_polarization_count -
theorem
gw_polarizations_eq_two -
theorem
gw_matches_gr -
def
BMV_coupling -
theorem
BMV_coupling_pos -
theorem
BMV_coupling_bounds -
theorem
kappa_integer_phi_power -
theorem
kappa_fibonacci_structure -
structure
NoGravitonCert -
theorem
no_graviton_cert -
def
lattice_tensor_components -
def
lattice_trace_constraint -
def
lattice_gauge_constraints -
def
lattice_gw_modes -
theorem
lattice_gw_modes_eq_two -
theorem
lattice_matches_continuum -
def
fibonacci_square_conjecture -
theorem
fibonacci_square_conjecture_consistent -
def
ilg_parameter_count -
theorem
ilg_zero_params_if_conjecture -
theorem
ilg_one_param_if_not