IndisputableMonolith.Astrophysics.ObservabilityLimits
This module defines observability limits in Recognition Science astrophysics through quantities such as the recognition length and coherence volume derived from the phi-ladder. Astrophysicists modeling detectable stellar masses or photon fluxes from first principles would cite these bounds to constrain observable scales. The module assembles definitions from imported cost functions, golden-ratio lemmas, and time-quantum constants with no internal proofs.
claimObservability limits are given by the recognition length $l_{rec}$, threshold flux $F_{threshold}$, coherence volume $V_{coherence}$, and maximum mass $M_{max}$ on the phi-ladder, all constrained by the time quantum $tau_0 = 1$ tick and golden ratio $phi$.
background
Recognition Science treats physical quantities as occupying discrete phi-tiers, with the golden ratio satisfying $phi^2 = phi + 1$ and fixed-point identity $phi = 1 + 1/phi$ as established in PhiSupport.Lemmas. The fundamental time quantum is $tau_0 = 1$ tick from Constants, while PhiBounds supplies algebraic inequalities confirming $phi = (1 + sqrt(5))/2$. Cost supplies the recognition cost function used to weight emission versus storage. This module sits inside the astrophysics derivations that also cover stellar assembly via recognition-weighted collapse and phi-tier nucleosynthesis.
proof idea
this is a definition module, no proofs
why it matters in Recognition Science
This module supplies the observability limits from lambda_rec and tau_0 constraints to the Astrophysics aggregator and the MassToLight unified certificate. It completes the set of three parallel M/L strategies by adding detectable-scale bounds, eliminating external calibration inputs for cosmic structures.
scope and limits
- Does not derive numerical values for specific observed objects.
- Does not incorporate general-relativity corrections to the limits.
- Does not address dark-matter or non-RS physics components.
- Does not compare predictions against telescope data sets.
used by (2)
depends on (6)
declarations in this module (21)
-
def
J_bit -
theorem
phi_eq_goldenRatio -
def
E_coh -
def
l_rec -
def
F_threshold -
def
V_coherence -
def
M_max -
def
J_mass -
def
J_light -
def
J_total -
structure
OptimalConfig -
theorem
optimal_ratio_is_phi_power -
def
ml_geometric -
theorem
ml_geometric_is_phi -
theorem
ml_geometric_bounds -
theorem
information_balance_gives_phi -
theorem
imf_from_j_minimization -
theorem
agrees_with_stellar_assembly -
theorem
agrees_with_nucleosynthesis -
theorem
ml_from_geometry_only -
theorem
ml_zero_parameter_certificate