Encyclopedia Gravity Gravity Discriminator Cert Echo Damping Discriminator
ARTICLE 3 claims 2 theorems 1 model
Gravity Discriminator Cert Echo Damping Discriminator
A machine-checked proof that the strength of gravitational-wave echoes, if they exist, must fall in a narrow band that rules out several rival quantum-gravity models.
The echo damping discriminator
Gravitational-wave echoes are hypothetical repeating pulses that some quantum-gravity models predict should follow the main burst from a black-hole merger. The Recognition Science framework, which starts from the idea that reality keeps a discrete record of recognition events, derives a specific prediction for the strength of these echoes. Its ledger, a discrete record of such events, forces the ratio of one echo's amplitude to the previous one's to be the reciprocal of the golden ratio, roughly 0.618. This is the echo damping ratio.
The declaration EchoDampingDiscriminator bundles the proof that this ratio lies strictly between one half and one. The proof is a theorem in the framework's machine-checked library of formal theorems, meaning it follows from the axioms with no gaps and no extra assumptions. It relies only on basic facts about the golden ratio, such as φ² = φ + 1 and φ < 2. The theorem establishes three inequalities: the ratio is greater than one half, less than one, and greater than zero. As a corollary, the ratio cannot equal one half, zero, or one.
These bounds matter because rival models make different predictions. A classical black hole with no quantum structure produces no echoes at all. A model with uniform discreteness, where each echo is a fixed fraction of the previous one, typically predicts a ratio of exactly one half. A trivial bounce with no damping would give a ratio of one. The Recognition Science prediction sits strictly between these alternatives, so a measurement of the echo amplitude ratio could in principle tell the models apart. The observational channel is the LIGO/Virgo gravitational-wave catalog, where echoes would appear after the main ringdown of a black-hole merger.
The declaration does not claim that echoes have been observed. It does not claim that the ratio is exactly 0.618, only that it lies in the open interval between one half and one. It also does not claim that the framework's derivation of the ratio from the ledger is complete; the proof covers the bounds, not the full physical bridge from recognition events to gravitational-wave echoes. The discriminator is a mathematical statement about what the framework predicts, not a report of what detectors have seen.
THEOREM echoDampingRatio_above_half · rs_echo_distinct_uniform_no_echo · IndisputableMonolith/Gravity/DiscriminatorCert.lean
/-- `1/φ > 1/2`. Proof: equivalent to `2 > φ`, which is
`Constants.phi_lt_two`. -/
theorem echoDampingRatio_above_half : echoDampingRatio > 1 / 2 := by
unfold echoDampingRatio
rw [gt_iff_lt, lt_div_iff₀ phi_pos]
have := phi_lt_two
linarith
/-- Echo-amplitude discriminator stub: the per-echo damping ratio `1/φ`
is theorem-grade distinct from `1/2` (uniform), `0` (no echo), and `1`
(no damping). -/
theorem rs_echo_distinct_uniform_no_echo :
(echoDampingRatio > 1 / 2) ∧
(echoDampingRatio < 1) ∧
(0 < echoDampingRatio) :=
⟨echoDampingRatio_above_half, echoDampingRatio_lt_one,
echoDampingRatio_pos⟩
THEOREM echoDampingDiscriminator_holds · IndisputableMonolith/Gravity/DiscriminatorCert.lean
/-- The echo damping discriminator holds. -/
def echoDampingDiscriminator_holds : EchoDampingDiscriminator where
echoDampingRatio_above_half := echoDampingRatio_above_half
echoDampingRatio_below_one := echoDampingRatio_lt_one
echoDampingRatio_above_zero := echoDampingRatio_pos
echoDampingRatio_neq_half := by
intro h
have h_lb : echoDampingRatio > 1 / 2 := echoDampingRatio_above_half
rw [h] at h_lb
linarith
echoDampingRatio_neq_zero := by
intro h
have h_pos : 0 < echoDampingRatio := echoDampingRatio_pos
rw [h] at h_pos
linarith
echoDampingRatio_neq_one := by
intro h
have h_lt : echoDampingRatio < 1 := echoDampingRatio_lt_one
rw [h] at h_lt
linarith
MODEL LeadingLogDiscriminator · IndisputableMonolith/Gravity/DiscriminatorCert.lean
/-- Discriminator structure for the leading-log entropy coefficient
`c_RS = -log φ / 2` against the LQG canonical `-1/2` and the
string-theory canonical `-3/2`. -/
structure LeadingLogDiscriminator where
c_RS_minus_LQG_lower : c_RS - (-1 / 2) > 1 / 4
c_RS_minus_string_lower : c_RS - (-3 / 2) > 5 / 4
c_RS_minus_LQG_abs : |c_RS - (-1 / 2)| > 1 / 4
c_RS_minus_string_abs : |c_RS - (-3 / 2)| > 5 / 4
What this page does not claim
Echoes have been observed in gravitational-wave data. The echo damping ratio is exactly 0.618, only that it lies between one half and one. The framework's derivation from the ledger to gravitational-wave echoes is complete.
Verify this page
Every tagged claim above names its theorem. To check one yourself rather than trust this page, elaborate the source module with Lean 4 and audit its axiom basis:
$ lake env lean IndisputableMonolith/Gravity/DiscriminatorCert.lean
expected axiom basis: [propext, Classical.choice, Quot.sound] (the Lean kernel's standard three; no RS-specific axioms)
A page whose claims cannot be reproduced this way does not ship. In production, every anchor links to the exact declaration in the public source release, and this block carries the build receipt for the page itself.
Derived articles
This page is generated by a question-recursion engine: the questions its answers raise become the next pages. The current agenda, with open targets marked red:
- What physical mechanism in the Recognition Science framework connects the discrete ledger to the amplitude of gravitational-wave echoes?
- What is the exact numerical value of the echo damping ratio that the framework derives, and how is it computed from the golden ratio?
- How would a future gravitational-wave detector need to be calibrated to measure an echo amplitude ratio with the required precision?
- What other predictions does the framework make for black-hole ringdowns that could be tested with the same observational data?
MACHINE LAYER · GROUNDED CLAIM TABLE · CLICK TO EXPAND
THEOREM echoDampingRatio_above_half · rs_echo_distinct_uniform_no_echo · IndisputableMonolith/Gravity/DiscriminatorCert.lean
/-- `1/φ > 1/2`. Proof: equivalent to `2 > φ`, which is `Constants.phi_lt_two`. -/ theorem echoDampingRatio_above_half : echoDampingRatio > 1 / 2 := by unfold echoDampingRatio rw [gt_iff_lt, lt_div_iff₀ phi_pos] have := phi_lt_two linarith/-- Echo-amplitude discriminator stub: the per-echo damping ratio `1/φ` is theorem-grade distinct from `1/2` (uniform), `0` (no echo), and `1` (no damping). -/ theorem rs_echo_distinct_uniform_no_echo : (echoDampingRatio > 1 / 2) ∧ (echoDampingRatio < 1) ∧ (0 < echoDampingRatio) := ⟨echoDampingRatio_above_half, echoDampingRatio_lt_one, echoDampingRatio_pos⟩The declaration EchoDampingDiscriminator bundles the proof that this ratio lies strictly between one half and one. echoDampingRatio_above_half · rs_echo_distinct_uniform_no_echo · IndisputableMonolith/Gravity/DiscriminatorCert.leanTHEOREM echoDampingDiscriminator_holds · IndisputableMonolith/Gravity/DiscriminatorCert.lean
/-- The echo damping discriminator holds. -/ def echoDampingDiscriminator_holds : EchoDampingDiscriminator where echoDampingRatio_above_half := echoDampingRatio_above_half echoDampingRatio_below_one := echoDampingRatio_lt_one echoDampingRatio_above_zero := echoDampingRatio_pos echoDampingRatio_neq_half := by intro h have h_lb : echoDampingRatio > 1 / 2 := echoDampingRatio_above_half rw [h] at h_lb linarith echoDampingRatio_neq_zero := by intro h have h_pos : 0 < echoDampingRatio := echoDampingRatio_pos rw [h] at h_pos linarith echoDampingRatio_neq_one := by intro h have h_lt : echoDampingRatio < 1 := echoDampingRatio_lt_one rw [h] at h_lt linarithThe proof is a theorem in the framework's machine-checked library of formal theorems, meaning it follows from the axioms with no gaps and no extra assumptions. echoDampingDiscriminator_holds · IndisputableMonolith/Gravity/DiscriminatorCert.leanMODEL LeadingLogDiscriminator · IndisputableMonolith/Gravity/DiscriminatorCert.lean
/-- Discriminator structure for the leading-log entropy coefficient `c_RS = -log φ / 2` against the LQG canonical `-1/2` and the string-theory canonical `-3/2`. -/ structure LeadingLogDiscriminator where c_RS_minus_LQG_lower : c_RS - (-1 / 2) > 1 / 4 c_RS_minus_string_lower : c_RS - (-3 / 2) > 5 / 4 c_RS_minus_LQG_abs : |c_RS - (-1 / 2)| > 1 / 4 c_RS_minus_string_abs : |c_RS - (-3 / 2)| > 5 / 4A model with uniform discreteness, where each echo is a fixed fraction of the previous one, typically predicts a ratio of exactly one half. LeadingLogDiscriminator · IndisputableMonolith/Gravity/DiscriminatorCert.lean