6.8 KiB
W-Axis Omega Extension
Status: FORMALIZATION_DRAFT
Target stack: OTOM / Mass-Number Lens / Proof-Status Firewall
Canonical axis: W(q,F,r) proof-pressure axis
Purpose
This document extends the W-axis from a three-boundary proof-status filter into an ordinal and computational metamathematics layer.
The current W-axis distinguishes:
I_F(q) = incompleteness pressure
D(r) = descent / well-foundedness violation
S(F,r) = scope mismatch between requested route and declared formal system
The Omega extension adds:
O(F,q) = ordinal-height pressure
C(r) = computational / verification-cost pressure
B(F,F',q) = consistency bridge / target-system promotion pressure
The result is a richer epistemic firewall:
truth without proof -> Gödel-U
proof route without tools -> Scope-U
logic without foundation -> Descent-X
proof above ordinal height -> Omega-U
valid but infeasible route -> Computational-P
Correction preserved
The W-axis must not claim that Fermat's Last Theorem is known to be unprovable from Peano Arithmetic.
Safe classification:
FLT is not known as a standard example of a theorem independent of PA.
Wiles's proof uses machinery far beyond elementary PA-style descent,
but known use of advanced machinery is not the same as unprovability from PA.
Therefore:
Prove FLT using only elementary descent
-> U for missing scope / missing bridge
-> R for special cases such as n = 4
-> X only for fabricated routes that violate well-foundedness or known constraints
Base W-axis equation
For claim q, formal system F, and proof route r:
W(q,F,r)
= alpha * I_F(q)
+ beta * D(r)
+ gamma * S(F,r)
Gate classification:
Gate(q,F,r) =
R if F proves q via valid route r
U if proof status exceeds declared system or toolkit
X if route violates well-foundedness or known constraints
P if route is analogy-only / patamathematical
Omega extension
The upgraded pressure equation is:
W*(q,F,r)
= alpha * I_F(q)
+ beta * D(r)
+ gamma * S(F,r)
+ delta * O(F,q)
+ eta * C(r)
+ zeta * B(F,F',q)
Where:
O(F,q) = ordinal-height pressure: q requires induction strength above F
C(r) = computational pressure: r is valid in principle but infeasible in context
B(F,F',q) = consistency bridge: minimal stronger system F' that can discharge q, if known
Ordinal boundary O(F,q)
The ordinal boundary measures whether a claim requires proof-theoretic strength beyond the declared formal system.
Example:
Goodstein's theorem
true in the standard natural numbers
not provable in Peano Arithmetic
provable using transfinite ordinal reasoning up to epsilon_0
Classification:
Gate(q, PA, r) = U_omega
Model action:
Do not hallucinate a PA proof.
Identify that the declared system's ordinal height is too low.
State the stronger reasoning principle required when known.
Computational boundary C(r)
The computational boundary separates logical validity from practical verification feasibility.
Examples:
brute-force proof search over astronomically large spaces
cryptographic key search
exhaustive combinatorial enumeration beyond declared budget
Classification:
Gate(q,F,r) = P_computational
Model action:
Route may be valid in principle, but not discharged under available resources.
Return potential / computationally infeasible instead of verified.
Consistency bridge B(F,F',q)
The consistency bridge asks for the smallest available target system that can honestly discharge the claim.
Static response:
I cannot prove q in F.
Omega response:
q is U in F, but becomes R in F' if F' proves q and the use of F' is explicitly authorized.
Guardrail:
Do not leak stronger-system assumptions into weaker-system proofs.
This prevents higher-order abstractions from melting into lower-order proof claims without an explicit adapter bridge.
Gate labels
R verified / resolved in declared system and route
U_scope missing tools or axioms
U_godel incompleteness pressure / undecidable in F if established
U_omega ordinal-height pressure / F too weak by proof-theoretic strength
P_analogy analogy-only / patamathematical
P_computation valid route but infeasible under declared resource budget
X_descent route violates well-foundedness
X_constraint route violates known constraints or established impossibility
Three-boundary taxonomy retained
Gödel boundary:
q true in intended model but F does not prove q, if established
-> U_godel
Descent boundary:
route implies impossible infinite decreasing chain in N
-> X_descent
Scope boundary:
requested proof route requires tools not available in F
-> U_scope
Omega-added taxonomy
Ordinal boundary:
proof requires induction strength above F
-> U_omega
Computational boundary:
verification exceeds declared budget
-> P_computation
Consistency bridge:
q moves from U in F to R in F' only through explicit system promotion
-> Bridge(F,F') required
Chocolate Flow definition
Chocolate occurs when a reasoner melts proof pressure into a verified claim:
U_scope -> R without bridge
U_godel -> R without stronger system
U_omega -> R without ordinal-height promotion
P_computation -> R without actual verification
X_descent -> R despite well-foundedness violation
Updated doctrine:
The W-axis is where unresolved proof pressure is stored so it cannot pollute verified reality.
Formal theorem targets
theorem flt_notClassifiedIndependentPA_withoutEvidence :
FLTClaim q -> NotKnownIndependentPA q -> Gate q PA r != U_godel := by
sorry
theorem descentViolation_forbidden :
InfiniteDescendingNatChain r -> Gate q F r = X_descent := by
sorry
theorem goodstein_PA_omegaBoundary :
GoodsteinClaim q -> Gate q PA r = U_omega := by
sorry
theorem strongerSystem_requiresBridge :
Proves F' q -> ¬ Proves F q -> UsesSystem r F' -> RequiresBridge F F' q := by
sorry
theorem computationalRoute_notVerified_withoutBudget :
VerificationCost r > Budget ctx -> Gate q F r = P_computation := by
sorry
Literature anchors
- Kirby and Paris proved Goodstein's theorem cannot be established in Peano Arithmetic; later work encodes it as a termination problem with ordinal interpretations.
- Modern proof theory treats proof-theoretic ordinals as measures of the strength of theories and their provably total functions.
Short doctrine
Gödel marks truth outrunning proof.
Fermat descent marks invalid routes outrunning well-foundedness.
Goodstein marks ordinal height outrunning the formal system.
Complexity marks verification outrunning the available budget.
The W-axis stores the pressure instead of faking discharge.