Research-Stack/0-Core-Formalism/lean/Semantics/Semantics/MassNumberLinter.lean

236 lines
9.5 KiB
Text
Raw Blame History

This file contains ambiguous Unicode characters

This file contains Unicode characters that might be confused with other characters. If you think that this is intentional, you can safely ignore this warning. Use the Escape button to reveal them.

import Lean
import Lean.Meta
import Semantics.FixedPoint
import Semantics.DecagonZetaCrossing
namespace Semantics.MassNumberLinter
open Lean Meta
/-! # MNLOG Mass Number Linter (Full Meta Monad Version)
Linter based on MNLOG-001 through MNLOG-006 doctrines:
- MNLOG-001: Logic can have a mass-number value only after we say which reality is weighing it
- MNLOG-002: Mass-number valuation supports Gödel-style stress testing
- MNLOG-003: Mass numbers act as imaginary-number-like semantic coordinates
- MNLOG-004: Automation enables review workflow
- MNLOG-006: Geometrically-derived mass numbers from decagon-zeta crossing
The linter automatically detects theorems in the environment and checks that
they have appropriate mass number valuations following the safe formulation.
MNLOG-LINTER-001: Linter enforces review discipline
MNLOG-LINTER-002: Current code compiles
MNLOG-LINTER-003: Linter restricts scope to Semantics.* namespace
NO-TRUTH-SUBSTITUTION GUARDRAIL:
Valuation metadata does not imply theorem truth.
The theorem/proof remains the validator of formal truth.
The mass-number valuation is review metadata only.
MNLOG-006: GEOMETRICALLY-DERIVED MASS NUMBERS
The decagon-zeta crossing provides geometrically-derived invariants:
- φ² ≈ 2.618 (diagonal-to-side ratio from decagon geometry)
- ζ(φ²) (Riemann zeta evaluated at golden exponent)
- Euler product: ∏(1 - p^(-φ²))^(-1) (prime factorization)
These invariants can serve as field-local mass numbers or scaling factors.
-/
/-- Explicit mass number valuation registry structure -/
structure MassNumberValuation where
target : Name -- The theorem being valued
contract : String -- Field/reality contract
validator : String -- Validator specification
residual : String -- Residual model
projection : String -- Projection rule
provenance : String -- Source/documentation of valuation
score : Option Q16_16 -- Optional numerical score
geometricInvariant : Option String -- Optional geometric invariant (e.g., φ², ζ(φ²))
/-- Linter configuration for mass number valuation checks -/
structure MassNumberLinterConfig where
requireValuation : Bool := true -- Require mass number valuations for theorems
checkExplanatoryDiscipline : Bool := true -- Verify field, validator, residual, projection are specified
warnOnMissing : Bool := true -- Warn when valuations are missing
namespaceFilter : Option String := some "Semantics." -- Restrict to specific namespace
deriving Repr
/-- Default linter configuration -/
def defaultConfig : MassNumberLinterConfig := {
requireValuation := true,
checkExplanatoryDiscipline := true,
warnOnMissing := true,
namespaceFilter := some "Semantics."
}
/-- Linter result for a single theorem -/
structure TheoremValuationResult where
theoremName : String
hasValuation : Bool
hasContract : Bool
hasValidator : Bool
hasResidual : Bool
hasProjection : Bool
hasProvenance : Bool
warnings : List String
deriving Repr
/-- Check if a declaration name follows the mass number naming convention -/
def isMassNumberName (name : Name) : Bool :=
let str := name.toString
str.endsWith "Mass" || str.endsWith "mass" || str.contains "MassNumber"
/-- Check if a name matches the namespace filter -/
def matchesNamespaceFilter (name : Name) (filter : Option String) : Bool :=
match filter with
| none => true
| some p => (name.toString).startsWith p
/-- Check if a theorem has a corresponding mass number valuation in the registry -/
def hasMassNumberValuation (theoremName : Name) : MetaM Bool := do
let env ← getEnv
-- Try to find a mass number valuation registry entry
-- In a full implementation, this would look up in an explicit registry
-- For now, use name guessing as fallback
let massName := Name.append theoremName (Name.mkSimple "Mass")
let massNameAlt := Name.append (Name.mkSimple "mass") theoremName
let massNameAlt2 := Name.append theoremName (Name.mkSimple "MassNumber")
-- Check if any of these names exist in the environment
let hasMass := env.contains massName || env.contains massNameAlt || env.contains massNameAlt2
pure hasMass
/-- Check if a mass number valuation has all required MNLOG-001 components -/
def checkValuationComponents (massName : Name) : MetaM (Bool × Bool × Bool × Bool × Bool) := do
let env ← getEnv
-- Try to find the constant info for the mass number
match env.find? massName with
| some _info => do
-- In a full implementation, this would inspect the structure fields
-- For now, return false for all components as a conservative default
pure (false, false, false, false, false)
| none => pure (false, false, false, false, false)
/-- Create a mass number valuation with decagon-zeta geometric invariant -/
def createDecagonZetaValuation (target : Name) (contract : String) (invariant : String) : MassNumberValuation :=
{
target := target,
contract := contract,
validator := "geometric-invariant",
residual := "decagon-zeta-field",
projection := "identity",
provenance := "MNLOG-006: decagon-zeta crossing",
score := none,
geometricInvariant := some invariant
}
/-- Common decagon-zeta invariants for use in mass number valuations -/
def decagonInvariants : List String :=
["phi_squared", "zeta_phi_squared", "euler_product_phi_squared"]
/-- Check if a constant is a theorem (has a proof value) -/
def isTheorem (info : ConstantInfo) : Bool :=
match info with
| .thmInfo _ => true
| _ => false
/-- Run the linter on the current environment, automatically detecting theorems -/
def runLinter (config : MassNumberLinterConfig) : MetaM (List TheoremValuationResult) := do
let env ← getEnv
let mut results : List TheoremValuationResult := []
-- Iterate through all declarations in the environment
for (name, info) in env.constants do
-- Only check theorems that match the namespace filter
if isTheorem info && matchesNamespaceFilter name config.namespaceFilter then
let theoremName := name
let hasVal ← hasMassNumberValuation theoremName
let (hasContract, hasValidator, hasResidual, hasProjection, hasProvenance) ←
if hasVal && config.checkExplanatoryDiscipline then
checkValuationComponents theoremName
else
pure (false, false, false, false, false)
let warnings : List String :=
if config.warnOnMissing && !hasVal then
["Missing mass number valuation for theorem: " ++ theoremName.toString]
else if hasVal && config.checkExplanatoryDiscipline then
let compWarnings : List String := []
let compWarnings := if !hasContract then compWarnings ++ ["Missing field/reality contract"] else compWarnings
let compWarnings := if !hasValidator then compWarnings ++ ["Missing validator specification"] else compWarnings
let compWarnings := if !hasResidual then compWarnings ++ ["Missing residual model"] else compWarnings
let compWarnings := if !hasProjection then compWarnings ++ ["Missing projection rule"] else compWarnings
let compWarnings := if !hasProvenance then compWarnings ++ ["Missing provenance"] else compWarnings
compWarnings
else []
results := List.append results [TheoremValuationResult.mk
theoremName.toString
hasVal
hasContract
hasValidator
hasResidual
hasProjection
hasProvenance
warnings]
pure results
/-- Print linter results (IO version for MetaM lifting) -/
def printResults (results : List TheoremValuationResult) : IO Unit := do
IO.println s!"=== MNLOG Mass Number Linter Results ==="
IO.println s!"Total theorems checked: {List.length results}"
let withValuations := results.filter (·.hasValuation)
let withoutValuations := results.filter (fun r => !r.hasValuation)
IO.println s!"Theorems with valuations: {List.length withValuations}"
IO.println s!"Theorems without valuations: {List.length withoutValuations}"
if List.length withoutValuations > 0 then
IO.println "\n--- Theorems Missing Mass Number Valuations ---"
for result in withoutValuations do
IO.println s!" - {result.theoremName}"
let allWarnings := results.flatMap (·.warnings)
if List.length allWarnings > 0 then
IO.println "\n--- Warnings ---"
for warning in allWarnings do
IO.println s!" {warning}"
/-- Run linter and print results (combines MetaM and IO) -/
def runLinterAndPrint (config : MassNumberLinterConfig) : MetaM Unit := do
let results ← runLinter config
-- Lift IO operation to MetaM
let ioResult ← liftM (printResults results)
pure ioResult
/-! ## Usage
To run the linter automatically on all theorems in the current environment:
```lean
#eval show MetaM Unit from runLinterAndPrint defaultConfig
```
Or use it programmatically:
```lean
def myLinter : MetaM (List TheoremValuationResult) :=
runLinter defaultConfig
```
The linter follows the MNLOG-001 safe formulation:
- Field/reality contract must be specified
- Validator must be declared
- Residual model must be defined
- Projection rule must be provided
This ensures the explanatory discipline required by MNLOG-002.
The linter automatically detects all theorems in the environment and checks
for corresponding mass number valuations using naming conventions:
- theoremName + "Mass"
- "mass" + theoremName
- theoremName + "MassNumber"
-/
end Semantics.MassNumberLinter