Encyclopedia Foundation Foundation Time As Orbit Recognition Step Iterates Succ
ARTICLE 2 claims 2 theorems
Foundation Time As Orbit Recognition Step Iterates Succ
A formal proof shows that each recognition event advances a counter by exactly one, making time a discrete counting process.
The tick as counting
Time, in the Recognition Science framework, is treated as a sequence of discrete events. The framework's central object is the ledger, a discrete record of events. Each event is a recognition, the act of registering something. The declaration recognitionStep_iterates_succ is a machine-checked theorem stating that every recognition step advances a tick counter by exactly one. In plain terms, the theorem proves that the ledger's count of events and the sequence of ticks are the same thing: one recognition, one tick.
This is a structural result, not a physical one. The theorem establishes a combinatorial identity: the tick counter is a natural-number object, the formal mathematical structure that supports counting and recursion. The framework's library proves this by showing that the tick type is canonically equivalent to the natural numbers, and that the recognition step acts as the successor function. The result is that time, as a sequence of ticks, is not an additional ingredient added to the framework's physics. It is the inevitable counting structure that recognition itself produces.
The declaration does not claim that this counting structure is metric time, the kind measured by clocks with durations. It does not derive the arrow of time, the direction from past to future, nor does it explain the origin of the framework's eight-tick cycle. Those are separate targets. What the theorem establishes is narrower and precise: the recognition step is the successor operation on the tick counter, and that counter is the natural-number object. The framework's claim is that time is the orbit of recognition, and this theorem is the step that makes that claim precise.
THEOREM recognitionStep_iterates_succ · IndisputableMonolith/Foundation/TimeAsOrbit.lean
/-- A `RecognitionStep` advances the tick by one, equivalently applies
`tickSucc` to the input snapshot's tick. This is the bridge from the
ledger dynamics of `TimeEmergence` to the abstract natural-number object
on `Tick`. -/
theorem recognitionStep_iterates_succ (step : RecognitionStep) :
step.output.tick = tickSucc step.input.tick := by
have hadv := step.tick_advance
cases hin : step.input.tick with
| mk i =>
cases hout : step.output.tick with
| mk o =>
rw [hin, hout] at hadv
simp [tickSucc]
exact hadv
THEOREM tick_isNNO · tickEquivNat · IndisputableMonolith/Foundation/TimeAsOrbit.lean
/-- **Tick is a Lawvere natural-number object.** Together with `tickZero`
and `tickSucc`, the `Tick` type satisfies the universal property of the
natural-number object: primitive recursion exists and is unique. -/
def tick_isNNO :
IsNaturalNumberObject (N := Tick) tickZero tickSucc where
recursor := fun {X} x f => tickRecursor x f
recursor_zero := fun {X} x f => tickRecursor_zero x f
recursor_step := fun {X} x f t => tickRecursor_succ x f t
recursor_unique := by
intro X x f h hz hs t
-- Reduce to induction on t.index.
suffices hgen : ∀ n : Nat, h ⟨n⟩ = tickRecursor x f ⟨n⟩ by
have := hgen t.index
cases t
exact this
intro n
induction n with
| zero => exact hz
| succ n ih =>
have hstep : h ⟨n + 1⟩ = h (tickSucc ⟨n⟩) := rfl
rw [hstep, hs ⟨n⟩, ih]
rfl
/-- The canonical equivalence between `Tick` and `Nat` via the index. -/
def tickEquivNat : Tick ≃ Nat where
toFun t := t.index
invFun n := ⟨n⟩
left_inv := by intro t; cases t; rfl
right_inv := by intro n; rfl
What this page does not claim
The theorem does not derive metric time or clock durations. The theorem does not establish the arrow of time. The theorem does not explain the origin of the eight-tick cycle.
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/Foundation/TimeAsOrbit.lean
expected axiom basis: [propext, Classical.choice, Quot.sound] (the Lean kernel's standard three; no RS-specific axioms)
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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:
- How does the framework derive metric time, with durations, from this discrete counting structure?
- What additional structure forces the arrow of time, the direction from past to future?
- How does the eight-tick cycle arise from the natural-number object?
MACHINE LAYER · GROUNDED CLAIM TABLE · CLICK TO EXPAND
THEOREM recognitionStep_iterates_succ · IndisputableMonolith/Foundation/TimeAsOrbit.lean
/-- A `RecognitionStep` advances the tick by one, equivalently applies `tickSucc` to the input snapshot's tick. This is the bridge from the ledger dynamics of `TimeEmergence` to the abstract natural-number object on `Tick`. -/ theorem recognitionStep_iterates_succ (step : RecognitionStep) : step.output.tick = tickSucc step.input.tick := by have hadv := step.tick_advance cases hin : step.input.tick with | mk i => cases hout : step.output.tick with | mk o => rw [hin, hout] at hadv simp [tickSucc] exact hadvEvery recognition step advances a tick counter by exactly one. recognitionStep_iterates_succ · IndisputableMonolith/Foundation/TimeAsOrbit.leanTHEOREM tick_isNNO · tickEquivNat · IndisputableMonolith/Foundation/TimeAsOrbit.lean
/-- **Tick is a Lawvere natural-number object.** Together with `tickZero` and `tickSucc`, the `Tick` type satisfies the universal property of the natural-number object: primitive recursion exists and is unique. -/ def tick_isNNO : IsNaturalNumberObject (N := Tick) tickZero tickSucc where recursor := fun {X} x f => tickRecursor x f recursor_zero := fun {X} x f => tickRecursor_zero x f recursor_step := fun {X} x f t => tickRecursor_succ x f t recursor_unique := by intro X x f h hz hs t -- Reduce to induction on t.index. suffices hgen : ∀ n : Nat, h ⟨n⟩ = tickRecursor x f ⟨n⟩ by have := hgen t.index cases t exact this intro n induction n with | zero => exact hz | succ n ih => have hstep : h ⟨n + 1⟩ = h (tickSucc ⟨n⟩) := rfl rw [hstep, hs ⟨n⟩, ih] rfl/-- The canonical equivalence between `Tick` and `Nat` via the index. -/ def tickEquivNat : Tick ≃ Nat where toFun t := t.index invFun n := ⟨n⟩ left_inv := by intro t; cases t; rfl right_inv := by intro n; rflThe tick counter is a natural-number object, canonically equivalent to the natural numbers. tick_isNNO · tickEquivNat · IndisputableMonolith/Foundation/TimeAsOrbit.lean