Encyclopedia Ethics Ethics Moral State Energy Always Positive

ARTICLE 3 claims 2 theorems 1 model

Ethics Moral State Energy Always Positive

In the Recognition Science framework, every admissible moral state carries a strictly positive energy, a theorem its machine-checked library proves.

The energy guarantee

A moral state, in the Recognition Science framework, is a projection of the universal ledger, a discrete record of recognition events, onto a single agent. It tracks two quantities: the agent's reciprocity skew, a log-space measure of imbalance in exchanges, and the energy available for transformations. The framework models this energy as derived from the recognition cost on the agent's bonds, the forced price of recognition events.

The theorem energy_always_positive states that for any moral state, the energy is strictly greater than zero. The proof is immediate from the structure: the energy field is defined to be positive. This is not a claim about the magnitude of energy, nor about its conservation, but a guarantee of its sign. A corollary, total_energy_positive_of_nonempty, extends this to any nonempty list of moral states: the sum of their energies is also strictly positive.

The framework's library, a machine-checked collection of formal theorems, proves these statements. The library also defines globally_admissible states, where the total reciprocity skew across a list is zero, enforcing a conservation law. The energy guarantee holds for any state, admissible or not, but the framework's ethical analysis focuses on admissible collections.

What the theorem does not claim is equally important. It does not assert that energy is bounded, that it is conserved over time, or that a state with zero energy exists. It does not define what constitutes a good or bad action; it only establishes a precondition for any transformation. The positivity is a floor, not a ranking.

In plain terms, the framework guarantees that no agent in a moral state is ever without the wherewithal to act. This is a structural feature of the model, not an empirical finding about human psychology or physics. It is a formal consequence of how the framework defines a moral state, and it grounds ethical analysis in a quantitative foundation.

THEOREM energy_always_positive · IndisputableMonolith/Ethics/MoralState.lean
energy_always_positive · IndisputableMonolith/Ethics/MoralState.lean:205
/-- Energy is always positive for valid moral states -/
theorem energy_always_positive (s : MoralState) : 0 < s.energy :=
  s.energy_pos
THEOREM total_energy_positive_of_nonempty · IndisputableMonolith/Ethics/MoralState.lean
total_energy_positive_of_nonempty · IndisputableMonolith/Ethics/MoralState.lean:232
/-- Total energy is positive if any state has positive energy -/
theorem total_energy_positive_of_nonempty (states : List MoralState)
  (h : states ≠ []) :
 0 < MoralState.total_energy states := by
  -- Helper: total energy is always nonnegative.
  have total_nonneg : ∀ xs, 0 ≤ MoralState.total_energy xs := by
    intro xs
    induction xs with
    | nil =>
        simp [MoralState.total_energy]
    | cons s ss ih =>
        have hs : 0 ≤ s.energy := le_of_lt s.energy_pos
        have hrec : MoralState.total_energy (s :: ss) =
            s.energy + MoralState.total_energy ss := by
          change List.foldl (fun a t => a + t.energy) 0 (s :: ss)
              = s.energy + List.foldl (fun a t => a + t.energy) 0 ss
          simp [List.foldl]
          -- reduce to foldl starting at s.energy, then apply helper lemma
          simpa [add_comm] using (total_energy_foldl_add_const ss s.energy)
        have : 0 ≤ s.energy + MoralState.total_energy ss := add_nonneg hs ih
        simpa [hrec]
  -- Main argument by cases.
  cases states with
  | nil => cases h rfl
  | cons s ss =>
      have hs_pos : 0 < s.energy := s.energy_pos
      have hss_nonneg : 0 ≤ MoralState.total_energy ss := total_nonneg ss
      have : 0 < s.energy + MoralState.total_energy ss :=
        add_pos_of_pos_of_nonneg hs_pos hss_nonneg
      have hrec : MoralState.total_energy (s :: ss) =
          s.energy + MoralState.total_energy ss := by
        change List.foldl (fun a t => a + t.energy) 0 (s :: ss)
            = s.energy + List.foldl (fun a t => a + t.energy) 0 ss
        simp [List.foldl]
        simpa [add_comm] using (total_energy_foldl_add_const ss s.energy)
      simpa [hrec]
MODEL MoralState · IndisputableMonolith/Ethics/MoralState.lean
/-- A moral state represents an agent's projection of the universal ledger.

    This structure connects individual ethical analysis to the underlying
    recognition ledger, ensuring morality is grounded in physics rather than
    arbitrary preferences.
-/
structure MoralState where
  /-- Underlying ledger state (contains Z-patterns, channels, global phase, time) -/
  ledger : LedgerState

  /-- Bonds controlled by this agent (subset of ledger edges).
      These bonds define the agent's domain for action and responsibility. -/
  agent_bonds : Finset BondId

  /-- Agent's local reciprocity skew σ (log-space, must sum to zero globally).

      σ measures the log-multiplier imbalance in exchanges:
      - σ > 0: agent is extracting (moral debt)
      - σ < 0: agent is contributing (moral credit)
      - σ = 0: agent is balanced (reciprocity conserved)

      Global constraint: Σ_i σ_i = 0 (enforced by `valid` field)
  -/
  skew : ℝ

  /-- Recognition cost available for transformations (from RecognitionCost).

      This tracks the J-cost capacity for ethical actions. Virtues that
      transform states must respect positive energy constraints.
  -/
  energy : ℝ

  /-- Proof: global reciprocity net skew σ = 0 (admissibility condition).

      This enforces the conservation law from Morality-As-Conservation-Law.tex:
      admissible worldlines live on the manifold where total net skew is zero.
  -/
  valid : net_skew ledger = 0

  /-- Proof: energy is positive (physical viability).

      Ensures the state is physically realizable. Negative energy would
      violate the Positive Cost principle.
  -/
  energy_pos : 0 < energy

What this page does not claim

The theorem does not establish that energy is conserved over time. The theorem does not define what constitutes a morally good or bad action. The theorem does not claim that zero-energy states are impossible, only that no moral state has one.

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/Ethics/MoralState.lean
expected axiom basis: [propext, Classical.choice, Quot.sound] (the Lean kernel's standard three; no RS-specific axioms)

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