Encyclopedia Ethics Ethics Moral State Total Energy Positive Of Nonempty

ARTICLE 2 claims 2 theorems

Ethics Moral State Total Energy Positive Of Nonempty

A machine-checked theorem says any nonempty collection of moral states has positive total energy; here is what that does and does not mean.

Energy in a moral state

A moral state, in this framework, is a snapshot of one agent's ethical situation: a record of their recent interactions and the energy available to them. The framework models ethics as a branch of physics, where right action is not a matter of preference but of conserving a quantity called reciprocity. Each moral state carries a number called its energy, which measures the recognition cost available for transformations.

The theorem total_energy_positive_of_nonempty states a simple fact: if you take any nonempty list of moral states, the sum of their energies is strictly greater than zero. It is a direct consequence of a more basic result, energy_always_positive, which proves that a single moral state always has positive energy. The proof is short and relies on the definition of energy as a positive quantity.

The theorem does not claim that total energy is conserved, that it is bounded, or that it has any particular value. It only asserts positivity. It also does not say anything about the distribution of energy among agents, nor does it imply that a moral state with zero skew is the only kind that exists. The theorem holds for any nonempty list, regardless of whether the states are balanced or globally admissible.

What the result establishes is a floor: in this framework, no nonempty collection of agents can have zero or negative total energy. That is a minimal but real constraint. It means the framework excludes the possibility of a world where the sum of available recognition energy is zero or negative. The theorem is a small piece of a larger structure, but it is a piece that is machine-checked and therefore reliable.

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]
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

What this page does not claim

The theorem does not claim that total energy is conserved over time. It does not claim that energy is bounded above or has a specific value. It does not address the distribution of energy among agents in the list.

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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