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Theorem base for Specification address-set-array-ops

This is a listing of all goals defined over the current specification. Axioms are marked yellow, proved theorems green and unproved theorems blue. Click on individual names to get more information on the proof.

Name: Sequent: Type:
disj ⊦ disj(asar, n, m) ↔ (∀ n0, n1. n0 < m ∧ n1 < m ∧ n0 ≠ n1 → asar[n + n0] ∩ asar[n + n1] = ∅) An Axiom
union-rec ⊦ union(asar, n, m + 1) = asar[n + m] ∪ union(asar, n, m) An Axiom
union-base ⊦ union(asar, n, 0) = ∅ An Axiom
disj-in-bothn0 < m, n1 < m ⊦ disj(asar, 0, m) ∧ adr ∈ asar[n0] → (adr ∈ asar[n1] ↔ n0 = n1) A User Theorem
disj-rec ⊦ disj(asar, 0, m + 1) → disj(asar, 0, m) A User Theorem
disj-union-remm ≤ # asar, n0 ≠ n1, n0 < m, n1 < m ⊦ disj(asar, 0, m) → (asar[n0] ∪ as) \ asar[n1] = asar[n0] ∪ (as \ asar[n1]) A User Theorem
disj-uniquen0 < # asar, n1 < # asar ⊦ disj(asar, 0, # asar) ∧ adr ∈ asar[n0] → (adr ∈ asar[n1] ↔ n0 = n1) A User Theorem
disj-writem ≤ # asar, n < m ⊦ disj(asar, 0, m) → (disj(asar[n, as], 0, m) ↔ (∀ n0. n0 ≠ n ∧ n0 < m → asar[n0] ∩ as = ∅)) A User Theorem
in-index-in-union ⊦ adr ∈ asar[n] ∧ n < m → adr ∈ union(asar, 0, m) A User Theorem
in-index-in-union-1 ⊦ adr ∈ asar[n] ∧ n ≤ m → adr ∈ union(asar, 0, m + 1) A User Theorem
in-union-ext ⊦ adr ∈ union(asar, n, m) ↔ (∃ n0. n ≤ n0 ∧ n0 < n + m ∧ adr ∈ asar[n0]) A User Theorem
inter-union-empty-one-emptyn < m, m ≤ # asar ⊦ as ∩ union(asar, 0, m) = ∅ → as ∩ asar[n] = ∅ A User Theorem
subseteq-union-diff-onen < # asar, n0 < # asar ⊦ disj(asar, 0, # asar) → (asar[n] ⊆ (union(asar, 0, # asar) \ asar[n0]) ∪ as ↔ n ≠ n0 ∨ asar[n0] ⊆ as) A User Theorem
subseteq-union-onen < m, m ≤ # asar ⊦ asar[n] ⊆ union(asar, 0, m) A User Theorem
subseteq-union-one-addn < m, m ≤ # asar ⊦ asar[n] ⊆ union(asar, 0, m) ++ adr A User Theorem
union-eq-rem-subseteqn < # asar ⊦ union(asar, 0, # asar) = as -- adr → asar[n] ⊆ as A User Theorem
union-subset ⊦ union(asar, n, m) ⊆ as ↔ (∀ n0. n ≤ n0 ∧ n0 < n + m → asar[n0] ⊆ as) A User Theorem
union-union-onen < m, m ≤ # asar ⊦ asar[n] ∪ union(asar, 0, m) = union(asar, 0, m) A User Theorem
union-writem ≤ # asar, n < m ⊦ disj(asar, 0, m) → union(asar[n, as], 0, m) = (union(asar, 0, m) \ asar[n]) ∪ as A User Theorem
union-write-abovem ≤ # asar, m ≤ n ⊦ union(asar[n, as], 0, m) = union(asar, 0, m) A User Theorem