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Theorem base for Specification assoclist

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:
insnotin ⊦ ¬ a ∈ ax → ax(a := d) = ax + (a × d)' A User Theorem
unique-r ⊦ unique_al((a × d) + ax) ↔ ¬ a ∈ ax ∧ unique_al(ax) An Axiom
uniquelen∀ a. a ∈ ax ↔ a ∈ ay, unique_al(ax), unique_al(ay) ⊦ # ax = # ay A User Theorem
empty ⊦ ¬ a ∈ [] An Axiom
in-02 ⊦ a ∈ ax + (a × d)' + ay A User Theorem
in-03 ⊦ a ∈ ax + ay → a ∈ ax + p ' + ay A User Theorem
not ⊦ ¬ unique_al(ax) → ¬ unique_al(p ' + ax) A User Theorem
in-01 ⊦ a × d ∈ ax → a ∈ ax A User Theorem
unique-01 ⊦ unique_al(ax + (a × d)') → ¬ a ∈ ax A User Theorem
rassoc-no ⊦ d ≠ d0 → ((a × d0)' + ax)[d] = ax[d] An Axiom
rassoc-yes ⊦ ((a × d)' + ax)[d] = a An Axiom
unique-03 ⊦ a ∈ ax → ¬ unique_al(ax + (a × d)' + ay) A User Theorem
insfirst ⊦ ¬ a ∈ ax → (ax + (a × d)' + ax0)(a := d0) = ax + (a × d0)' + ax0 A User Theorem
unique-02 ⊦ unique_al(ax) ∧ a × d ∈ ax ∧ a × d0 ∈ ax → d = d0 A User Theorem
copied-inrec ⊦ a ∈ (b × d0)' + ax ↔ a = b ∨ a ∈ ax A User Theorem
infirst ⊦ a ∈ (a × d)' + ax A User Theorem
inone ⊦ a ∈ (b × d0)' ↔ a = b A User Theorem
assoc-yes ⊦ ((a × d)' + ax)(a) = d An Axiom
unique-e ⊦ unique_al([]) An Axiom
inkeys-n ⊦ a ≠ b → (a ∈ (b × d0)' + ax ↔ a ∈ ax) A User Theorem
cons ⊦ unique_al((a × d)' + ax) ↔ ¬ a ∈ ax ∧ unique_al(ax) A User Theorem
firstoc ⊦ a ∈ ax → (∃ ax0, d, ax1. ax = ax0 + (a × d)' + ax1 ∧ ¬ a ∈ ax0) A User Theorem
app ⊦ unique_al(ax + p ' + ay) → unique_al(ax + ay) A User Theorem
inassoc ⊦ a ∈ ax ↔ (∃ d. a × d ∈ ax) A User Theorem
in ⊦ a × d ∈ ax → ¬ unique_al((a × d0)' + ax) A User Theorem
copied-empty ⊦ ¬ a ∈ [] A User Theorem
one ⊦ unique_al(p ') A User Theorem
inapp ⊦ a ∈ ax + ay ↔ a ∈ ax ∨ a ∈ ay A User Theorem
unique-04 ⊦ a ∈ ay → ¬ unique_al(ax + (a × d)' + ay) A User Theorem
inkeys-nca ≠ b ⊦ a ∈ (b × d0)' + ax ↔ a ∈ ax A User Theorem
one-01 ⊦ (a × d)'(a) = d A User Theorem
lenleunique_al(ax), ∀ a. a ∈ ax → a ∈ ay ⊦ # ax ≤ # ay A User Theorem
put-yes ⊦ ((a × d0)' + ax)(a := d) = (a × d)' + ax An Axiom
inrec ⊦ a ∈ (b × d0)' + ax ↔ a = b ∨ a ∈ ax An Axiom
put-one ⊦ (a × d)'(a := d0) = (a × d0)' A User Theorem
nuni ⊦ unique_al(ay + (a × d)' + az) → ¬ a ∈ ay A User Theorem
lenequalunique_al(ax), unique_al(ay), # ax = # ay, ∀ a. a ∈ ax → a ∈ ay, b ∈ ay ⊦ b ∈ ax A User Theorem
ex ⊦ a ∈ ax ↔ (∃ d, ay, az. ax = ay + (a × d)' + az) A User Theorem
k-unique-r ⊦ unique_al(ay) ↔ ay = [] ∨ ¬ ay.head.fst ∈ ay.tail ∧ unique_al(ay.tail) A User Theorem
put-empty ⊦ [](a := d) = (a × d)' An Axiom
in-put ⊦ a ∈ ax(b := d) ↔ a = b ∨ a ∈ ax A User Theorem
unique ⊦ unique_al(ax + p ') → unique_al(ax) A User Theorem
put-no ⊦ a ≠ b → ((b × d0)' + ax)(a := d) = (b × d0)' + ax(a := d) An Axiom
assoc-no ⊦ a ≠ b → ((b × d)' + ax)(a) = ax(a) An Axiom
nuni-01 ⊦ unique_al(ay + (a × d)' + az) → ¬ a ∈ az A User Theorem
incons ⊦ a ∈ ax → a ∈ p ' + ax A User Theorem