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Theorem base for Specification partelem

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

Name: Sequent: Type:
⊦ pe(m, m0, m1) = pe(m2, m3, m4) ↔ m = m2 ∧ m0 = m3 ∧ m1 = m4 An Axiom
⊦ pe(p.first, p.last, p.count) = p An Axiom
⊦ (m = p.first ∧ m0 = p.last) ∧ m1 = p.count ↔ p = pe(m, m0, m1) An Axiom
An Axiom
⊦ pe(m, m0, m1).first = m An Axiom
⊦ pe(m, m0, m1).last = m0 An Axiom
⊦ pe(m, m0, m1).count = m1 An Axiom
⊦ (p.first:= m).first = m An Axiom
⊦ (p.last:= m0).first = p.first An Axiom
⊦ (p.count:= m1).first = p.first An Axiom
⊦ (p.first:= m).last = p.last An Axiom
⊦ (p.last:= m0).last = m0 An Axiom
⊦ (p.count:= m1).last = p.last An Axiom
⊦ (p.first:= m).count = p.count An Axiom
⊦ (p.last:= m0).count = p.count An Axiom
⊦ (p.count:= m1).count = m1 An Axiom
⊦ pe(m, m0, m1).first:= m2 = pe(m2, m0, m1) An Axiom
⊦ pe(m, m0, m1).last:= m3 = pe(m, m3, m1) An Axiom
⊦ pe(m, m0, m1).count:= m4 = pe(m, m0, m4) An Axiom