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Theorem base for Specification heap

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:
in-write ⊦ r ∈ H[r0, o] ↔ r ∈ H An Axiom
in-allocr0 ≠ null, ¬ r0 ∈ H ⊦ r ∈ H ++ r0 ↔ r = r0 ∨ r ∈ H An Axiom
ext ⊦ H0 = H1 ↔ (∀ r. (r ∈ H0 ↔ r ∈ H1) ∧ (r ∈ H0 → H0[r] = H1[r])) An Axiom
sanity ⊦ ¬ null ∈ H An Axiom
in-emp ⊦ ¬ r ∈ ∅ An Axiom
at-allocr ∈ H, r0 ≠ null, ¬ r0 ∈ H ⊦ r ≠ r0 → (H ++ r0)[r] = H[r] An Axiom
at-write ⊦ H[r0, o][r] = (r = r0 ∧ r0 ∈ H ⊃ o;H[r]) An Axiom
in-del ⊦ r ∈ H -- r0 ↔ r ≠ r0 ∧ r ∈ H An Axiom
at-delr ∈ H ⊦ r ≠ r0 → (H -- r0)[r] = H[r] An Axiom
genheap generated by ∅, ++, [ ]; An Axiom
diff-writer ∈ H1 ⊦ H0 \ H1[r, o] = H0 \ H1 An Axiom
diff-allocr ≠ null, ¬ r ∈ H1 ⊦ H0 \ (H1 ++ r) = (H0 -- r) \ H1 An Axiom
diff-emp ⊦ H0 \ ∅ = H0 An Axiom
uni-writer ≠ null, r ∈ H1, H0 ⊥ H1 ⊦ H0 ∪ H1[r, o] = (H0 ∪ H1)[r, o] An Axiom
uni-allocr ≠ null, ¬ r ∈ H1, ¬ r ∈ H0, H0 ⊥ H1 ⊦ H0 ∪ (H1 ++ r) = (H0 ∪ H1) ++ r An Axiom
uni-emp ⊦ H0 ∪ ∅ = H0 An Axiom
size-writer ∈ H ⊦ # H[r, o] = # H An Axiom
size-alloc¬ r ∈ H, r ≠ null ⊦ #(H ++ r) = # H + 1 An Axiom
size-emp ⊦ # ∅ = 0 An Axiom
disj ⊦ H0 ⊥ H1 ↔ (∀ r. ¬ r ∈ H0 ∨ ¬ r ∈ H1) An Axiom
diffs-ins ⊦ H0 \ (rs ++ r) = (H0 -- r) \ rs An Axiom
diffs-emp ⊦ H0 \ ∅ = H0 An Axiom
subset ⊦ H0 ⊆ H1 ↔ (∀ r. (r ∈ H0 → r ∈ H1) ∧ (r ∈ H0 → H0[r] = H1[r])) An Axiom
alloc-writer ≠ null, ¬ r ∈ H, r0 ∈ H ⊦ (H ++ r)[r0, o0][r, o] = (H[r0, o0] ++ r)[r, o] A User Theorem
at-diffs ⊦ r ∈ H ∧ ¬ r ∈ rs → (H \ rs)[r] = H[r] A User Theorem
at-unir ∈ H0 ∪ H1 ⊦ H0 ⊥ H1 → (H0 ∪ H1)[r] = (r ∈ H0 ⊃ H0[r];H1[r]) A User Theorem
del-new¬ r ∈ H, r ≠ null ⊦ (H ++ r) -- r = H A User Theorem
del-notin ⊦ ¬ r ∈ H → H -- r = H A User Theorem
del-sw ⊦ H -- r -- r0 = H -- r0 -- r A User Theorem
del-twice ⊦ H -- r -- r = H -- r A User Theorem
del-uni ⊦ H0 ⊥ H1 → (H0 ∪ H1) -- r = (H0 -- r) ∪ (H1 -- r) A User Theorem
delswrr ∈ H ⊦ r ∈ rs → H[r, o] \ rs = H \ rs A User Theorem
diff-atr ∈ H0, ¬ r ∈ H1 ⊦ (H0 \ H1)[r] = H0[r] A User Theorem
diff-in ⊦ r ∈ H0 \ H1 ↔ r ∈ H0 ∧ ¬ r ∈ H1 A User Theorem
diffs-sw ⊦ (H -- r) \ rs = (H \ rs) -- r A User Theorem
diffs-twice ⊦ (H \ rs) \ rs = H \ rs A User Theorem
disj-allocr0 ≠ null, ¬ r0 ∈ H0, ¬ r0 ∈ H1 ⊦ H0 ⊥ H1 → H0 ⊥ H1 ++ r0 A User Theorem
disj-com ⊦ H0 ⊥ H1 ↔ H1 ⊥ H0 A User Theorem
disj-com-rw ⊦ H0 ⊥ H1 → H1 ⊥ H0 A User Theorem
disj-diff ⊦ H ⊥ H0 \ H A User Theorem
disj-distr-uni ⊦ H1 ⊥ H → (H0 ⊥ H1 ∪ H ↔ H0 ⊥ H1 ∧ H0 ⊥ H) A User Theorem
disj-distr-uni-com ⊦ H1 ⊥ H2 → (H1 ∪ H2 ⊥ H0 ↔ H0 ⊥ H1 ∧ H0 ⊥ H2) A User Theorem
disj-emp-l ⊦ ∅ ⊥ H A User Theorem
disj-emp-r ⊦ H ⊥ ∅ A User Theorem
disj-l ⊦ r ∈ H0 ∧ H0 ⊥ H1 → (r ∈ H1 ↔ false) A User Theorem
disj-r ⊦ r ∈ H1 ∧ H0 ⊥ H1 → (r ∈ H0 ↔ false) A User Theorem
disj-singleton-writer ≠ null ⊦ (∅ ++ r)[r, o] ⊥ H ↔ ¬ r ∈ H A User Theorem
disj-writer ≠ null, ¬ r ∈ H1 ⊦ H0 ⊥ (H1 ++ r)[r, o] ↔ H0 ⊥ H1 ∧ ¬ r ∈ H0 A User Theorem
emp-subset ⊦ ∅ ⊆ H A User Theorem
exin ⊦ r ≠ null → (r ∈ H ↔ (∃ H0, o. H = (H0 ++ r)[r, o] ∧ ¬ r ∈ H0)) A User Theorem
exin-uni ⊦ r ≠ null → (r ∈ H ↔ (∃ H0, o. H = H0 ∪ (∅ ++ r)[r, o] ∧ ¬ r ∈ H0)) A User Theorem
in-diffs ⊦ r ∈ H \ rs ↔ r ∈ H ∧ ¬ r ∈ rs A User Theorem
in-uni ⊦ H0 ⊥ H1 → (r ∈ H0 ∪ H1 ↔ r ∈ H0 ∨ r ∈ H1) A User Theorem
in-write-strongr0 ∈ H ⊦ r ∈ H[r0, o] ↔ r ∈ H A User Theorem
nonnull ⊦ r ∈ H → r ≠ null A User Theorem
overwrite ⊦ H[r, o0][r, o1] = H[r, o1] A User Theorem
overwrite-1r0 ≠ r ⊦ H[r, o0][r0, o1][r, o2] = H[r0, o1][r, o2] A User Theorem
overwrite-split ⊦ H[r, o0][r0, o1][r, o2] = H[r0, o1][r, o2] A User Theorem
overwrite-split2 ⊦ H[r, o0][r0, o1][r1, o2][r, o3] = H[r0, o1][r1, o2][r, o3] A User Theorem
size-uni ⊦ H0 ⊥ H1 → #(H0 ∪ H1) = # H0 + # H1 A User Theorem
subset-at ⊦ H0 ⊆ H1 ∧ r ∈ H0 → H1[r] = H0[r] A User Theorem
subset-emp ⊦ H ⊆ ∅ ↔ H = ∅ A User Theorem
subset-in ⊦ H0 ⊆ H1 ∧ r ∈ H0 → r ∈ H1 A User Theorem
subset-uni ⊦ H0 ⊆ H1 ↔ (∃ H. H0 ∪ H = H1 ∧ H ⊥ H0) A User Theorem
sw-alloc-put¬ r0 ∈ H, r0 ≠ null, r1 ∈ H ⊦ r0 ≠ r1 → (H ++ r0)[r0, o0][r1, o1] = (H[r1, o1] ++ r0)[r0, o0] A User Theorem
sw-del-addr ≠ null ∧ ¬ r ∈ H ⊦ r0 ≠ r → ((H -- r0) ++ r)[r, o] = (H ++ r)[r, o] -- r0 A User Theorem
sw-del-add-01r ≠ null ∧ ¬ r ∈ H ⊦ r0 ∈ H1 ∧ ¬ r ∈ H1 → ((H -- r0) ++ r)[r, o] = (H ++ r)[r, o] -- r0 A User Theorem
sw-del-add-new¬ r ∈ H, r ≠ null ⊦ ¬ r ∈ rs → (H ++ r)[r, o] \ rs = ((H \ rs) ++ r)[r, o] A User Theorem
sw-delswrr ∈ H ⊦ ¬ r ∈ rs → H[r, o] \ rs = (H \ rs)[r, o] A User Theorem
sw-delwrr ∈ H ⊦ r ≠ r0 → H[r, o] -- r0 = (H -- r0)[r, o] A User Theorem
sw-putr0 ∈ H, r1 ∈ H ⊦ r0 ≠ r1 → H[r0, o0][r1, o1] = H[r1, o1][r0, o0] A User Theorem
uni-ass ⊦ H0 ⊥ H1 ∧ H1 ⊥ H ∧ H ⊥ H0 → (H0 ∪ H1) ∪ H = H0 ∪ H1 ∪ H A User Theorem
uni-com ⊦ H0 ⊥ H1 → H1 ∪ H0 = H0 ∪ H1 A User Theorem
uni-emp-l ⊦ ∅ ∪ H = H A User Theorem
uni-emp-r ⊦ H ∪ ∅ = H A User Theorem
uni-inj ⊦ H ⊥ H0 ∧ H ⊥ H1 → (H ∪ H0 = H ∪ H1 ↔ H0 = H1) A User Theorem
union-left-singletonr ≠ null ⊦ r ∈ H → (∅ ++ r)[r, H[r]] ∪ (H -- r) = H A User Theorem
union-left-singleton-atr ≠ null, ¬ r ∈ H ⊦ ((∅ ++ r)[r, o] ∪ H)[r] = o A User Theorem
write-againr ∈ H ⊦ H[r] = o → H[r, o] = H A User Theorem
write-delr ∈ H ⊦ H[r, o] -- r = H -- r A User Theorem
write-left ⊦ r ∈ H0 ∧ H0 ⊥ H1 → (H0 ∪ H1)[r, o] = H0[r, o] ∪ H1 A User Theorem
write-right ⊦ r ∈ H1 ∧ H0 ⊥ H1 → (H0 ∪ H1)[r, o] = H0 ∪ H1[r, o] A User Theorem