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Theorem base for Specification byte

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:
⊦ i2b(b2i(by)) = by An Axiom
⊦ i2s(s2i(sho)) = sho An Axiom
⊦ i ∈short → s2i(i2s(i)) = i An Axiom
⊦ i ∈byte → b2i(i2b(i)) = i An Axiom
⊦ i ∈short ↔ ~32768 ≤ i ∧ i ≤ 32767 An Axiom
⊦ i ∈byte ↔ ~128 ≤ i ∧ i ≤ 127 An Axiom
⊦ s2b(sho) = i2b(s2i(sho)) An Axiom
⊦ b2s(by) = i2s(b2i(by)) An Axiom
⊦ ¬ i ∈short → i2s(i) = i2s(bits2int(lastn(16, int2bits(i)))) An Axiom
⊦ ¬ i ∈byte → i2b(i) = i2b(bits2int(lastn(8, int2bits(i)))) An Axiom
⊦ s2i(sho) ∈short An Axiom
⊦ b2i(by) ∈byte An Axiom
⊦ 0s = i2s(0) An Axiom
⊦ 0b = i2b(0) An Axiom
⊦ s2bi(sho) = i2bi(s2i(sho)) An Axiom
⊦ b2bi(by) = i2bi(b2i(by)) An Axiom
⊦ ¬ i ∈bint → i2bi(i) = i2bi(bits2int(lastn(32, int2bits(i)))) An Axiom
⊦ i ∈bint → bi2i(i2bi(i)) = i An Axiom
⊦ bi2i(bi) ∈bint An Axiom
⊦ i2bi(bi2i(bi)) = bi An Axiom
⊦ i ∈bint ↔ ~2147483648 ≤ i ∧ i ≤ 2147483647 An Axiom
⊦ 0bi = i2bi(0) An Axiom
⊦ ¬ i ∈long → i2l(i) = i2l(bits2int(lastn(64, int2bits(i)))) An Axiom
⊦ i ∈long → l2i(i2l(i)) = i An Axiom
⊦ l2i(lo) ∈long An Axiom
⊦ i2l(l2i(lo)) = lo An Axiom
⊦ i ∈long ↔ ~(2 ^ 63) ≤ i ∧ i ≤ 2 ^ 63 - 1 An Axiom
⊦ 0l = i2l(0) An Axiom
⊦ us2i(sho) = bits2int(false ' + fillsgn(16, int2bits(s2i(sho)))) An Axiom
⊦ ub2i(by) = bits2int(false ' + fillsgn(8, int2bits(b2i(by)))) An Axiom
⊦ shortOverflow(i) ↔ ¬ i ∈short An Axiom
⊦ 0 ≤ band(b2i(by), 255) ∧ band(b2i(by), 255) < 256 A User Theorem
⊦ b2i(by) = i → by = i2b(i) A User Theorem
⊦ abs(band(255, b2i(by))) = band(255, b2i(by)) A User Theorem
⊦ 0 < b2i(by) → ¬ 128 ≤ band(255, b2i(by)) A User Theorem
⊦ i ∈byte ∧ j ∈byte → b2i(i2b(band(i, j))) = band(i, j) A User Theorem
⊦ band(b2i(by), 255) = ub2i(by) A User Theorem
⊦ i ∈short ∧ j ∈short → s2i(i2s(band(i, j))) = band(i, j) A User Theorem
⊦ i ∈byte → b2i(i2b(bcompl(i))) = bcompl(i) A User Theorem
⊦ i ∈short → s2i(i2s(bcompl(i))) = bcompl(i) A User Theorem
⊦ b2i(i2b(64)) = 64 A User Theorem
⊦ # int2bits(i) ≤ 8 → b2i(i2b(i)) = i A User Theorem
⊦ ~128 ≤ i ∧ i ≤ 127 → b2i(i2b(i)) = i A User Theorem
⊦ ~256 < i ∧ i < ~128 → b2i(i2b(i)) = i + 256 A User Theorem
⊦ i < b2i(i2b(i)) ↔ i < ~128 A User Theorem
⊦ b2i(i2b(i)) < i ↔ 128 ≤ i A User Theorem
⊦ i < 0 ∧ ~128 ≤ i % 256 → b2i(i2b(i)) = i % 256 A User Theorem
⊦ i < 0 ∧ i % 256 < ~128 → b2i(i2b(i)) = i % 256 + 256 A User Theorem
⊦ b2i(i2b(i)) = bits2int(lastn(8, fillsgn(8, int2bits(i)))) A User Theorem
⊦ 0 ≤ i ∧ 127 < i % 256 → b2i(i2b(i)) = i % 256 - 256 A User Theorem
⊦ 0 ≤ i ∧ i % 256 ≤ 127 → b2i(i2b(i)) = i % 256 A User Theorem
⊦ 127 < i ∧ i < 256 → b2i(i2b(i)) = i - 256 A User Theorem
⊦ bi2i(i2bi(2147483648)) = ~2147483648 A User Theorem
⊦ i ∈bint → (bits2uint(fillsgn(32, int2bits(i))) ≠ band(4294967295, i) ↔ false) A User Theorem
⊦ i ∈bint ∧ 0 ≤ i → band(4294967295, i) = i A User Theorem
⊦ i ∈bint ∧ i < 0 → band(4294967295, i) = i + 4294967296 A User Theorem
⊦ ¬ band(4294967295, i) + band(4294967295, j) < 0 A User Theorem
⊦ band(j, 1) ∈bint A User Theorem
⊦ bi2i(i2bi(band(j, 1))) = band(j, 1) A User Theorem
⊦ i ∈bint → (band(4294967295, i) = 0 ↔ i = 0) A User Theorem
⊦ bi2i(i2bi(b2i(by))) = b2i(by) A User Theorem
⊦ 0 ≤ i0 ∧ i0 ≤ 1 → ((i0 + band(4294967295, i) + band(4294967295, j)) l>>> 32)∈bint A User Theorem
⊦ ((band(4294967295, i) + band(4294967295, j)) l>>> 32)∈bint A User Theorem
⊦ 0 < j0 ∧ j0 ≤ j ∧ j ∈bint → (j0 / 2)∈bint A User Theorem
⊦ 0 < j0 ∧ j0 ≤ j ∧ j ∈bint → bi2i(i2bi(j0 / 2)) = j0 / 2 A User Theorem
⊦ bi2i(i2bi(i)) ≠ bi2i(i2bi(j)) → i2bi(i) ≠ i2bi(j) A User Theorem
⊦ bi2i(bi) = i → (i2bi(i) ≠ bi ↔ false) A User Theorem
⊦ i ∈bint → # fillsgn(32, int2bits(i)) = 32 A User Theorem
⊦ bi2i(i2bi(i)) = cast(32, i) A User Theorem
⊦ i2bi(i) = i2bi(cast(32, i)) A User Theorem
⊦ j ∈bint ∧ j ≠ 0 → (i % j)∈bint A User Theorem
⊦ 0 < j0 ∧ j0 * 2 ≤ j ∧ j ∈bint → bi2i(i2bi(j0)) = j0 A User Theorem
2147483648 ≤ i ⊦ ¬ (* i) ∈bint A User Theorem
i < ~2147483648 ⊦ ¬ (* i) ∈bint A User Theorem
j ≤ ~2147483648 ⊦ i < (* j) → ¬ i ∈bint A User Theorem
2147483648 ≤ j ⊦ (* j) ≤ i → ¬ i ∈bint A User Theorem
~2147483648 ≤ i, i < 2147483648 ⊦ (* i) ∈bint A User Theorem
~2147483648 ≤ i, i < 2147483648 ⊦ bi2i(i2bi((* i))) = i A User Theorem
⊦ 0 < i ∧ i ∈bint → bi2i(i2bi(i - 1)) = i - 1 A User Theorem
⊦ 0 < i ∧ i ∈bint → (¬ (i - 1)∈bint ↔ false) A User Theorem
⊦ 0 ≤ i ∧ i ∈bint → bi2i(i2bi(i - 1)) = i - 1 A User Theorem
⊦ bi2i(i2bi(s2i(sho))) = s2i(sho) A User Theorem
⊦ i ∈bint ∧ ¬ (i + 1)∈bint → bi2i(i2bi(1 + i)) = ~(2 ^ 31) A User Theorem
⊦ j ∈bint ∧ 0 < i ∧ i ≤ j → (¬ i ∈bint ↔ false) A User Theorem
⊦ j ∈bint ∧ 0 ≤ i ∧ i ≤ j → (¬ i ∈bint ↔ false) A User Theorem
⊦ j ∈bint ∧ 0 ≤ i ∧ i < j → (¬ i ∈bint ↔ false) A User Theorem
⊦ j ∈bint ∧ 0 < i ∧ i < j → (¬ i ∈bint ↔ false) A User Theorem
⊦ 0 < j0 ∧ j0 ≤ j ∧ j ∈bint → j0 ∈bint A User Theorem
⊦ 2 ^ 31 ≤ i ∧ i < 2 ^ 32 → i2bi(i) = i2bi(i - 2 ^ 32) A User Theorem
⊦ 2 ^ 31 ≤ i ∧ i < 2 ^ 32 → bi2i(i2bi(i)) = i - 2 ^ 32 A User Theorem
⊦ i ∈byte ∧ j ∈byte → b2i(i2b(bor(i, j))) = bor(i, j) A User Theorem
⊦ i ∈short ∧ j ∈short → s2i(i2s(bor(i, j))) = bor(i, j) A User Theorem
⊦ b2i(i2b(0)) = 0 A User Theorem
⊦ b2i(i2b(~(1 + 1 + 1 + 1))) = ~(1 + 1 + 1 + 1) A User Theorem
⊦ i2b(band(255, b2i(by))) = by A User Theorem
⊦ b2i(by) < 0 → band(b2i(by), 255) = b2i(by) + 256 A User Theorem
⊦ 0 ≤ b2i(by) → band(b2i(by), 255) = b2i(by) A User Theorem
⊦ 0 ≤ i ∧ i < 128 → (band(b2i(by), 255) = i ↔ b2i(by) = i) A User Theorem
0 ≤ i, i < 128 ⊦ band(b2i(by), 255) = (* i) ↔ b2i(by) = i A User Theorem
⊦ 0 ≤ i ∧ i < 256 → band(255, b2i(i2b(i))) = i A User Theorem
⊦ b2i(i2b(~(1 + 1 + 1 + 1 + 1))) = ~(1 + 1 + 1 + 1 + 1) A User Theorem
⊦ b2i(i2b(~ 1)) = ~ 1 A User Theorem
⊦ b2i(i2b(1 + 1)) = 1 + 1 A User Theorem
⊦ 126 < b2i(by) ↔ b2i(by) = 127 A User Theorem
⊦ i2b(i + 256) = i2b(i) A User Theorem
⊦ i2b(~(i + 256)) = i2b(~ i) A User Theorem
⊦ band(255, b2i(by)) ≤ 0 ↔ by = i2b(0) A User Theorem
⊦ ¬ 256 ≤ band(b2i(by), 255) A User Theorem
⊦ ¬ band(b2i(by), 255) < 0 A User Theorem
⊦ # int2bits(b2i(by)) ≤ 8 A User Theorem
⊦ 8 < n → ¬ n ≤ # int2bits(b2i(by)) A User Theorem
⊦ b2i(byi) = b2i(byj) ↔ byi = byj A User Theorem
⊦ b2i(by) = i → (i2b(i) ≠ by ↔ false) A User Theorem
⊦ ¬ 127 < b2i(by) A User Theorem
⊦ 0 ≤ i ∧ i ≤ 127 → b2i(i2b(i)) = i A User Theorem
⊦ b2i(i2b(i)) = cast(8, i) A User Theorem
⊦ i2b(i) = i2b(cast(8, i)) A User Theorem
⊦ i2b(i + j) = i2b(b2i(i2b(i)) + b2i(i2b(j))) A User Theorem
⊦ i2b(i + j) = i2b(b2i(i2b(i)) + j) A User Theorem
⊦ 0 ≤ i ∧ 0 ≤ j → i2b(i + j) = i2b(b2i(i2b(i)) + j) A User Theorem
⊦ i2b(band(i, j)) = i2b(band(b2i(i2b(i)), j)) A User Theorem
⊦ i2b(bcompl(i)) = i2b(bcompl(b2i(i2b(i)))) A User Theorem
⊦ (i = 256 ∧ j = 64 → i2b(i / j) ≠ i2b(b2i(i2b(i)) / j)) ∧ (i = ~128 ∧ j = 128 → i2b(i / j) ≠ i2b(i / b2i(i2b(j)))) ∧ (i = 256 ∧ j = 128 → i2b(i / j) ≠ i2b(b2i(i2b(i)) / b2i(i2b(j)))) ∧ (i = 258 ∧ j = 43 → i2b(i % j) ≠ i2b(b2i(i2b(i)) % j)) ∧ (i = 1 ∧ j = 255 → i2b(i % j) ≠ i2b(i % b2i(i2b(j)))) ∧ (i = 509 ∧ j = 255 → i2b(i % j) ≠ i2b(b2i(i2b(i)) % b2i(i2b(j)))) A User Theorem
⊦ i2b(i i<< j) = i2b(b2i(i2b(i)) i<< j) A User Theorem
⊦ (i = 127 ∧ j = 128 → ¬(i < j → b2i(i2b(i)) < b2i(i2b(j)))) ∧ (i = 128 ∧ j = 1 → ¬(b2i(i2b(i)) < b2i(i2b(j)) → i < j)) ∧ (i = 255 ∧ j = ~1 → ¬(b2i(i2b(i)) = b2i(i2b(j)) → i = j)) A User Theorem
⊦ i2b(i * j) = i2b(b2i(i2b(i)) * b2i(i2b(j))) A User Theorem
⊦ i2b(i * j) = i2b(b2i(i2b(i)) * j) A User Theorem
⊦ i2b(~ i) = i2b(~ b2i(i2b(i))) A User Theorem
⊦ (i = 128 ∧ j = 1 → i2b(i i>> j) ≠ i2b(b2i(i2b(i)) i>> j)) ∧ (i = 128 ∧ j = 1 → i2b(i i>>> j) ≠ i2b(b2i(i2b(i)) i>>> j)) A User Theorem
⊦ i2b(i - j) = i2b(b2i(i2b(i)) - b2i(i2b(j))) A User Theorem
⊦ i2b(i - j) = i2b(b2i(i2b(i)) - j) A User Theorem
⊦ i2b(i - j) = i2b(i - b2i(i2b(j))) A User Theorem
⊦ b2i(by) ≤ 127 A User Theorem
⊦ ¬ 256 ≤ b2i(by) A User Theorem
⊦ ¬ 8 < # int2bits(b2i(by)) A User Theorem
b2i(by) ≠ ~128 ⊦ # int2bits(b2i(by)) ≤ 8 A User Theorem
⊦ b2i(by) < ~127 ↔ b2i(by) = ~128 A User Theorem
⊦ ¬ b2i(by) < ~256 A User Theorem
⊦ b2i(by) ≤ ~128 ↔ b2i(by) = ~128 A User Theorem
⊦ b2i(by) % 256 = b2i(by) A User Theorem
⊦ (b2i(by) + 1) % 256 = b2i(by) + 1 A User Theorem
⊦ i2b(i * 256) = i2b(0) A User Theorem
⊦ i2b(~(i * 256)) = i2b(0) A User Theorem
⊦ i2b(i * 256 + j) = i2b(j) A User Theorem
⊦ i2b(~(i * 256 + j)) = i2b(~ j) A User Theorem
⊦ i < 0 ∧ j < 0 → i2b(i * 256 + j) = i2b(j) A User Theorem
⊦ 0 ≤ i ∧ 0 ≤ j → i2b(i * 256 + j) = i2b(j) A User Theorem
i < ~128 ⊦ (* i) ≠ b2i(by) A User Theorem
i ≥ 128 ⊦ ¬ (* i) ≤ b2i(by) A User Theorem
i ≥ 127 ⊦ ¬ (* i) < b2i(by) A User Theorem
⊦ ¬ 128 < abs(b2i(by)) A User Theorem
⊦ ¬ 256 ≤ abs(b2i(by)) A User Theorem
⊦ ¬ 256 ≤ abs(b2i(by) + 1) A User Theorem
i < ~128 ⊦ ¬ b2i(by) ≤ (* i) A User Theorem
⊦ ¬ b2i(by) < ~128 A User Theorem
i ≤ ~128 ⊦ ¬ b2i(by) < (* i) A User Theorem
⊦ 128 ≤ i → ¬ i + b2i(by) < 0 A User Theorem
⊦ 126 < b2i(by) ∧ 0 < i → ¬ b2i(by) + i < 128 A User Theorem
⊦ ~128 ≤ b2i(by) ∧ b2i(by) ≤ 127 A User Theorem
⊦ i2b(i) ≠ i2b(j) → i2s(i) ≠ i2s(j) A User Theorem
⊦ i2b(s2i(i2s(i))) = i2b(i) A User Theorem
⊦ ¬ 128 < 2 ^ (n→i(# int2bits(b2i(by))) - 1) A User Theorem
⊦ ¬ 32768 < 2 ^ (n→i(# int2bits(b2i(by))) - 1) A User Theorem
i < 127 ⊦ 0 ≤ b2i(by) ∧ b2i(by) ≤ (* i) → b2i(i2b(b2i(by) + 1)) = b2i(by) + 1 A User Theorem
⊦ 128 ≤ i ∧ i < 256 → i2b(i) = i2b(i - 256) A User Theorem
⊦ cast(8, b2i(by)) = b2i(by) A User Theorem
⊦ 8 ≤ i → cast(i, b2i(by)) = b2i(by) A User Theorem
⊦ s2i(sho1) ≠ 0 → ((s2i(sho0) / s2i(sho1))∈short ↔ ¬(s2i(sho1) = ~1 ∧ s2i(sho0) = ~32768)) A User Theorem
⊦ j = j / 256 * 256 + j % 256 A User Theorem
⊦ b2i(by1) + b2i(by2) = s2i(i2s(b2i(by1) + b2i(by2))) A User Theorem
⊦ band(b2i(by1), b2i(by2)) = b2i(i2b(band(b2i(by1), b2i(by2)))) A User Theorem
⊦ band(s2i(sho1), b2i(by2)) = s2i(i2s(band(s2i(sho1), b2i(by2)))) A User Theorem
⊦ band(s2i(sho1), s2i(sho2)) = s2i(i2s(band(s2i(sho1), s2i(sho2)))) A User Theorem
⊦ bor(b2i(by1), b2i(by2)) = b2i(i2b(bor(b2i(by1), b2i(by2)))) A User Theorem
⊦ bor(s2i(sho1), b2i(by2)) = s2i(i2s(bor(s2i(sho1), b2i(by2)))) A User Theorem
⊦ bor(s2i(sho1), s2i(sho2)) = s2i(i2s(bor(s2i(sho1), s2i(sho2)))) A User Theorem
⊦ bxor(b2i(by1), b2i(by2)) = b2i(i2b(bxor(b2i(by1), b2i(by2)))) A User Theorem
⊦ bxor(s2i(sho1), b2i(by2)) = s2i(i2s(bxor(s2i(sho1), b2i(by2)))) A User Theorem
⊦ bxor(s2i(sho1), s2i(sho2)) = s2i(i2s(bxor(s2i(sho1), s2i(sho2)))) A User Theorem
⊦ bcompl(b2i(by)) = b2i(i2b(bcompl(b2i(by)))) A User Theorem
⊦ bcompl(s2i(sho)) = s2i(i2s(bcompl(s2i(sho)))) A User Theorem
⊦ i ≠ 0 → b2i(by1) / i = s2i(i2s(b2i(by1) / i)) A User Theorem
⊦ i ≠ ~1 ∧ i ≠ 0 → b2i(by1) / i = b2i(i2b(b2i(by1) / i)) A User Theorem
b2i(by1) ≠ 0 ⊦ i % b2i(by1) = b2i(i2b(i % b2i(by1))) A User Theorem
s2i(sho) ≠ 0 ⊦ i % s2i(sho) = s2i(i2s(i % s2i(sho))) A User Theorem
⊦ b2i(by1) * b2i(by2) = s2i(i2s(b2i(by1) * b2i(by2))) A User Theorem
⊦ ~ b2i(by) = s2i(i2s(~ b2i(by))) A User Theorem
⊦ b2i(by) i>> i = b2i(i2b(b2i(by) i>> i)) A User Theorem
⊦ s2i(sho) i>> i = s2i(i2s(s2i(sho) i>> i)) A User Theorem
⊦ b2i(by1) - b2i(by2) = s2i(i2s(b2i(by1) - b2i(by2))) A User Theorem
⊦ s2i(i2s(bor(b2i(byi) i<< 8, band(b2i(byj), 255)))) = bor(b2i(byi) i<< 8, band(b2i(byj), 255)) A User Theorem
⊦ j ∈short → bor(b2i(i2b(j i>> 8)) i<< 8, band(255, b2i(i2b(j)))) = j A User Theorem
⊦ i2b(i) = i2b(j) ↔ b2i(i2b(i)) = b2i(i2b(j)) A User Theorem
⊦ i2b(i) ≠ i2b(j) → i ≠ j A User Theorem
⊦ i ∈byte ↔ b2i(i2b(i)) = i A User Theorem
⊦ 0 ≤ s2i(sho) ∧ s2i(sho) < s2i(shoi) → (s2i(sho) + 1)∈short A User Theorem
⊦ b2i(by) ∈short A User Theorem
32768 ≤ i ⊦ s2i(sho0) ≤ (* i) A User Theorem
⊦ s2i(sho) ≠ 0 ∧ s2i(sho) ≠ 1 → ¬ (s2i(sho) * ~32768)∈short A User Theorem
⊦ s2i(sho) ≠ ~32768 → (~ s2i(sho))∈short A User Theorem
⊦ (* i) ∈short ↔ ¬ ¬(~32768 ≤ i ∧ i < 32768) A User Theorem
⊦ i ∈short ↔ s2i(i2s(i)) = i A User Theorem
⊦ s2i(i2s(ub2i(by))) = ub2i(by) A User Theorem
⊦ i ∈bint → l2i(i2l(i)) = i A User Theorem
⊦ 0 ≤ i ∧ i ≤ 1 → l2i(i2l(i + band(4294967295, j) + band(4294967295, j0))) = i + band(4294967295, j) + band(4294967295, j0) A User Theorem
~9223372036854775808 ≤ i, i < 9223372036854775808 ⊦ l2i(i2l((* i))) = i A User Theorem
⊦ i2l((* i)) = i2l((* j)) ↔ (0 ≤ i ∧ i % 18446744073709551616 ≤ 9223372036854775807 ⊃ i % 18446744073709551616 ;(0 ≤ i ∧ 9223372036854775807 < i % 18446744073709551616 ⊃ i % 18446744073709551616 - 18446744073709551616 ;(i < 0 ∧ i % 18446744073709551616 < ~9223372036854775808 ⊃ i % 18446744073709551616 + 18446744073709551616 ;(i < 0 ∧ ~9223372036854775808 ≤ i % 18446744073709551616 ⊃ i % 18446744073709551616;i) ) ) ) = (0 ≤ j ∧ j % 18446744073709551616 ≤ 9223372036854775807 ⊃ j % 18446744073709551616 ;(0 ≤ j ∧ 9223372036854775807 < j % 18446744073709551616 ⊃ j % 18446744073709551616 - 18446744073709551616 ;(j < 0 ∧ j % 18446744073709551616 < ~9223372036854775808 ⊃ j % 18446744073709551616 + 18446744073709551616 ;(j < 0 ∧ ~9223372036854775808 ≤ j % 18446744073709551616 ⊃ j % 18446744073709551616;j) ) ) ) A User Theorem
⊦ i2l(~9223372036854775809) = i2l(9223372036854775807) A User Theorem
⊦ i2l(18446744073709551614) = i2l(~2) A User Theorem
⊦ i2l(85070591730234615847396907784232501249) = i2l(1) A User Theorem
⊦ l2i(i2l(band(4294967295, i))) = band(4294967295, i) A User Theorem
⊦ l2i(i2l(band(4294967295, i) + band(4294967295, j))) = band(4294967295, i) + band(4294967295, j) A User Theorem
⊦ i2l(i) = i2l(j) ↔ cast(64, i) = cast(64, j) A User Theorem
⊦ l2i(i2l(i)) ≠ l2i(i2l(j)) → i2l(i) ≠ i2l(j) A User Theorem
⊦ l2i(i2l(i)) = cast(64, i) A User Theorem
⊦ i2l(i) = i2l(cast(64, i)) A User Theorem
⊦ ¬ l2i(lo) < ~9223372036854775808 A User Theorem
⊦ i ≤ ~9223372036854775808 → ¬ l2i(lo) < i A User Theorem
j < 0, ~(2 ^ (64 - 1)) ≤ j % 2 ^ 64 ⊦ l2i(i2l((* j))) = j % 2 ^ 64 A User Theorem
j < 0, j % 2 ^ 64 < ~(2 ^ (64 - 1)) ⊦ l2i(i2l((* j))) = j % 2 ^ 64 + 2 ^ 64 A User Theorem
0 ≤ j, 2 ^ (64 - 1) - 1 < j % 2 ^ 64 ⊦ l2i(i2l((* j))) = j % 2 ^ 64 - 2 ^ 64 A User Theorem
0 ≤ j, j % 2 ^ 64 ≤ 2 ^ (64 - 1) - 1 ⊦ l2i(i2l((* j))) = j % 2 ^ 64 A User Theorem
⊦ l2i(i2l(i)) = bits2int(lastn(64, fillsgn(64, int2bits(i)))) A User Theorem
⊦ (l2i(lo) l>>> j)∈long A User Theorem
⊦ l2i(i2l(l2i(lo) l>>> j)) = l2i(lo) l>>> j A User Theorem
⊦ i ∈long ∧ j ≠ 0 → (i % j)∈long A User Theorem
⊦ i ∈bint → (i * i)∈long A User Theorem
⊦ i ∈bint ∧ j ∈bint → (i * j)∈long A User Theorem
⊦ i ∈bint ∧ j ∈bint ∧ j0 ≠ 0 → ((i * j) % j0)∈long A User Theorem
⊦ i ∈bint ∧ j ≠ 0 → ((i * i) % j)∈long A User Theorem
⊦ i + 1 + 1 + 1 + 1 + 1 = 0 → s2i(i2s(i + 1 + 1)) = i + 1 + 1 A User Theorem
⊦ i + 1 + 1 + 1 + 1 + 1 = 0 → b2i(i2b(i)) = i A User Theorem
⊦ i + 1 + 1 + 1 + 1 + 1 = 0 → b2i(i2b(i + 1)) = i + 1 A User Theorem
⊦ i + 1 + 1 + 1 + 1 = 0 → s2i(i2s(i + 1)) = i + 1 A User Theorem
⊦ i + 1 + 1 + 1 + 1 = 0 → b2i(i2b(i + 1)) = i + 1 A User Theorem
⊦ i + 1 + 1 + 1 + 1 = 0 → b2i(i2b(i)) = i A User Theorem
⊦ i + 1 + 1 + 1 = 0 → s2i(i2s(i)) = ~(1 + 1 + 1) A User Theorem
⊦ i + 1 + 1 + 1 = 0 → s2i(i2s(i + 1)) = ~(1 + 1) A User Theorem
⊦ i + 1 + 1 = 0 → s2i(i2s(i)) = ~(1 + 1) A User Theorem
⊦ s2i(sho1) ≠ 0 → (s2i(sho0) % s2i(sho1))∈short A User Theorem
⊦ i + 1 + 1 + 1 = 0 → b2i(i2b(i)) = ~(1 + 1 + 1) A User Theorem
⊦ i + 1 + 1 + 1 = 0 → b2i(i2b(~ i)) = 1 + 1 + 1 A User Theorem
⊦ i + 1 + 1 = 0 → b2i(i2b(i)) = ~(1 + 1) A User Theorem
~128 ≤ i, i ≤ 127, ~128 ≤ j, j ≤ 127, i ≠ j ⊦ i2b((* i)) ≠ i2b((* j)) A User Theorem
~32768 ≤ i, i ≤ 32767, ~32768 ≤ j, j ≤ 32767, i ≠ j ⊦ i2s((* i)) ≠ i2s((* j)) A User Theorem
~128 ≤ i, i ≤ 127, ~128 ≤ j, j ≤ 127 ⊦ i2b((* i)) = i2b((* j)) ↔ i = j A User Theorem
i < ~128 ⊦ i2b((* i)) = i2b(bits2int(lastn(8, int2bits(i)))) A User Theorem
127 < i ⊦ i2b((* i)) = i2b(bits2int(lastn(8, int2bits(i)))) A User Theorem
i < ~2147483648 ⊦ i2bi((* i)) = i2bi(bits2int(lastn(32, int2bits(i)))) A User Theorem
2147483647 < i ⊦ i2bi((* i)) = i2bi(bits2int(lastn(32, int2bits(i)))) A User Theorem
i < ~9223372036854775808 ⊦ i2l((* i)) = i2l(bits2int(lastn(64, int2bits(i)))) A User Theorem
9223372036854775807 < i ⊦ i2l((* i)) = i2l(bits2int(lastn(64, int2bits(i)))) A User Theorem
i < ~32768 ⊦ i2s((* i)) = i2s(bits2int(lastn(16, int2bits(i)))) A User Theorem
32767 < i ⊦ i2s((* i)) = i2s(bits2int(lastn(16, int2bits(i)))) A User Theorem
~128 ≤ i, i ≤ 127 ⊦ b2i(i2b((* i))) = i A User Theorem
~9223372036854775808 ≤ i, i ≤ 9223372036854775807 ⊦ l2i(i2l((* i))) = i A User Theorem
~32768 ≤ i, i ≤ 32767 ⊦ s2i(i2s((* i))) = i A User Theorem
⊦ b2i(i2b(128)) = ~128 A User Theorem
⊦ b2i(i2b(~129)) = 127 A User Theorem
⊦ b2i(i2b(123)) = 123 A User Theorem
⊦ b2i(i2b(~126)) = ~126 A User Theorem
⊦ b2i(i2b(~511)) = 1 A User Theorem
⊦ b2i(i2b(~512)) = 0 A User Theorem
⊦ b2i(i2b(511)) = ~1 A User Theorem
⊦ b2i(i2b(512)) = 0 A User Theorem
⊦ s2i(i2s(144)) = 144 A User Theorem
⊦ ~32768 ≤ i ∧ i < 32768 → (s2i(sho) = i ↔ sho = i2s(i)) A User Theorem
⊦ b2i(by) < 0 → b2i(by) >> 8 = ~1 A User Theorem
⊦ b2i(by) < 0 ∧ 8 ≤ j → b2i(by) >> j = ~1 A User Theorem
⊦ 0 ≤ b2i(by) → b2i(by) >> 8 = 0 A User Theorem
⊦ 0 ≤ b2i(by) ∧ 8 ≤ j → b2i(by) >> j = 0 A User Theorem
⊦ s2i(sho) < 0 → band(s2i(sho), 65535) = s2i(sho) + 65536 A User Theorem
⊦ 0 ≤ s2i(sho) → band(s2i(sho), 65535) = s2i(sho) A User Theorem
⊦ 32766 < s2i(sho) ↔ s2i(sho) = 32767 A User Theorem
⊦ ¬ 65536 ≤ s2i(sho) + s2i(sho0) A User Theorem
⊦ s2i(sho1) < 0 → ¬ 32767 < s2i(sho0) + s2i(sho1) A User Theorem
⊦ s2i(sho0) + s2i(sho1) ≤ ~65536 ↔ s2i(sho0) = ~32768 ∧ s2i(sho1) = ~32768 A User Theorem
⊦ s2i(sho0) + s2i(sho1) = ~65536 ↔ s2i(sho0) = ~32768 ∧ s2i(sho1) = ~32768 A User Theorem
⊦ 0 ≤ s2i(sho0) → ¬ s2i(sho0) + s2i(sho1) < ~32768 A User Theorem
⊦ ¬ s2i(sho) + s2i(sho0) < ~65536 A User Theorem
⊦ s2i(sho) + s2i(sho0) ≤ 32767 ∧ 0 ≤ s2i(sho) ∧ 0 ≤ s2i(sho0) → s2i(i2s(s2i(sho) + s2i(sho0))) = s2i(sho) + s2i(sho0) A User Theorem
⊦ s2i(sho) + s2i(sho0) ≤ 32767 ∧ 0 < s2i(sho) ∧ 0 ≤ s2i(sho0) → s2i(i2s(s2i(sho) + s2i(sho0))) = s2i(sho) + s2i(sho0) A User Theorem
⊦ s2i(sho) + s2i(sho0) ≤ 32767 ∧ 0 < s2i(sho) ∧ 0 < s2i(sho0) → s2i(i2s(s2i(sho) + s2i(sho0))) = s2i(sho) + s2i(sho0) A User Theorem
⊦ i ≤ 32767 → ¬ 65536 ≤ i + s2i(sho0) A User Theorem
⊦ s2i(i2s(b2i(by))) = b2i(by) A User Theorem
⊦ ¬ 32767 < s2i(sho) / 256 A User Theorem
⊦ 0 < j → ¬ 65536 ≤ s2i(sho) / j A User Theorem
⊦ j ≠ 0 → ¬ 65536 ≤ s2i(sho) / j A User Theorem
⊦ ¬ 256 < s2i(sho) / 256 A User Theorem
⊦ s2i(shoi) = s2i(shoj) ↔ shoi = shoj A User Theorem
⊦ 32767 ≤ s2i(sho) ↔ s2i(sho) = 32767 A User Theorem
⊦ 0 ≤ i ∧ i ≤ 32767 → s2i(i2s(i)) = i A User Theorem
⊦ i2s(i) = i2s(j) ↔ s2i(i2s(i)) = s2i(i2s(j)) A User Theorem
⊦ ~32768 ≤ i ∧ i < 32768 → s2i(i2s(i)) = i A User Theorem
⊦ s2i(i2s(i)) = cast(16, i) A User Theorem
⊦ i2s(i) = i2s(cast(16, i)) A User Theorem
⊦ 32768 ≤ i → i2s(i) = i2s(i - 2 ^ 16) A User Theorem
⊦ s2i(i2s(j + j0)) = s2i(i2s(s2i(i2s(j)) + s2i(i2s(j0)))) A User Theorem
⊦ s2i(i2s(j + j0)) = s2i(i2s(s2i(i2s(j)) + j0)) A User Theorem
⊦ s2i(i2s(band(j, j0))) = s2i(i2s(band(s2i(i2s(j)), j0))) A User Theorem
⊦ i2s(bcompl(i)) = i2s(bcompl(s2i(i2s(i)))) A User Theorem
⊦ (i = 2 ^ 16 ∧ j = 2 ^ 14 → i2s(i / j) ≠ i2s(s2i(i2s(i)) / j)) ∧ (i = ~(2 ^ 15) ∧ j = 2 ^ 15 → i2s(i / j) ≠ i2s(i / s2i(i2s(j)))) ∧ (i = 2 ^ 16 ∧ j = 2 ^ 15 → i2s(i / j) ≠ i2s(s2i(i2s(i)) / s2i(i2s(j)))) ∧ (i = 2 ^ 16 + 2 ∧ j = 331 → i2s(i % j) ≠ i2s(s2i(i2s(i)) % j)) ∧ (i = 1 ∧ j = 2 ^ 16 - 1 → i2s(i % j) ≠ i2s(i % s2i(i2s(j)))) ∧ (i = 2 * 2 ^ 16 - 1 ∧ j = 2 ^ 16 - 1 → i2s(i % j) ≠ i2s(s2i(i2s(i)) % s2i(i2s(j)))) A User Theorem
⊦ i2s(i i<< j) = i2s(s2i(i2s(i)) i<< j) A User Theorem
⊦ (i = 32767 ∧ j = 32768 → ¬(i < j → s2i(i2s(i)) < s2i(i2s(j)))) ∧ (i = 32768 ∧ j = 1 → ¬(s2i(i2s(i)) < s2i(i2s(j)) → i < j)) ∧ (i = 65535 ∧ j = ~1 → ¬(s2i(i2s(i)) = s2i(i2s(j)) → i = j)) A User Theorem
⊦ s2i(i2s(j * j0)) = s2i(i2s(s2i(i2s(j)) * s2i(i2s(j0)))) A User Theorem
⊦ s2i(i2s(j * j0)) = s2i(i2s(s2i(i2s(j)) * j0)) A User Theorem
⊦ i2s(~ i) = i2s(~ s2i(i2s(i))) A User Theorem
⊦ s2i(i2s(bor(j, j0))) = s2i(i2s(bor(s2i(i2s(j)), j0))) A User Theorem
⊦ (i = 32768 ∧ j = 1 → i2s(i i>> j) ≠ i2s(s2i(i2s(i)) i>> j)) ∧ (i = 32768 ∧ j = 1 → i2s(i i>>> j) ≠ i2s(s2i(i2s(i)) i>>> j)) A User Theorem
⊦ i i<< j = i i<< s2i(i2s(j)) A User Theorem
⊦ i i>> j = i i>> s2i(i2s(j)) A User Theorem
⊦ i i>>> j = i i>>> s2i(i2s(j)) A User Theorem
⊦ s2i(i2s(j - j0)) = s2i(i2s(s2i(i2s(j)) - s2i(i2s(j0)))) A User Theorem
⊦ s2i(i2s(j - j0)) = s2i(i2s(s2i(i2s(j)) - j0)) A User Theorem
⊦ s2i(i2s(j - j0)) = s2i(i2s(j - s2i(i2s(j0)))) A User Theorem
⊦ s2i(i2s(bxor(j, j0))) = s2i(i2s(bxor(s2i(i2s(j)), j0))) A User Theorem
⊦ s2i(sho) < ~32767 ↔ s2i(sho) = ~32768 A User Theorem
⊦ ¬ band(65535, s2i(sho)) < 0 A User Theorem
⊦ ¬ 65536 ≤ s2i(sho) A User Theorem
⊦ ¬ 32768 ≤ s2i(sho) A User Theorem
⊦ 0 < i → ¬ i + 32767 < s2i(sho) A User Theorem
⊦ 0 ≤ i → ¬ i + 32767 < s2i(sho) A User Theorem
⊦ 0 ≤ i → ¬ 32768 + i < s2i(sho) A User Theorem
⊦ 0 < i → ¬ 32768 + i < s2i(sho) A User Theorem
⊦ 32767 ≤ i → ¬ i < s2i(sho) A User Theorem
⊦ 32768 ≤ i → ¬ i ≤ s2i(sho) A User Theorem
⊦ s2i(sho) ≠ 65535 A User Theorem
⊦ s2i(sho) ≠ 65536 A User Theorem
⊦ 32767 < i → s2i(sho) ≠ i A User Theorem
⊦ 65536 * i + s2i(sho) < 32768 ↔ i ≤ 0 A User Theorem
⊦ ~32768 ≤ s2i(sho) A User Theorem
⊦ ¬ s2i(sho) < ~32768 A User Theorem
⊦ i ≤ ~32768 → ¬ s2i(sho) < i A User Theorem
⊦ s2i(sho) ≤ ~32768 ↔ s2i(sho) = ~32768 A User Theorem
⊦ s2i(sho) % 65536 = s2i(sho) A User Theorem
i ≠ 0 ⊦ s2i(i2s(s2i(sho) % i)) = s2i(sho) % i A User Theorem
⊦ 0 ≤ s2i(sho) → (s2i(sho) + s2i(sho0)) % 65536 = s2i(sho) + s2i(sho0) A User Theorem
⊦ 0 ≤ s2i(sho) + s2i(sho0) → (s2i(sho) + s2i(sho0)) % 65536 = s2i(sho) + s2i(sho0) A User Theorem
⊦ 0 < s2i(sho) + s2i(sho0) → (s2i(sho) + s2i(sho0)) % 65536 = s2i(sho) + s2i(sho0) A User Theorem
⊦ s2i(sho0) + s2i(sho1) ≠ ~65536 → (s2i(sho0) + s2i(sho1)) % 65536 = s2i(sho0) + s2i(sho1) A User Theorem
⊦ s2i(sho0) ≠ 0 → ¬ 65536 ≤ s2i(sho) % s2i(sho0) A User Theorem
⊦ i2s(i * 65536 + j) = i2s(j) A User Theorem
⊦ i2s(j) = i2s(i * 65536 + j) A User Theorem
⊦ s2i(sho) ≠ ~65536 A User Theorem
⊦ s2i(sho) + 65536 * i = 0 ↔ i = 0 ∧ s2i(sho) = 0 A User Theorem
⊦ us2i(sho) + 65536 * i = 0 ↔ i = 0 ∧ s2i(sho) = 0 A User Theorem
⊦ ¬ 32767 < s2i(sho) A User Theorem
⊦ ¬ s2i(sho) ≤ ~32769 A User Theorem
⊦ ¬ s2i(sho) ≤ ~65536 A User Theorem
⊦ j < ~32768 → ¬ s2i(sho) ≤ j A User Theorem
⊦ ¬ s2i(sho) + 65536 ≤ s2i(sho0) A User Theorem
⊦ 0 < i → ¬ 65536 * i < s2i(sho) A User Theorem
⊦ ¬ s2i(sho) + 65536 < s2i(sho0) A User Theorem
⊦ 32766 < s2i(sho) ∧ 0 < i → ¬ s2i(sho) + i < 32768 A User Theorem
⊦ 32767 < s2i(sho) + s2i(sho0) → ¬ 0 ≤ s2i(i2s(s2i(sho) + s2i(sho0))) A User Theorem
⊦ ~32768 ≤ s2i(sho) ∧ s2i(sho) ≤ 32767 A User Theorem
⊦ 0 < s2i(sho) → s2i(i2s(s2i(sho) i>> 8)) = s2i(sho) i>> 8 A User Theorem
⊦ ¬ 32768 < 2 ^ n→i(# int2bits(s2i(sho)) - 1) A User Theorem
⊦ ¬ 32768 < 2 ^ (n→i(# int2bits(s2i(sho))) - 1) A User Theorem
⊦ ¬ 16 < # int2bits(s2i(sho)) A User Theorem
⊦ s2i(sho) ≤ s2i(sho0) ∧ 0 ≤ s2i(sho) → s2i(i2s(s2i(sho0) - s2i(sho))) = s2i(sho0) - s2i(sho) A User Theorem
⊦ s2i(sho) < 32767 → s2i(i2s(s2i(sho) + 1)) = s2i(sho) + 1 A User Theorem
⊦ s2i(sho) < 0 → s2i(i2s(s2i(sho) + 1)) = s2i(sho) + 1 A User Theorem
⊦ 0 ≤ s2i(sho) ∧ s2i(sho) < s2i(shoi) → s2i(i2s(s2i(sho) + 1)) = s2i(sho) + 1 A User Theorem
⊦ sho = i2s(0) ↔ s2i(sho) = 0 A User Theorem
⊦ s2i(i2s(1)) = 1 A User Theorem
⊦ i + j ≤ 32767 ∧ 0 ≤ i ∧ 0 ≤ j → s2i(i2s(i)) = i A User Theorem
⊦ 0 ≤ i ∧ i ≤ 10 → s2i(i2s(i * 141)) = i * 141 A User Theorem
⊦ s2i(i2s(0)) = 0 A User Theorem
⊦ # int2bits(i) ≤ 16 → s2i(i2s(i)) = i A User Theorem
⊦ i < s2i(i2s(i)) ↔ i < ~32768 A User Theorem
⊦ s2i(i2s(i)) < i ↔ 32768 ≤ i A User Theorem
⊦ i < 0 ∧ ~32768 ≤ i % 65536 → s2i(i2s(i)) = i % 65536 A User Theorem
⊦ i < 0 ∧ i % 65536 < ~32768 → s2i(i2s(i)) = i % 65536 + 65536 A User Theorem
⊦ i < ~32768 ∧ ~65536 < i → s2i(i2s(i)) = i + 65536 A User Theorem
⊦ s2i(i2s(i)) = bits2int(lastn(16, fillsgn(16, int2bits(i)))) A User Theorem
⊦ 0 ≤ i ∧ 32767 < i % 65536 → s2i(i2s(i)) = i % 65536 - 65536 A User Theorem
⊦ 0 ≤ i ∧ i % 65536 ≤ 32767 → s2i(i2s(i)) = i % 65536 A User Theorem
⊦ 32768 ≤ i ∧ i < 65536 → s2i(i2s(i)) = i - 65536 A User Theorem
⊦ 0 ≤ i ∧ i < 65536 → s2i(i2s(i - 65536)) = s2i(i2s(i)) A User Theorem
⊦ abs(ub2i(by)) = ub2i(by) A User Theorem
⊦ ub2i(i2b(band(i, 255))) = band(i, 255) A User Theorem
⊦ ub2i(by) ≠ 0 → (i / ub2i(by) < 0 ↔ i + ub2i(by) ≤ 0) A User Theorem
⊦ ub2i(by) = ub2i(by0) ↔ by = by0 A User Theorem
⊦ ¬ 255 < ub2i(by) A User Theorem
⊦ ¬ 256 ≤ ub2i(by) A User Theorem
⊦ ¬ 256 < ub2i(by) A User Theorem
⊦ ub2i(by) ≠ 0 → ¬ 256 ≤ i % ub2i(by) A User Theorem
⊦ ¬ 65536 ≤ ub2i(by) * ub2i(by0) A User Theorem
⊦ b2i(by) < 0 → ub2i(by) = 256 + b2i(by) A User Theorem
⊦ 0 ≤ b2i(by) → ub2i(by) = b2i(by) A User Theorem
⊦ ¬ ub2i(by) < 0 A User Theorem
⊦ ¬ ub2i(by) * ub2i(by0) < 0 A User Theorem
⊦ 0 ≤ i ∧ i < 256 → ub2i(i2b(i)) = i A User Theorem
⊦ ub2i(by) ≤ 0 ↔ ub2i(by) = 0 A User Theorem
⊦ ub2i(by) = 0 → b2i(by) = 0 A User Theorem
⊦ abs(us2i(sho)) = us2i(sho) A User Theorem
⊦ us2i(i2s(band(i, 255))) = band(i, 255) A User Theorem
⊦ band(s2i(sho), 255) = band(us2i(sho), 255) A User Theorem
⊦ band(s2i(sho), 255) = us2i(sho) % 256 A User Theorem
⊦ band(s2i(sho), 65535) = us2i(sho) A User Theorem
⊦ band(s2i(sho) i>> 8, 255) = band(us2i(sho) i>> 8, 255) A User Theorem
⊦ band(s2i(sho) i>> 8, 255) = us2i(sho) / 256 A User Theorem
⊦ us2i(sho) = us2i(sho0) ↔ sho = sho0 A User Theorem
⊦ ¬ 65536 ≤ us2i(sho) A User Theorem
⊦ 65535 ≤ us2i(sho) ↔ us2i(sho) = 65535 A User Theorem
⊦ 256 ≤ i ∧ 0 ≤ j → us2i(sho) ≠ i * 256 + j A User Theorem
⊦ ¬ 255 < us2i(sho) / 256 A User Theorem
⊦ ¬ 65535 < us2i(sho) A User Theorem
⊦ ¬ 256 ≤ us2i(sho) / 256 A User Theorem
⊦ 65535 ≤ i → ¬ i < us2i(sho) A User Theorem
⊦ ¬ 65536 < us2i(sho) A User Theorem
⊦ s2i(sho) < 0 → us2i(sho) = 2 ^ 16 + s2i(sho) A User Theorem
⊦ ¬ us2i(sho) < 0 A User Theorem
⊦ us2i(sho) + us2i(sho0) < 2 ^ 16 → us2i(i2s(s2i(sho) + s2i(sho0))) = us2i(sho) + us2i(sho0) A User Theorem
⊦ 0 ≤ i ∧ i < 32767 ∧ us2i(sho) + i < 2 ^ 16 → us2i(i2s(s2i(sho) + i)) = us2i(sho) + i A User Theorem
⊦ 0 ≤ s2i(sho) → us2i(sho) = s2i(sho) A User Theorem
⊦ 0 ≤ i ∧ i < 65536 → us2i(i2s(i)) = i A User Theorem
⊦ ~65536 ≤ i ∧ i < 0 → us2i(i2s(i)) = i + 65536 A User Theorem
⊦ i2s(us2i(sho)) = sho A User Theorem
⊦ ¬ us2i(sho0) * us2i(sho1) < 0 A User Theorem
⊦ us2i(sho) = 0 ↔ s2i(sho) = 0 A User Theorem
⊦ us2i(sho) ≤ 0 ↔ us2i(sho) = 0 A User Theorem