Inherited from algebra.ring.Field[A]
Inherited from MultiplicativeCommutativeGroup[A]
Inherited from algebra.ring.MultiplicativeGroup[A]
Inherited from CommutativeRing[A]
Inherited from CommutativeRng[A]
Inherited from CommutativeRig[A]
Inherited from MultiplicativeCommutativeMonoid[A]
Inherited from CommutativeSemiring[A]
Inherited from MultiplicativeCommutativeSemigroup[A]
Inherited from algebra.ring.Ring[A]
Inherited from algebra.ring.Rng[A]
Inherited from AdditiveCommutativeGroup[A]
Inherited from algebra.ring.AdditiveGroup[A]
Inherited from algebra.ring.Rig[A]
Inherited from algebra.ring.MultiplicativeMonoid[A]
Inherited from algebra.ring.Semiring[A]
Inherited from algebra.ring.MultiplicativeSemigroup[A]
Inherited from AdditiveCommutativeMonoid[A]
Inherited from AdditiveCommutativeSemigroup[A]
Inherited from algebra.ring.AdditiveMonoid[A]
Inherited from algebra.ring.AdditiveSemigroup[A]
Inherited from Serializable
Inherited from Serializable
Inherited from Any
Field defined as a field of fractions with a default implementation of GCD/LCM such that - gcd(a/b, c/d) = gcd(a, c) / lcm(b, d) - lcm(a/b, c/d) = lcm(a, c) / gcd(b, d) which corresponds to the convention of the GCD domains of SageMath; on rational numbers, it "yields the unique extension of gcd from integers to rationals presuming the natural extension of the divisibility relation from integers to rationals", see http://math.stackexchange.com/a/151431