AbstractThe algebra of infinite trees is, as proved by C. Elgot, completely iterative, i.e., all ideal recursive equations are uniquely solvable. This is proved here to be a general coalgebraic phenomenon: let H be an endofunctor such that for every object X a final coalgebra, TX, of H(_) + X exists. Then TX is an object-part of a monad which is completely iterative. Moreover, a similar contruction of a “completely iterative monoid” is possible in every monoidal category satisfying mild side conditions
AbstractEvery finitary endofunctor H of Set can be represented via a finitary signature Σ and a coll...
Iterative theories, which were introduced by Calvin Elgot, formalise potentially infinite computatio...
AbstractWe prove that every finitary polynomial endofunctor of a category C has a fin...
AbstractThe algebra of infinite trees is, as proved by C. Elgot, completely iterative, i.e., all ide...
AbstractInfinite trees form a free completely iterative theory over any given signature—this fact, p...
AbstractCompletely iterative monads of Elgot et al. are the monads such that every guarded iterative...
AbstractFor every finitary endofunctor H of Set a rational algebraic theory (or a rational finitary ...
AbstractCompletely iterative theories of Calvin Elgot formalize (potentially infinite) computations ...
AbstractIterative monads of Calvin Elgot were introduced to treat the semantics of recursive equatio...
AbstractEvery endofunctor F of Set has an initial algebra and a final coalgebra, but they are classe...
AbstractFor algebras A whose type is given by an endofunctor, iterativity means that every flat equa...
AbstractIterative theories introduced by Calvin Elgot formalize potentially infinite computations as...
AbstractParametrized iterativity of an algebra means the existence of unique solutions of all finita...
AbstractA concrete description of terminal coalgebras, T, of all finitary endofunctors of Set is pre...
Iterative theories introduced by Calvin Elgot formalize potentially infinite computations as solu-ti...
AbstractEvery finitary endofunctor H of Set can be represented via a finitary signature Σ and a coll...
Iterative theories, which were introduced by Calvin Elgot, formalise potentially infinite computatio...
AbstractWe prove that every finitary polynomial endofunctor of a category C has a fin...
AbstractThe algebra of infinite trees is, as proved by C. Elgot, completely iterative, i.e., all ide...
AbstractInfinite trees form a free completely iterative theory over any given signature—this fact, p...
AbstractCompletely iterative monads of Elgot et al. are the monads such that every guarded iterative...
AbstractFor every finitary endofunctor H of Set a rational algebraic theory (or a rational finitary ...
AbstractCompletely iterative theories of Calvin Elgot formalize (potentially infinite) computations ...
AbstractIterative monads of Calvin Elgot were introduced to treat the semantics of recursive equatio...
AbstractEvery endofunctor F of Set has an initial algebra and a final coalgebra, but they are classe...
AbstractFor algebras A whose type is given by an endofunctor, iterativity means that every flat equa...
AbstractIterative theories introduced by Calvin Elgot formalize potentially infinite computations as...
AbstractParametrized iterativity of an algebra means the existence of unique solutions of all finita...
AbstractA concrete description of terminal coalgebras, T, of all finitary endofunctors of Set is pre...
Iterative theories introduced by Calvin Elgot formalize potentially infinite computations as solu-ti...
AbstractEvery finitary endofunctor H of Set can be represented via a finitary signature Σ and a coll...
Iterative theories, which were introduced by Calvin Elgot, formalise potentially infinite computatio...
AbstractWe prove that every finitary polynomial endofunctor of a category C has a fin...