Implication Details
Claim: If a category is cartesian closed, then it has finite products.
Proof: This holds by definition.
This implication has a dual.
Show 54 categories using this implication
- empty category
- discrete category on two objects
- category of finite sets and bijections
- delooping of a group
- delooping of an infinite countable group
- delooping of a non-trivial finite group
- delooping of an infinite uncountable group
- delooping of the additive monoid of natural numbers
- delooping of the additive monoid of ordinal numbers
- category of sets equipped with an irreflexive binary relation
- category of sets equipped with a symmetric irreflexive binary relation
- category of small categories
- simplex category
- category of F(I)-sets
- category of finite sets and injections
- category of finite sets and surjections
- category of finite ordered sets
- category of finite sets
- category of finite sets of even cardinality
- category of finite sets of odd cardinality
- category of finite sets of cardinality a power of 3
- category of fields
- category of fields of characteristic zero
- category of Jónsson-Tarski algebras
- category of M-sets
- partially ordered set of natural numbers
- partially ordered collection of ordinal numbers
- category of partially ordered sets
- category of partially ordered sets without isolated points
- category of preordered sets
- category of quivers
- category of sequences of sets
- category of sets
- category of set functions and commutative squares
- category of sets and bijections
- discrete category of sets
- category of large families of sets
- category of large families of sets and bijections
- category of large families of sets which are mostly empty
- category of sets with finite-to-one maps
- category of pairs of sets
- category of sheaves
- category of combinatorial species
- category of finite Z-sets
- category of Z-sets
- cocompletion of a discrete–pair join
- forked commutative square
- category of simplicial sets
- walking coreflexive pair
- walking fork
- walking idempotent
- walking parallel pair
- walking span
- walking splitting