Category Theory and Optimization
| Description: Category Theory and Optimization Quiz | |
| Number of Questions: 15 | |
| Created by: Aliensbrain Bot | |
| Tags: category theory optimization |
Which of the following is a fundamental concept in category theory?
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Functors
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Natural Transformations
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Categories
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All of the above
Functors, natural transformations, and categories are all fundamental concepts in category theory.
What is a functor?
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A mapping between two categories
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A mapping between two sets
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A mapping between two groups
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A mapping between two rings
A functor is a mapping between two categories that preserves their structure.
What is a natural transformation?
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A morphism between two functors
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A morphism between two categories
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A morphism between two sets
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A morphism between two groups
A natural transformation is a morphism between two functors that preserves their structure.
What is a category?
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A collection of objects and morphisms
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A collection of sets and functions
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A collection of groups and homomorphisms
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A collection of rings and homomorphisms
A category is a collection of objects and morphisms that satisfy certain axioms.
What is the Yoneda lemma?
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A result that relates functors to natural transformations
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A result that relates categories to functors
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A result that relates objects to morphisms
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A result that relates morphisms to objects
The Yoneda lemma is a result that relates functors to natural transformations.
What is the adjoint functor theorem?
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A result that gives conditions for the existence of an adjoint functor
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A result that gives conditions for the uniqueness of an adjoint functor
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A result that gives conditions for the composition of adjoint functors
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A result that gives conditions for the inverse of an adjoint functor
The adjoint functor theorem is a result that gives conditions for the existence of an adjoint functor.
What is the category of small categories?
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The category whose objects are small categories and whose morphisms are functors
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The category whose objects are small categories and whose morphisms are natural transformations
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The category whose objects are small categories and whose morphisms are isomorphisms
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The category whose objects are small categories and whose morphisms are equivalences
The category of small categories is the category whose objects are small categories and whose morphisms are functors.
What is the category of sets?
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The category whose objects are sets and whose morphisms are functions
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The category whose objects are sets and whose morphisms are natural transformations
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The category whose objects are sets and whose morphisms are isomorphisms
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The category whose objects are sets and whose morphisms are equivalences
The category of sets is the category whose objects are sets and whose morphisms are functions.
What is the category of groups?
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The category whose objects are groups and whose morphisms are homomorphisms
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The category whose objects are groups and whose morphisms are natural transformations
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The category whose objects are groups and whose morphisms are isomorphisms
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The category whose objects are groups and whose morphisms are equivalences
The category of groups is the category whose objects are groups and whose morphisms are homomorphisms.
What is the category of rings?
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The category whose objects are rings and whose morphisms are homomorphisms
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The category whose objects are rings and whose morphisms are natural transformations
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The category whose objects are rings and whose morphisms are isomorphisms
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The category whose objects are rings and whose morphisms are equivalences
The category of rings is the category whose objects are rings and whose morphisms are homomorphisms.
What is the category of topological spaces?
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The category whose objects are topological spaces and whose morphisms are continuous maps
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The category whose objects are topological spaces and whose morphisms are natural transformations
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The category whose objects are topological spaces and whose morphisms are homeomorphisms
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The category whose objects are topological spaces and whose morphisms are equivalences
The category of topological spaces is the category whose objects are topological spaces and whose morphisms are continuous maps.
What is the category of smooth manifolds?
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The category whose objects are smooth manifolds and whose morphisms are smooth maps
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The category whose objects are smooth manifolds and whose morphisms are natural transformations
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The category whose objects are smooth manifolds and whose morphisms are diffeomorphisms
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The category whose objects are smooth manifolds and whose morphisms are equivalences
The category of smooth manifolds is the category whose objects are smooth manifolds and whose morphisms are smooth maps.
What is the category of schemes?
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The category whose objects are schemes and whose morphisms are morphisms of schemes
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The category whose objects are schemes and whose morphisms are natural transformations
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The category whose objects are schemes and whose morphisms are isomorphisms
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The category whose objects are schemes and whose morphisms are equivalences
The category of schemes is the category whose objects are schemes and whose morphisms are morphisms of schemes.
What is the category of algebraic varieties?
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The category whose objects are algebraic varieties and whose morphisms are morphisms of algebraic varieties
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The category whose objects are algebraic varieties and whose morphisms are natural transformations
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The category whose objects are algebraic varieties and whose morphisms are isomorphisms
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The category whose objects are algebraic varieties and whose morphisms are equivalences
The category of algebraic varieties is the category whose objects are algebraic varieties and whose morphisms are morphisms of algebraic varieties.
What is the category of Lie algebras?
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The category whose objects are Lie algebras and whose morphisms are homomorphisms of Lie algebras
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The category whose objects are Lie algebras and whose morphisms are natural transformations
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The category whose objects are Lie algebras and whose morphisms are isomorphisms
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The category whose objects are Lie algebras and whose morphisms are equivalences
The category of Lie algebras is the category whose objects are Lie algebras and whose morphisms are homomorphisms of Lie algebras.