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ADJOINT FUNCTORS

  • Adjoint functors
  • Relationship between two functors abstracting many common constructions

    relationship are known as adjoint functors, one being the left adjoint and the other the right adjoint. Pairs of adjoint functors are ubiquitous in mathematics

    Adjoint functors

    Adjoint_functors

  • Universal property
  • Characterizing property of mathematical constructions

    concept of adjoint functors was introduced independently by Daniel Kan in 1958. Mathematics portal Free object Natural transformation Adjoint functor Monad

    Universal property

    Universal property

    Universal_property

  • Formal criteria for adjoint functors
  • Criteria in Category theory of Mathematics

    mathematics, the formal criteria for adjoint functors are criteria for the existence of a left or right adjoint of a given functor. One criterion is the following

    Formal criteria for adjoint functors

    Formal_criteria_for_adjoint_functors

  • Limit (category theory)
  • Mathematical concept

    colimits, like the strongly related notions of universal properties and adjoint functors, exist at a high level of abstraction. In order to understand them

    Limit (category theory)

    Limit_(category_theory)

  • Forgetful functor
  • Concept in category theory

    of a forgetful functor with no adjoint. There is no field satisfying a free universal property for a given set. Adjoint functors Functors Projection (set

    Forgetful functor

    Forgetful_functor

  • Functor
  • Mapping between categories

    pairs of adjoint functors. Functors sometimes appear in functional programming. For instance, the programming language Haskell has a class Functor where

    Functor

    Functor

  • Category theory
  • General theory of mathematical structures

    Adjoint functors: A functor can be left (or right) adjoint to another functor that maps in the opposite direction. Such a pair of adjoint functors typically

    Category theory

    Category theory

    Category_theory

  • Topos
  • Mathematical category

    : X → Y {\displaystyle u:X\to Y} is a pair of adjoint functors (u∗,u∗) (where u∗ : Y → X is left adjoint to u∗ : X → Y) such that u∗ preserves finite limits

    Topos

    Topos

  • Full and faithful functors
  • Functors which are surjective and injective on hom-sets

    category theory, a faithful functor is a functor that is injective on hom-sets, and a full functor is surjective on hom-sets. A functor that has both properties

    Full and faithful functors

    Full_and_faithful_functors

  • Monad (category theory)
  • Operation in algebra and mathematics

    category (an endofunctor is a functor mapping a category to itself). For example, if F , G {\displaystyle F,G} are functors adjoint to each other, then T =

    Monad (category theory)

    Monad_(category_theory)

  • Adjoint
  • Index of articles associated with the same name

    Look up adjoint in Wiktionary, the free dictionary. In mathematics, the term adjoint applies in several situations. Several of these share a similar formalism:

    Adjoint

    Adjoint

  • Initial and terminal objects
  • Special objects used in (mathematical) category theory

    properties and adjoint functors. Let 1 be the discrete category with a single object (denoted by •), and let U : C → 1 be the unique (constant) functor to 1. Then

    Initial and terminal objects

    Initial_and_terminal_objects

  • Inverse limit
  • Construction in category theory

    then just a contravariant functor I → C. Let C I o p {\displaystyle C^{I^{\mathrm {op} }}} be the category of these functors (with natural transformations

    Inverse limit

    Inverse_limit

  • Hermitian adjoint
  • Conjugate transpose of an operator in infinite dimensions

    to the defining properties of pairs of adjoint functors in category theory, and this is where adjoint functors got their name. Mathematical concepts Conjugate

    Hermitian adjoint

    Hermitian_adjoint

  • Transpose of a linear map
  • Induced map between the dual spaces of the two vector spaces

    {\displaystyle u(X)} of u {\displaystyle u} is weakly closed. Adjoint functors – Relationship between two functors abstracting many common constructions Composition

    Transpose of a linear map

    Transpose_of_a_linear_map

  • T-structure
  • Concept in homological algebra

    adjoint functors ( j ! , j ∗ , j ∗ ) {\displaystyle (j_{!},j^{*},j_{*})} and ( i ∗ , i ∗ , i ! ) {\displaystyle (i^{*},i_{*},i^{!})} . The functors i

    T-structure

    T-structure

  • Representable functor
  • Functor type

    has a left adjoint. The categorical notions of universal morphisms and adjoint functors can both be expressed using representable functors. Let G : D

    Representable functor

    Representable_functor

  • Monoidal category
  • Category admitting tensor products

    monoidal structure induced by the cartesian product). Monoidal functors are the functors between monoidal categories that preserve the tensor product and

    Monoidal category

    Monoidal_category

  • Duality (mathematics)
  • General concept and operation in mathematics

    in topology and more generally model categories. Two functors F: C → D and G: D → C are adjoint if for all objects c in C and d in D HomD(F(c), d) ≅ HomC(c

    Duality (mathematics)

    Duality_(mathematics)

  • Enriched category
  • Category whose hom sets have algebraic structure

    ordinary functors. Additionally, one demands that the diagram commute, which is analogous to the rule F(fg)=F(f)F(g) for ordinary functors. There is

    Enriched category

    Enriched_category

  • Commutative diagram
  • Collection of maps which give the same result

    Cat is naturally a 2-category, with functors as its arrows and natural transformations as the arrows between functors. In this setting, commutative diagrams

    Commutative diagram

    Commutative diagram

    Commutative_diagram

  • Natural transformation
  • Central object of study in category theory

    to be a "morphism of functors". Informally, the notion of a natural transformation states that a particular map between functors can be done consistently

    Natural transformation

    Natural_transformation

  • Cartesian closed category
  • Type of category in category theory

    requirement that the functor –×Y (i.e. the functor from C to C that maps objects X to X×Y and morphisms φ to φ × idY) has a right adjoint, usually denoted

    Cartesian closed category

    Cartesian_closed_category

  • Category (mathematics)
  • Mathematical object that generalizes the standard notions of sets and functions

    of all small categories, with functors between them as morphisms. In turn, a functor category has as objects functors between two fixed categories and

    Category (mathematics)

    Category (mathematics)

    Category_(mathematics)

  • Quasi-category
  • Generalization of a category

    category theory. Namely, two functors F : C → D , G : D → C {\displaystyle F:C\to D,\,G:D\to C} are said to be an adjoint pair if there exists a 2-morphism

    Quasi-category

    Quasi-category

  • Direct limit
  • Special case of colimit in category theory

    {\displaystyle {\mathcal {C}}} admits an alternative description in terms of functors. Any directed set ⟨ I , ≤ ⟩ {\displaystyle \langle I,\leq \rangle } can

    Direct limit

    Direct_limit

  • Monoidal functor
  • Concept in category theory

    theory, monoidal functors are functors between monoidal categories which preserve the monoidal structure. More specifically, a monoidal functor between two

    Monoidal functor

    Monoidal_functor

  • Six operations
  • Formalism in homological algebra

    tensor product internal Hom The functors f ∗ {\displaystyle f^{*}} and f ∗ {\displaystyle f_{*}} form an adjoint functor pair, as do f ! {\displaystyle

    Six operations

    Six_operations

  • Product (category theory)
  • Generalized object in category theory

    Z).} Coproduct – the dual of the product Diagonal functor – the left adjoint of the product functor. Limit and colimits – Mathematical concept Equalizer –

    Product (category theory)

    Product_(category_theory)

  • Comma category
  • Mathematics construct

    identity functor may be replaced with some other functor; this yields a family of categories particularly useful in the study of adjoint functors. For example

    Comma category

    Comma_category

  • Galois connection
  • Particular correspondence between two partially ordered sets

    relative to ≤. The term "adjoint" refers to the fact that monotone Galois connections are special cases of pairs of adjoint functors in category theory as

    Galois connection

    Galois connection

    Galois_connection

  • Abelian category
  • Category with direct sums and certain types of kernels and cokernels

    it turns out that exact functors, i.e. the functors preserving exact sequences in various senses, are the relevant functors between abelian categories

    Abelian category

    Abelian_category

  • Derived functor
  • Homological construction in category theory

    mathematics, specifically category theory, certain functors may be derived to obtain other functors closely related to the original ones. This operation

    Derived functor

    Derived_functor

  • Glossary of category theory
  • See Bousfield localization. calculus of functors The calculus of functors is a technique of studying functors in the manner similar to the way a function

    Glossary of category theory

    Glossary_of_category_theory

  • Isomorphism
  • In mathematics, invertible homomorphism

    {\displaystyle gf=1_{a}.} Two categories C and D are isomorphic if there exist functors F : C → D {\displaystyle F:C\to D} and G : D → C {\displaystyle G:D\to

    Isomorphism

    Isomorphism

    Isomorphism

  • Morphism
  • Map (arrow) between two objects of a category

    diffeomorphisms. In the category of small categories, the morphisms are functors. In a functor category, the morphisms are natural transformations. For more examples

    Morphism

    Morphism

  • Matlis duality
  • Theorem in algebra

    be conceptually explained using the language of adjoint functors and derived categories: the functor between the derived categories of R- and k-modules

    Matlis duality

    Matlis_duality

  • Model category
  • Mathematical category with weak equivalences, fibrations and cofibrations

    and homotopy classes of continuous maps, whence the name. A pair of adjoint functors F : C ⇆ D : G {\displaystyle F:C\leftrightarrows D:G} between two model

    Model category

    Model_category

  • Additive category
  • Type of category in category theory

    must be additive functors (see here). Most of the interesting functors studied in category theory are adjoints. When considering functors between R-linear

    Additive category

    Additive_category

  • Tensor–hom adjunction
  • Concept in mathematics

    {\displaystyle -\otimes X} and hom-functor Hom ⁡ ( X , − ) {\displaystyle \operatorname {Hom} (X,-)} form an adjoint pair: Hom ⁡ ( Y ⊗ X , Z ) ≅ Hom ⁡

    Tensor–hom adjunction

    Tensor–hom_adjunction

  • Kan extension
  • Category theory constructs

    category theory, a branch of mathematics. They are closely related to adjoints, but are also related to limits and ends. They are named after Daniel M

    Kan extension

    Kan_extension

  • 2-category
  • Generalization of category

    (small) categories, where a 2-morphism is a natural transformation between functors. The concept of a strict 2-category was first introduced by Charles Ehresmann

    2-category

    2-category

  • Yoneda lemma
  • Embedding of categories into functor categories

    category of functors (contravariant set-valued functors) defined on that category. It also clarifies how the embedded category of representable functors and their

    Yoneda lemma

    Yoneda_lemma

  • Epimorphism
  • Surjective homomorphism

    -)&\rightarrow &\operatorname {Hom} (X,-)\end{matrix}}} being a monomorphism in the functor category SetC. Every coequalizer is an epimorphism, a consequence of the

    Epimorphism

    Epimorphism

  • Diagonal functor
  • the diagonal functor. Similarly, the colimit functor (which exists if the category is cocomplete) is the left-adjoint of the diagonal functor. For example

    Diagonal functor

    Diagonal_functor

  • Preadditive category
  • Mathematical category whose hom sets form Abelian groups

    F:{\text{Hom}}(A,B)\rightarrow {\text{Hom}}(F(A),F(B))} is a group homomorphism. Most functors studied between preadditive categories are additive. For a simple example

    Preadditive category

    Preadditive_category

  • Coherent duality
  • Generalisations of Serre duality in mathematics

    as the existence of a right adjoint functor f ! {\displaystyle f^{!}} , called twisted or exceptional inverse image functor, to a higher direct image with

    Coherent duality

    Coherent_duality

  • Pseudomonad (category theory)
  • Generalization of monads

    for adjoint functors Day & Street 1997, 3. PSEUDOMONOIDS Lack 2000 Marmolejo & Wood 2008 Cheng, Hyland & Power 2003 Note that Remark 2.1. of 2-functor in

    Pseudomonad (category theory)

    Pseudomonad_(category_theory)

  • Conservative functor
  • isomorphism. The forgetful functors in algebra, such as from Grp to Set, are conservative. More generally, every monadic functor is conservative. In contrast

    Conservative functor

    Conservative_functor

  • Currying
  • Transforming a function in such a way that it only takes a single argument

    describes an adjoint pair of functors: for every fixed set C {\displaystyle C} , the functor B ↦ B × C {\displaystyle B\mapsto B\times C} is left adjoint to the

    Currying

    Currying

  • Exponential object
  • Categorical generalization of a function space in set theory

    (f\colon X\to Z)\mapsto (f^{Y}\colon X^{Y}\to Z^{Y})} , is a right adjoint to the product functor − × Y {\displaystyle -\times Y} . For this reason, the morphisms

    Exponential object

    Exponential_object

  • Hom functor
  • Functor mapping hom objects to an underlying category

    between objects) give rise to important functors to the category of sets. These functors are called hom-functors and have numerous applications in category

    Hom functor

    Hom_functor

  • Functor category
  • Mathematical structures in category theory

    a branch of mathematics, a functor category D C {\displaystyle D^{C}} is a category where the objects are the functors F : C → D {\displaystyle F:C\to

    Functor category

    Functor_category

  • William Lawvere
  • American mathematician and philosopher (1937–2023)

    universal quantifiers of logic could be characterized as adjoint functors to the substitution functor. This revealed a deep connection between logic and geometry

    William Lawvere

    William Lawvere

    William_Lawvere

  • Beck's monadicity theorem
  • Theorem in category theory

    monadicity theorem asserts that a functor U : C → D {\displaystyle U:C\to D} is monadic if and only if U has a left adjoint; U reflects isomorphisms (if U(f)

    Beck's monadicity theorem

    Beck's_monadicity_theorem

  • Equivalence of categories
  • Abstract mathematics relationship

    D→D denote the identity functors on C and D, assigning each object and morphism to itself. If F and G are contravariant functors one speaks of a duality

    Equivalence of categories

    Equivalence_of_categories

  • Smash product
  • Combination of pointed topological spaces

    kind of tensor product in an appropriate category of pointed spaces. Adjoint functors make the analogy between the tensor product and the smash product more

    Smash product

    Smash_product

  • Cone (category theory)
  • Construction in category theory

    natural map between constant functors Δ(N), Δ(M) corresponds to a morphism between N and M. In this sense, the diagonal functor acts trivially on arrows.

    Cone (category theory)

    Cone_(category_theory)

  • Change of rings
  • Operation in algebra

    f_{*}N=N_{R}} , formed by restriction of scalars. They are related as adjoint functors: f ∗ : Mod R ⇆ Mod S : f ∗ {\displaystyle f^{*}:{\text{Mod}}_{R}\leftrightarrows

    Change of rings

    Change_of_rings

  • Free category
  • functor U. Mathematics portal Free strict monoidal category Free object Adjoint functors Awodey, Steve (2010). Category theory (2nd ed.). Oxford: Oxford University

    Free category

    Free_category

  • Kleisli category
  • Category theory

    Y_{T})=\mu _{Y}\circ Tf\;} One can show that F and G are indeed functors and that F is left adjoint to G. The counit of the adjunction is given by ε Y T = (

    Kleisli category

    Kleisli_category

  • Frobenius reciprocity
  • Duality between the process of restricting and inducting in representation theory

    )&\longmapsto \operatorname {Ind} _{H}^{G}(W,\tau )\end{aligned}}} These functors form an adjoint pair Ind H G ⊣ Res H G {\displaystyle \operatorname {Ind} _{H}^{G}\dashv

    Frobenius reciprocity

    Frobenius_reciprocity

  • Lawvere's fixed-point theorem
  • Theorem in category theory

    Complete Concrete Forgetful functor Pre-abelian Preadditive Commutative diagram Cone End Exponential Functor Adjoint functors Conservative Derived Diagonal

    Lawvere's fixed-point theorem

    Lawvere's_fixed-point_theorem

  • Polynomial functor
  • Endofunctor on the category V of finite-dimensional vector spaces

    are polynomial functors from V {\displaystyle {\mathcal {V}}} to V {\displaystyle {\mathcal {V}}} ; these two are also Schur functors. The notion appears

    Polynomial functor

    Polynomial_functor

  • Pullback (category theory)
  • Most general completion of a commutative square given two morphisms with same codomain

    R, is given by the tensor product over R, and Spec is a contravariant functor, the pullback of two affine schemes Spec(A) and Spec(B) over Spec(R), usually

    Pullback (category theory)

    Pullback_(category_theory)

  • Coequalizer
  • Aspect of category theory

    the standard 1-simplex. Coequalizers can be large: There are exactly two functors from the category 1 having one object and one identity arrow, to the category

    Coequalizer

    Coequalizer

  • Fibred category
  • Concept in category theory

    pullback functor taking bundles on Y to bundles on X. Fibred categories formalise the system consisting of these categories and inverse image functors. Similar

    Fibred category

    Fibred_category

  • Coproduct
  • Category-theoretic construction

    \ldots \oplus X_{n}} . Suppose all finite coproducts exist in C, coproduct functors have been chosen as above, and 0 denotes the initial object of C corresponding

    Coproduct

    Coproduct

  • Subcategory
  • Category whose objects and morphisms are inside a bigger category

    There is an obvious faithful functor I : S → C {\displaystyle I:{\mathcal {S}}\to {\mathcal {C}}} , called the inclusion functor which takes objects and morphisms

    Subcategory

    Subcategory

  • Opposite category
  • Mathematical category formed by reversing morphisms

    object Dual (category theory) Duality (mathematics) Adjoint functor Contravariant functor Opposite functor "Is there an introduction to probability theory

    Opposite category

    Opposite_category

  • Pushout (category theory)
  • Most general completion of a commutative square given two morphisms with same domain

    we may interpret the theorem as confirming that the fundamental group functor preserves pushouts of inclusions. We might expect this to be simplest when

    Pushout (category theory)

    Pushout_(category_theory)

  • Power set
  • Mathematical set of all subsets of a set

    quantifier can be understood as the right adjoint of a functor between power sets, the inverse image functor of a function between sets; likewise, the

    Power set

    Power set

    Power_set

  • ∞-groupoid
  • Abstract homotopical model for topological spaces

    consider globular objects in a category C {\displaystyle {\mathcal {C}}} as functors X ∙ : G o p → C . {\displaystyle X_{\bullet }\colon \mathbb {G} ^{op}\to

    ∞-groupoid

    ∞-groupoid

  • Algebra representation
  • Study of abstract algebraic structures

    algebra is not unital, it may be made so in a standard way (see the adjoint functors page); there is no essential difference between modules for the resulting

    Algebra representation

    Algebra_representation

  • Outline of category theory
  • Overview of and topical guide to category theory

    categories Subcategory Faithful functor Full functor Forgetful functor Representable functor Functor category Adjoint functors Galois connection Pontryagin

    Outline of category theory

    Outline_of_category_theory

  • Lift (mathematics)
  • Hom functor are adjoint; however, they might not always lift to an exact sequence. This leads to the definition of the Tor functor and the Ext functor. A

    Lift (mathematics)

    Lift_(mathematics)

  • Free object
  • Left adjoint to a forgetful functor to sets

    objects exist in C, the functor F, called the free functor is a left adjoint to the faithful functor U; that is, there is a bijection Hom S e t ⁡ ( X

    Free object

    Free_object

  • Exact functor
  • Functor that preserves short exact sequences

    particularly homological algebra, an exact functor is a functor that preserves short exact sequences. Exact functors are convenient for algebraic calculations

    Exact functor

    Exact_functor

  • Product category
  • Product of two categories, in category theory

    I} satisfy: given a family of functors f i : D → C i {\displaystyle f_{i}:D\to C_{i}} , there exists a unique functor f : D → P {\displaystyle f:D\to

    Product category

    Product_category

  • Higher category theory
  • Generalization of category theory

    the category known as Cat, which is the category of small categories and functors is actually a 2-category with natural transformations as its 2-morphisms

    Higher category theory

    Higher_category_theory

  • Monad (functional programming)
  • Design pattern in functional programming to build generic types

    Heinrich (1965). "Every standard construction is induced by a pair of adjoint functors" (PDF). Proceedings of the American Mathematical Society. 16 (3): 544–546

    Monad (functional programming)

    Monad_(functional_programming)

  • Grothendieck topology
  • Mathematical structure

    Continuous functors induce functors between the corresponding topoi by sending a sheaf F {\displaystyle F} to F u {\displaystyle Fu} . These functors are called

    Grothendieck topology

    Grothendieck_topology

  • Pre-abelian category
  • Category

    pre-abelian category, exact functors can be described in particularly simple terms. First, recall that an additive functor is a functor F: C → D between preadditive

    Pre-abelian category

    Pre-abelian_category

  • Amnestic functor
  • an amnestic functor F : A → B is a functor for which an A-isomorphism ƒ is an identity whenever Fƒ is an identity. An example of a functor which is not

    Amnestic functor

    Amnestic_functor

  • Simplicial set
  • Mathematical construction used in homotopy theory

    contravariant functor X : Δ → Set where Set is the category of sets. (Alternatively and equivalently, one may define simplicial sets as covariant functors from

    Simplicial set

    Simplicial_set

  • String diagram
  • Graphical representation of a morphism

    C_{-}:\mathbf {MonSig} \to \mathbf {MonCat} } , i.e. the left adjoint to the forgetful functor, sends a monoidal signature Σ {\displaystyle \Sigma } to the

    String diagram

    String_diagram

  • Applied category theory
  • Applications of category theory

    Complete Concrete Forgetful functor Pre-abelian Preadditive Commutative diagram Cone End Exponential Functor Adjoint functors Conservative Derived Diagonal

    Applied category theory

    Applied_category_theory

  • Diagram (category theory)
  • Indexed collection of objects and morphisms in a category

    natural transformation between functors. One can then interpret the category of diagrams of type J in C as the functor category CJ, and a diagram is then

    Diagram (category theory)

    Diagram_(category_theory)

  • Isomorphism of categories
  • Relation of categories in category theory

    functor category C1, with objects functors c: 1 → C, selecting an object c∈Ob(C), and arrows natural transformations f: c → d between these functors,

    Isomorphism of categories

    Isomorphism_of_categories

  • Turnstile (symbol)
  • Symbol in mathematical logic

    {\displaystyle F\dashv G} , is used to indicate that the functor F is left adjoint to the functor G. More rarely, a turnstile ( ⊢ {\displaystyle \vdash }

    Turnstile (symbol)

    Turnstile_(symbol)

  • Brown's representability theorem
  • On representability of a contravariant functor on the category of connected CW complexes

    a (covariant) functor F: C → D between triangulated categories satisfying certain technical conditions to have a right adjoint functor. Namely, if C and

    Brown's representability theorem

    Brown's_representability_theorem

  • Symmetric algebra
  • "Smallest" commutative algebra that contains a vector space

    asserts that the composition of two left adjoint functors is also a left adjoint functor. Here, the forgetful functor from commutative algebras to vector spaces

    Symmetric algebra

    Symmetric_algebra

  • Reflective subcategory
  • Concept in mathematical theory of categories

    is said to be reflective in B when the inclusion functor from A to B has a left adjoint. This adjoint is sometimes called a reflector, or localization

    Reflective subcategory

    Reflective_subcategory

  • Strong monad
  • 1017/S0960129597002375. ISSN 0960-1295. Kock, Anders (1972-12-01). "Strong functors and monoidal monads". Archiv der Mathematik. 23 (1): 113–120. doi:10.1007/BF01304852

    Strong monad

    Strong_monad

  • Localization (commutative algebra)
  • Construction of a ring of fractions

    properties, by using the fact that the composition of two left adjoint functors is a left adjoint functor. If R = Z {\displaystyle R=\mathbb {Z} } is the ring of

    Localization (commutative algebra)

    Localization_(commutative_algebra)

  • Monomorphism
  • Injective homomorphism

    Complete Concrete Forgetful functor Pre-abelian Preadditive Commutative diagram Cone End Exponential Functor Adjoint functors Conservative Derived Diagonal

    Monomorphism

    Monomorphism

    Monomorphism

  • Categorification
  • Connects set theory with category theory

    replaces sets with categories, functions with functors, and equations with natural isomorphisms of functors satisfying additional properties. The term was

    Categorification

    Categorification

  • Sheaf (mathematics)
  • Tool to track locally defined data attached to the open sets of a topological space

    same as a contravariant functor from O ( X ) {\displaystyle O(X)} to C {\displaystyle C} . Morphisms in this category of functors, also known as natural

    Sheaf (mathematics)

    Sheaf_(mathematics)

  • Category of rings
  • Category whose objects are rings and whose morphisms are ring homomorphisms

    forgetful functors A : Ring → Ab M : Ring → Mon which "forget" multiplication and addition, respectively. Both of these functors have left adjoints. The left

    Category of rings

    Category_of_rings

  • Cokernel
  • Quotient space of a codomain of a linear map by the map's image

    Complete Concrete Forgetful functor Pre-abelian Preadditive Commutative diagram Cone End Exponential Functor Adjoint functors Conservative Derived Diagonal

    Cokernel

    Cokernel

AI & ChatGPT searchs for online references containing ADJOINT FUNCTORS

ADJOINT FUNCTORS

AI search references containing ADJOINT FUNCTORS

ADJOINT FUNCTORS

  • Lashah
  • Biblical

    Lashah

    to call; to anoint

    Lashah

  • Peyvand
  • Girl/Female

    Arabic, Muslim

    Peyvand

    Connection; Joint

    Peyvand

  • Dextra
  • Girl/Female

    British, English, Latin

    Dextra

    Dyer; Skillful; Dexterous; Adroit; Right-handed

    Dextra

  • Areeb | آریب
  • Boy/Male

    Muslim

    Areeb | آریب

    Skillful, Adroit (1)

    Areeb | آریب

  • COWAL
  • Male

    English

    COWAL

    Anglicized form of Irish Gaelic Comhghall, COWAL means "joint pledge."

    COWAL

  • Areeb
  • Boy/Male

    Muslim/Islamic

    Areeb

    Skillful Adroit

    Areeb

  • ÉADAOIN
  • Female

    Irish

    ÉADAOIN

    Variant spelling of Irish Éadan, ÉADAOIN means "face" or perhaps "against" or "opposite."

    ÉADAOIN

  • COMGAL
  • Male

    Irish

    COMGAL

    Contracted form of Irish Gaelic Comhghall, COMGAL means "joint pledge."

    COMGAL

  • Areeb
  • Boy/Male

    Arabic, Australian, Muslim, Sindhi

    Areeb

    Skillful; Adroit

    Areeb

  • Joynt
  • Surname or Lastname

    English

    Joynt

    English : presumably from Old French joint ‘united’, ‘joined’. The application as a surname is unclear.

    Joynt

  • TAKUMI
  • Male

    Japanese

    TAKUMI

    (1-巧, 2-匠, 3-工) Japanese name TAKUMI means 1) "adroit," 2) "artisan," or 3) "skilful."

    TAKUMI

  • Lashah
  • Girl/Female

    Biblical

    Lashah

    To call, to anoint.

    Lashah

  • Dextra
  • Girl/Female

    Latin

    Dextra

    Adroit; skillful.

    Dextra

  • Lav
  • Girl/Female

    Indian, Telugu

    Lav

    Love; To Joint

    Lav

  • Fuge
  • Surname or Lastname

    English

    Fuge

    English : from a pet form of Fulcher.German (also Füge) : nickname for a skillful, adroit person, from Middle High German vüege ‘skillful’, ‘fitting’ (see Fiegel).

    Fuge

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Online names & meanings

  • Vanan | வநந
  • Boy/Male

    Tamil

    Vanan | வநந

    Longing

  • Vrinda
  • Girl/Female

    Assamese, Christian, Gujarati, Hindu, Indian, Kannada, Malayalam, Marathi, Mythological, Oriya, Sanskrit, Sindhi, Telugu, Traditional

    Vrinda

    Basil; Tulsi; Goddess Radha

  • Mulham |
  • Boy/Male

    Muslim

    Mulham |

    Inspired

  • Dilshith | தில்ஷித
  • Boy/Male

    Tamil

    Dilshith | தில்ஷித

  • Phil
  • Boy/Male

    American, Australian, British, Christian, English, French, German, Greek

    Phil

    Lover of Horses; Form of Phillip

  • LOUKANOS
  • Male

    Greek

    LOUKANOS

    (Λουκανός) Greek form of Latin Lucanus, LOUKANOS means "from Lucania," a region of southern Italy. Lucania probably comes from the word lux, meaning "light."

  • Purchase
  • Surname or Lastname

    English

    Purchase

    English : metonymic occupational name for an official responsible for obtaining the supplies required by a monastery or manor house, from Anglo-Norman French purchacer ‘to acquire or buy’ (Old French pourchacier, from chacier ‘to chase or catch’ + the intensive prefix p(o)ur, Latin pro).

  • Meryl Muirgheal
  • Girl/Female

    Irish

    Meryl Muirgheal

    muirgheal “bright as the sea.” The Irish form of the name Muriel.

  • Shazfa
  • Girl/Female

    Arabic, Muslim

    Shazfa

    Princess; Success; Beautiful

  • Cnidel
  • Boy/Male

    Arthurian Legend

    Cnidel

    Name of a king.

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Other words and meanings similar to

ADJOINT FUNCTORS

AI search in online dictionary sources & meanings containing ADJOINT FUNCTORS

ADJOINT FUNCTORS

  • Adjoin
  • v. t.

    To join or unite to; to lie contiguous to; to be in contact with; to attach; to append.

  • Joint
  • v. t.

    To separate the joints; of; to divide at the joint or joints; to disjoint; to cut up into joints, as meat.

  • Joint
  • v. t.

    To unite by a joint or joints; to fit together; to prepare so as to fit together; as, to joint boards.

  • Adjoining
  • p. pr. & vb. n.

    of Adjoin

  • Joint
  • n.

    The space between the adjacent surfaces of two bodies joined and held together, as by means of cement, mortar, etc.; as, a thin joint.

  • Joint
  • a.

    United, joined, or sharing with another or with others; not solitary in interest or action; holding in common with an associate, or with associates; acting together; as, joint heir; joint creditor; joint debtor, etc.

  • Adjoined
  • imp. & p. p.

    of Adjoin

  • Joint
  • a.

    Joined; united; combined; concerted; as joint action.

  • Joint
  • v. t.

    To provide with a joint or joints; to articulate.

  • Rejoint
  • v. t.

    To reunite the joints of; to joint anew.

  • Adjoint
  • n.

    An adjunct; a helper.

  • Adjoin
  • v. i.

    To lie or be next, or in contact; to be contiguous; as, the houses adjoin.

  • Joint
  • a.

    Shared by, or affecting two or more; held in common; as, joint property; a joint bond.

  • Joint
  • n.

    The place or part where two things or parts are joined or united; the union of two or more smooth or even surfaces admitting of a close-fitting or junction; junction as, a joint between two pieces of timber; a joint in a pipe.

  • Joint
  • n.

    The part or space included between two joints, knots, nodes, or articulations; as, a joint of cane or of a grass stem; a joint of the leg.

  • Adjoin
  • v. i.

    To join one's self.

  • Joint
  • n.

    A joining of two things or parts so as to admit of motion; an articulation, whether movable or not; a hinge; as, the knee joint; a node or joint of a stem; a ball and socket joint. See Articulation.

  • Adroit
  • a.

    Dexterous in the use of the hands or in the exercise of the mental faculties; exhibiting skill and readiness in avoiding danger or escaping difficulty; ready in invention or execution; -- applied to persons and to acts; as, an adroit mechanic, an adroit reply.

  • Joint
  • v. i.

    To fit as if by joints; to coalesce as joints do; as, the stones joint, neatly.