Examples of using Codomain in English and their translations into Dutch
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Colloquial
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Official
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Medicine
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Financial
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Computer
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Ecclesiastic
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Official/political
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Programming
So what's our codomain?
Our codomain is r2,
So if we were to actually draw our codomain-- let's do it.
Note that the domain and codomain are in fact part of the information determining a morphism.
We're picking them in the image of our codomain.
What is the domain, codomain and range of a function?
Equivalently, a function is surjective if its image is equal to its codomain.
What are all of the members of my codomain that have a solution, that have a mapping?
that's called the codomain.
If you're a member of your codomain-- this is the codomain right here, R2.
let me make it very clear that this is the codomain that I have drawn.
If your codomain is a subset of rm,
And I would augment it with the member of our codomain we're trying to be equal to. So b1, b2.
the domain(or source) and the codomain or target.
In mathematics, the codomain or target set of a function is the set into which all of the output of the function is constrained to fall.
is simply an element of the codomain"Y.
is simply an element of the codomain Y. An operation of arity k is called a k-ary operation.
So if we say that 1 minus 3, minus 1, 3, times any vector in our domain-- so x1, x2-- it's going to be equal to some other vector in our codomain.
The set which contains the values produced is called the codomain, but the set of actual values attained by the operation is its range.
So just to kind of understand this transformation a little bit more, let's think about all of the values that it can take on in our codomain.
And by our transformation definition this will just be equal to a new vector that would be in our codomain, where the first term is just the first term of our input squared.
sur means over or above and relates to the fact that the image of the domain of a surjective function completely covers the function's codomain.
The collection of monomorphisms with codomain"A" under the relation≤ forms a preorder, but the definition of a subobject ensures that the collection of subobjects of"A" is a partial order.
More specifically, a binary operation on a set is a binary operation whose two domains and the codomain are the same set.
In most situations, the domain and codomain are understood from context, and only the relationship between the input and output is given,
So what we're saying here is this transformation just maps to this line here for all of the vectors in our codomain, where their two entries add up to each other.
The sets Xk are called the domains of the operation, the set Y is called the codomain of the operation, and the fixed non-negative integer k(the number of arguments)
while the cokernel is a quotient object of the codomain it maps from the codomain. .
The binary relation≡ defined by u≡ v if and only if u≤ v and v≤ u is an equivalence relation on the monomorphisms with codomain A, and the corresponding equivalence classes of these monomorphisms are the subobjects of A. Equivalently, one can define the equivalence relation by u≡ v if and only if there exists an isomorphism φ: S→ T with u v∘ φ{\displaystyle u=v\circ\varphi.
Mappings between sets which preserve structures(so that structures in the domain are mapped to equivalent structures in the codomain) are of special interest in many fields of mathematics.