Examples of using Homomorphism in English and their translations into Russian
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Colloquial
In other words, the group H in some sense has a similar algebraic structure as G and the homomorphism h preserves that.
For each such pair, we can apply the ring homomorphism φ to the factorization of a+bα, and we can apply the canonical ring homomorphism from Z to Z/nZ to the factorization of a+bm.
M→ N is a bimodule homomorphism if it is both a homomorphism of left R-modules
Naserasr showed that every triangle-free planar graph also has a homomorphism to the Clebsch graph,
The functoriality of T means that any linear map from V to W extends uniquely to an algebra homomorphism from T(V) to TW.
if a graph H can be colored with k colors, and there is a homomorphism from G to H,
A folklore theorem states that for all k, a directed graph G has a homomorphism to T→k if and only if it admits no homomorphism from the directed path P→k+1.
In the language of homomorphisms, Grötzsch's theorem states that every triangle-free planar graph has a homomorphism to K3.
These are the graphs K such that a product G× H has a homomorphism to K only when one of G
M→ N be a module homomorphism.
This duality means that in addition to the correspondence between Boolean algebras and their Stone spaces, each homomorphism from a Boolean algebra A to a Boolean algebra B corresponds in a natural way to a continuous function from S(B) to SA.
Every homomorphism of the Petersen graph to itself that doesn't identify adjacent vertices is an automorphism.
this formally states that the homomorphism problem in G{\displaystyle{\mathcal{G}}} parameterized by the size(number of edges)
The homomorphism problem with a fixed graph H on the right side of each instance is also called the H-coloring problem.
a graph H, the homomorphism problem can be solved in time|V(H)|O(k)
it may be shown that every triangle-free planar graph has a homomorphism to a triangle-free 3-colorable graph, the tensor product
It is NP-complete to test whether a graph has a homomorphism to a proper subgraph,
group of order 2, and is the preimage of the tetrahedral group under the 2:1 covering homomorphism Spin(3)→ SO(3) of the special orthogonal group by the spin group.
that it is a homomorphism, and that the resulting long sequence is indeed exact.
if it preserves identities then it is a homomorphism of groups.