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ozkan12
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let f:X to X be and f(X) C X...then f is invariant..if f is invariant, then f is self map on X ? is it true ?
The condition $f(X)\subseteq X$ is superfluous. A function $f$ is called a self-mapping if $f:X\to X$. In this case, $f(X)\subseteq X$ holds automatically.ozkan12 said:that is, for f:X >>>X if f(X)CX then f is selfmapping ?
What is $X$ here?ozkan12 said:İf f(X)⊆X then f is selfmaping ?
An invariant map is a function that preserves a certain property or structure of an object. This means that when the object is transformed or manipulated in some way, the property or structure remains the same.
An invariant map is a function that preserves a property or structure of an object, while a self map is a function that maps an object to itself. In other words, a self map does not change the object, while an invariant map may change the object but still preserve a certain property or structure.
Some examples of invariant maps in real life include rotation and translation in geometry, conservation of energy in physics, and isometries in computer graphics.
Invariant maps are used in various fields of science, such as mathematics, physics, and computer science, to study and understand the behavior of objects under different transformations. They help us identify and analyze the properties and structures that remain unchanged in a system.
Yes, an invariant map can be bijective, meaning it is both injective (one-to-one) and surjective (onto). This means that the map preserves the property or structure of the object while also maintaining its uniqueness.