No, because the intersection of two equivalent sets will have a union the same size as its intersection.
That is called the intersection of the sets.
Not necessarily. The odd integers and the even integers are two infinitely large sets. But their intersection is the null (empty) set.
The set of elements that are elements of the two (or more) given sets is called the intersection of the sets.
You need two sets to have an intersection. If you have two sets, call them R and S, then their intersection is the set T that contains all elements of R that also belong to S OR all elements of S and also belong to R...it's the same thing.
No, because the intersection of two equivalent sets will have a union the same size as its intersection.
the intersection of two sets of elements is represented by the word: a)or b)and c)up
You normally do not have an intersection of only one set. The intersection of a set with itself is the set itself - a statement that adds little value. The intersection of two sets is the set which contains elements that are in each of the two sets.
That is called the intersection of the sets.
Not necessarily. The odd integers and the even integers are two infinitely large sets. But their intersection is the null (empty) set.
I presume you mean intersecting. Two sets are intersecting if they have members in common. The set of members common to two (or more) sets is called the intersection of those sets. If two sets have no members in common, their intersection is the empty set. In this case the sets are called disjoint.
The set of elements that are elements of the two (or more) given sets is called the intersection of the sets.
You need two sets to have an intersection. If you have two sets, call them R and S, then their intersection is the set T that contains all elements of R that also belong to S OR all elements of S and also belong to R...it's the same thing.
It shows the intersection of two sets; those elements that are common to both sets.
For two sets, the Venn diagram will consist of two overlapping ovals. The area of the overlap is the intersection. The entire area of both ovals is the union.
Given two or more sets there is a set which is their union and a set which is there intersection. But, there is no such thing as a "union intersection set", as required for the answer to the question.
The intersection of two sets, X and Y, consists of all elements that belong to both X and Y.