The number 8 goes in infinitely many sets of numbers.
Most notably:
8 is a "Natural number" (a number you can use when counting objects)
8 is a "Composite number" (a number that isn't prime)
8 is an "Even number" (a number that can divide by 2 without a remainder)
8 is a "Fibonacci number" (a number in the sequence where each number equals the sum of the two preceding numbers, beginning at 1,1)
Three sets
No. Complex numbers is the highest set of numbers you can go, and there are no sets outside of complex numbers.
No, because there are an infiite number of sets that contain -5. For example {-5, 8}, which does not even have a name.
If I'm not wrong, sets of numbers are groups of numbers, pairs of numbers, but meant to be together in a certain order, way. When you say, take a set of numbers, 2, 4, 6, 8, 10... You took a group of numbers that are all even numbers. I guess its that, but Im not sure. Hope I helped in some way :)
There are two sets of 3 consecutive numbers whose sum is 30 but neither set contains all odd numbers. The two sets are: 8, 10 and 12 as well as 9, 10 and 11.
Three sets
integers and rational numbers
1 and 8, 2 and 4. both sets of numbers multiply to 8.
No. Complex numbers is the highest set of numbers you can go, and there are no sets outside of complex numbers.
No, because there are an infiite number of sets that contain -5. For example {-5, 8}, which does not even have a name.
The union is all the numbers in all the sets.
If I'm not wrong, sets of numbers are groups of numbers, pairs of numbers, but meant to be together in a certain order, way. When you say, take a set of numbers, 2, 4, 6, 8, 10... You took a group of numbers that are all even numbers. I guess its that, but Im not sure. Hope I helped in some way :)
Their HCF is 8
There are infinitely many sets. For example, the set {6, 6, 8, a, b} where a and b are any pair of different numbers that are greater than 8.
The sets of natural numbers, even numbers, odd numbers, prime numbers, rational numbers, irrational numbers, algebraic numbers, trascendental numbers, complex numbers, the sets of points in an euclidean space, etc.The sets of natural numbers, even numbers, odd numbers, prime numbers, rational numbers, irrational numbers, algebraic numbers, trascendental numbers, complex numbers, the sets of points in an euclidean space, etc.The sets of natural numbers, even numbers, odd numbers, prime numbers, rational numbers, irrational numbers, algebraic numbers, trascendental numbers, complex numbers, the sets of points in an euclidean space, etc.The sets of natural numbers, even numbers, odd numbers, prime numbers, rational numbers, irrational numbers, algebraic numbers, trascendental numbers, complex numbers, the sets of points in an euclidean space, etc.
The common set would need to be within the bounds of both of the sets described - or 'in the middle' as you put it. My interpretation of the term 'numbers with stright lines' (sic) is those numbers which, when drawn in the generally accepted way, contain a straight line. Taking the numbers from 1 to 10 the sets would be as follows: Even numbers: 2, 4, 6, 8, 10 Numbers with straight lines: 1,2,4,5,7,10 Even numbers with straight lines ('in the middle'): 2, 4, 10
To any set that contains it! It belongs to {8}, or {8, sqrt(2), pi, -3/7}, or {8, bananas, France, cold} or all whole numbers between 4 and 53, or multiples of 2, or composite numbers, or counting numbers, or integers, or perfect cubes, or rational numbers, or real numbers, or complex numbers, etc.