Prime numbers have one factor pair. Composite numbers have two or more pairs.
(6,8) and (4,12) are two different factor pairs for 48.
An infinite number. You can vary the distance between each of the two pairs, and you can rotate one of the pairs relative to the other.
When rolling two standard six-sided number cubes, each cube has 6 faces, resulting in a total of 6 × 6 = 36 different possible number pairs. Each pair consists of one number from the first cube and one from the second cube. Therefore, the total combinations range from (1,1) to (6,6).
Find the factor pairs of each number. The greatest factor in common is the GCF. A hint, the definition of a prime number is a number with only two factors: 1 and itself.
You can create several arrays with the number 52 by using its factors. The factors of 52 are 1, 2, 4, 13, 26, and 52, allowing for arrays like 1x52, 2x26, 4x13, and 13x4. Each of these pairs represents a different arrangement of items, demonstrating how 52 can be organized in various rectangular configurations.
First player can be any one of 6. For each of them . . .Second player can be any one of 9.Total number of possible different pairs = 6 x 9 = 54 pairs.
The Number of factors, (That is the number of pairs, such as 2= 1x2, 2x1), is equal to the number of rectangular arrays which can be made for each composite number. As such, the number of factors in the number 9 is 3, (1,3,9), and the number of rectangular arrays is also three (1x9, 9x1,3x3). Hope this helps!
An infinite number. You can vary the distance between each of the two pairs, and you can rotate one of the pairs relative to the other.
It is common to group factors in pairs with parentheses surrounding each pair.
Each factor pair is an array.
When rolling two standard six-sided number cubes, each cube has 6 faces, resulting in a total of 6 × 6 = 36 different possible number pairs. Each pair consists of one number from the first cube and one from the second cube. Therefore, the total combinations range from (1,1) to (6,6).
Find the factor pairs of each number. The greatest factor in common is the GCF. A hint, the definition of a prime number is a number with only two factors: 1 and itself.
First player can be any one of 6. For each of them . . .Second player can be any one of 9.Total number of possible different pairs = 6 x 9 = 54 pairs.
To find factor pairs of a number, you divide that number by each integer in turn. If the number divides evenly, you take that divisor, and its answer, as a factor pair. 36 can divide by 1, 2, 3, 4, 6, 9, 12, 18 and 36. Thus the factor pairs are 1 and 36, 2 and 18, 3 and 12, 4 and 9, and 6 and 6.
It is possible to predict the number of factors of a given number just from knowing the prime factorization. If you list the p.f. with exponents, add one to each exponent and multiply them, you will have the total number of factors. Sounds complicated. Let's look at some examples. 2 x 3 = 6 (2^1 x 3^1 = 6) Any number without an exponent actually has the implied exponent 1. Adding one to each and multiplying gives us 2 x 2 = 4 Six has four factors. That's two factor pairs. 2^3 x 3^2 = 72 4 x 3 = 12 72 has 12 factors. 6 factor pairs. Square numbers are tricky. 3^2 x 3^2 = 81 3 x 3 = 9 81 has 9 factors but 5 factor pairs, since one of the factors (the square root) will be listed twice in a factor pair. Any time you have an even number of factors, cut it in half for the factor pairs. Any time you have an odd number of factors, add one and cut it in half.
The rectangular arrays for the number 12 consist of all the pairs of factors that multiply to give 12. These arrays are: 1x12, 2x6, 3x4, and 4x3. Each pair represents a different arrangement of rows and columns, resulting in a total of four distinct rectangular arrays for the number 12.
the plant has 2 factors for each possible trait one for each parent
Yes, in DNA sequencing each band typically represents one base pair. The length of the band on the gel indicates the size of the DNA fragment, with each band representing a different number of base pairs in the sequence.