All composite numbers can be expressed as unique products of prime numbers. This is accomplished by dividing the original number and its factors by prime numbers until all the factors are prime. A factor tree can help you visualize this.
Example: 210
210 Divide by two.
105,2 Divide by three.
35,3,2 Divide by five.
7,5,3,2 Stop. All the factors are prime.
2 x 3 x 5 x 7 = 210
That's the prime factorization of 210.
When all the factors are prime numbers, that's a prime factorization.
a prime factorization tree
397 is a prime number, therefore prime factorization of 397 = 397.
The prime factorization of the number 26 is: 2 x 13
Prime factorization of the number 54 is 2 x 33.
The prime number is the prime factorization. For example, the prime factorization of the prime number 3 is 3. Get it?
53 is a prime number so there is no relevant prime factorization for it.
The only number with that prime factorization has to be 48.
91 cannot be in the prime factorization of any number because it is not a prime number itself.
Yes. Any prime number greater than 100 has only itself in its prime factorization. Examples: The prime factorization of 101 is 101. The prime factorization of 109 is 109. The prime factorization of 127 is 127. The prime factorization of 311 is 311. The prime factorization of 691 is 691.
When all the factors are prime numbers, that's a prime factorization.
421 is a prime number so it does not have prime factorization.
19 is a prime number, so it has no prime factorization.
Since 89 is a prime number, the prime factorization of the number is simply 89.
Well, honey, the prime factorization for the number 3x3x3x5x7 is 3^3 x 5 x 7. That's it, no need to overcomplicate things. Just remember, prime factorization is like breaking down a number into its prime components, like taking apart a puzzle to see what makes it tick.
23 is a prime number and does not require factorization.
a prime factorization tree