That doesn't really exist. A factor tree is a way to notate the process of finding the prime factorization of a given number. The greatest common factor, or GCF, is the largest number that can divide evenly with no remainder into a given set of numbers.
Divide your number by 7 and see if there is a remainder. If there is a remainder, 7 is not a factor.
4 is a factor since 60 divided by 4 is 15, the others are not. To see if it is a factor, just see if it 60 divided by that number has a remainder or not. If the remainder is 0, it is a factor, if the remainder is non-zero it is not.
factor tree of 216
Factor tree of 204
The factor tree is awsome!
The factor tree for the number 956 would be written out as 2*2*239. To find the factor tree you can use a factor tree calculator to get the answer you need.
No, factors divide evenly. Their remainder is zero.
The definition of a factor is a number that divides evenly into another number with no remainder. Since no factor has a remainder, the GCF definitely can't have one.
It is a factor of that number and leaves no remainder
311 is prime. It doesn't need a factor tree.
Its factors are: 1, 7 and 49
A factor tree is a way to notate the process of finding the prime factorization of a given number. A factor tree is complete when the bottom branch (row) consists entirely of prime numbers.
It will be a factor of the number
Because 45 is not a factor of 60.
83 is prime. No tree.
A factor is a number that divides evenly into another number with no remainder. 3 is a factor of 9. 4 is not a factor of 9.
there is NO factor tree (prime factorization) of 29.
There is no factor tree nor factors of 57 as it is a prime number.
13 is a prime number so it doesn't have a factor tree.
2 is a prime number; no factor tree.
A factor = a number which can be divided into the given number with no remainder so no, 3 is not a factor of 20