To find the number of unique combinations of the letters in "AABbCc", we use the formula for permutations of a multiset:
[ \frac{n!}{n_1! \times n_2! \times n_3! \times \ldots} ]
Here, (n) is the total number of letters (6), and (n_1, n_2, \ldots) are the frequencies of each unique letter. We have 2 A's, 1 B, 1 C, and 2 lowercase letters (b and c). Thus, the calculation is:
[ \frac{6!}{2! \times 1! \times 1! \times 2!} = \frac{720}{4} = 180 ]
So, there are 180 unique combinations.
Two make combinations you would take 2x1=2 combinations only
720
20
42 combinations.
you can make 6
There can be 4 different non-repeating allele combinations in the gametes of a person with genotype AABBCc: ABC, ACB, BAC, and BCA.
Abc
(eg. Aa Bb Cc) First would be to find out all the different combinations of these traits ABC ABc AbC Abc aBC aBc abC abc Then would be to make a "cross" out of them ABC ABc AbC Abc aBC aBc abC abc ABC ABc AbC Abc aBC aBc abC abc Then would be to 'fill in' the cross by adding them up ABC ABc AbC Abc aBC aBc abC abc ABC AABBCC AABBCc AABbCC AABbCc AaBBCC AaBBCc AaBbCC.... ABc AbC Abc aBC aBc abC abc Hope the rest you can figure out, Sincerely, *diag*
Two make combinations you would take 2x1=2 combinations only
9
Assuming you are using the standard English alphabet, the number of combinations you can make are: 26 x 26 = 676 combinations.
You could make 10*10*10*26*26*26 combinations, or 17576000 combinations.
8x7x6x5x4x3x2x1
23
720
20
You can make 5 combinations of 1 number, 10 combinations of 2 numbers, 10 combinations of 3 numbers, 5 combinations of 4 numbers, and 1 combinations of 5 number. 31 in all.