Color Permutations In Row Of 6 Red, 3 Blue, 3 Green Flower Pots ?

In summary, the conversation discusses how to calculate the number of color permutations in a row of 12 flower pots with 6 red, 3 blue, and 3 green pots. It is suggested to use the formula n!/(k1!k2!k3!) where n is the total number of objects and k1, k2, and k3 represent the number of each type of pot. The conversation also mentions that it would take a long time to physically determine the answer and provides an example of the formula being used for a row of 12 jurors.
  • #1
morrobay
Gold Member
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With 6 red, 3 blue and 3 green flower pots, how many color permutations in row of 12 are there ?
Its not 12! or n!/(n-r)!
 
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  • #2
Why not try choosing in which places to put the red pots, then choosing which of the remaining places will have blue pots, etc...
 
  • #3
I am looking for the formula for this question . It would take a long time to physically determine the answer !
For example 12! ( the number of permutations of a row of twelve jurors is 479, 001,600. How long would that take you to get 12! physically ?
One permutation of the twelve colored flower pots would be :BBRGBGRRGRRR
 
  • #4
Keep in mind that for permutations with three types of objects, the general formula is:

[tex]P = \frac{n!}{k_1 ! k_2 ! k_3 !}[/tex]

Where n is the total number of objects (12 balls in this case), and [itex]k_1[/itex], [itex]k_2[/itex], and [itex]k_3[/itex] are the number of each type of ball (6 red, 3 blue, and 2 green in this case). Knowing that, you should be able to get the final answer easily.
 
  • #5

The number of color permutations in a row of 12 flower pots with 6 red, 3 blue, and 3 green pots can be calculated using the formula for permutations with repetition. This formula is given by n!/(n1! * n2! * ... * nk!), where n is the total number of items, and n1, n2, etc. are the number of items of each type.

In this case, n=12, n1=6, n2=3, and n3=3. Plugging these values into the formula, we get:

12!/(6! * 3! * 3!) = 12!/216 = 27,720

Therefore, there are 27,720 possible color permutations in a row of 12 flower pots with 6 red, 3 blue, and 3 green pots.
 

Related to Color Permutations In Row Of 6 Red, 3 Blue, 3 Green Flower Pots ?

1. What is the total number of possible color permutations in a row of 6 red, 3 blue, and 3 green flower pots?

The total number of possible color permutations in a row of 6 red, 3 blue, and 3 green flower pots is 2,520. This can be calculated using the formula for combinations with repetition, nCr = (n+r-1)! / r!(n-1)!, where n is the total number of objects and r is the number of each type of object.

2. How many ways can the blue flower pots be arranged in a row?

The blue flower pots can be arranged in 84 different ways. This can be calculated using the formula for combinations, nCr = n! / r!(n-r)!, where n is the total number of objects and r is the number of objects being chosen.

3. What is the probability of randomly selecting a row with all red flower pots?

The probability of randomly selecting a row with all red flower pots is 0.000198413 or approximately 0.02%. This can be calculated by taking the number of possible combinations with all red flower pots (1) and dividing it by the total number of possible combinations (2,520).

4. Can the flower pots be rearranged in a way that there are no two adjacent pots with the same color?

Yes, the flower pots can be rearranged in a way that there are no two adjacent pots with the same color. This can be achieved by arranging the pots in a pattern such as RBRBGBGBGRGRGR, where R represents a red flower pot, B represents a blue flower pot, and G represents a green flower pot.

5. How many different ways can the flower pots be arranged if the first and last pots must be the same color?

If the first and last pots must be the same color, there are 840 different ways to arrange the flower pots. This can be calculated by taking the number of possible combinations for the remaining pots (2,520/3 = 840) and multiplying it by the number of ways the first and last pots can be arranged (3).

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