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In a running competition, a bronze, silver and gold medal must be given to the top three girls and top three boys. If 14 boys and 5 girls are competing, how many different ways could the six medals possibly be given out?
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In a running competition, a bronze, silver and gold medal must be given to the top three girls and top three boys. If 1414 boys and 55 girls are competing, how many different ways could the six medals possibly be given out?\newlineAnswer:

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Q. In a running competition, a bronze, silver and gold medal must be given to the top three girls and top three boys. If 1414 boys and 55 girls are competing, how many different ways could the six medals possibly be given out?\newlineAnswer:
  1. Calculate Boys' Medal Combinations: First, we need to calculate the number of ways the medals can be given out to the boys. Since there are 1414 boys and 33 medals (gold, silver, and bronze), we use permutations because the order in which the medals are awarded matters.\newlineThe number of ways to award 33 medals to 1414 boys is given by the permutation formula:\newlineP(n,k)=n!(nk)!P(n, k) = \frac{n!}{(n - k)!}\newlinewhere nn is the total number of boys and kk is the number of medals.
  2. Calculate Girls' Medal Combinations: For the boys, we calculate:\newlineP(14,3)=14!(143)!P(14, 3) = \frac{14!}{(14 - 3)!}\newline=14!11!= \frac{14!}{11!}\newline=14×13×12= 14 \times 13 \times 12\newline=2184= 2184\newlineThere are 2,1842,184 different ways to award the medals to the boys.
  3. Calculate Total Medal Combinations: Next, we calculate the number of ways the medals can be given out to the girls. There are 55 girls and 33 medals.\newlineUsing the permutation formula again:\newlineP(n,k)=n!(nk)!P(n, k) = \frac{n!}{(n - k)!}\newlinewhere nn is the total number of girls and kk is the number of medals.
  4. Calculate Total Ways: For the girls, we calculate:\newlineP(5,3)=5!(53)!P(5, 3) = \frac{5!}{(5 - 3)!}\newline=5!2!= \frac{5!}{2!}\newline=5×4×3= 5 \times 4 \times 3\newline=60= 60\newlineThere are 6060 different ways to award the medals to the girls.
  5. Calculate Total Ways: For the girls, we calculate:\newlineP(5,3)=5!(53)!P(5, 3) = \frac{5!}{(5 - 3)!}\newline=5!2!= \frac{5!}{2!}\newline=5×4×3= 5 \times 4 \times 3\newline=60= 60\newlineThere are 6060 different ways to award the medals to the girls.Finally, to find the total number of different ways the six medals can be given out, we multiply the number of ways for the boys by the number of ways for the girls.\newlineTotal ways = Ways for boys ×\times Ways for girls\newline=2184×60= 2184 \times 60
  6. Calculate Total Ways: For the girls, we calculate:\newlineP(5,3)=5!(53)!P(5, 3) = \frac{5!}{(5 - 3)!}\newline=5!2!= \frac{5!}{2!}\newline=5×4×3= 5 \times 4 \times 3\newline=60= 60\newlineThere are 6060 different ways to award the medals to the girls.Finally, to find the total number of different ways the six medals can be given out, we multiply the number of ways for the boys by the number of ways for the girls.\newlineTotal ways = Ways for boys ×\times Ways for girls\newline=2184×60= 2184 \times 60Calculating the total number of ways:\newlineTotal ways =2184×60= 2184 \times 60\newline=131040= 131040\newlineSo, there are 131,040131,040 different ways the six medals can be given out.

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