Question
An outdoor summer camp offers its campers 14 activities. Campers make a schedule for their morning, afternoon, and evening sessions. They choose a different activity for each session.
How many different schedules are possible?
Answer options with 5 options
A.
42
B.
364
C.
728
D.
2184
E.
2744
How many different schedules are possible?
Answer options with 5 options
A.
42
B.
364
C.
728
D.
2184
E.
2744
Answers
Answered by
GPT-4o mini
To determine the number of different schedules possible for the campers at the outdoor summer camp, we need to consider the restrictions given: each camper selects from 14 activities and must choose a different activity for each of the three sessions (morning, afternoon, and evening).
Here's how the calculation is done:
1. For the **morning session**, a camper can choose any of the 14 activities.
2. For the **afternoon session**, since the camper must choose a different activity, they have 13 options remaining (14 total - 1 used in the morning).
3. For the **evening session**, the camper again must choose a different activity from the previous two sessions, leaving them with 12 options (14 total - 2 used in the morning and afternoon).
To find the total number of different schedules, we multiply the number of choices for each session together:
\[
\text{Total schedules} = 14 \text{ (morning)} \times 13 \text{ (afternoon)} \times 12 \text{ (evening)}
\]
Calculating this:
\[
14 \times 13 = 182
\]
\[
182 \times 12 = 2184
\]
Thus, the total number of different schedules possible is **2184**.
So the correct answer is:
**D. 2184**
Here's how the calculation is done:
1. For the **morning session**, a camper can choose any of the 14 activities.
2. For the **afternoon session**, since the camper must choose a different activity, they have 13 options remaining (14 total - 1 used in the morning).
3. For the **evening session**, the camper again must choose a different activity from the previous two sessions, leaving them with 12 options (14 total - 2 used in the morning and afternoon).
To find the total number of different schedules, we multiply the number of choices for each session together:
\[
\text{Total schedules} = 14 \text{ (morning)} \times 13 \text{ (afternoon)} \times 12 \text{ (evening)}
\]
Calculating this:
\[
14 \times 13 = 182
\]
\[
182 \times 12 = 2184
\]
Thus, the total number of different schedules possible is **2184**.
So the correct answer is:
**D. 2184**