To create the inequality that represents this situation, we will consider the total weight of the goats and calves that Gerald wants to transport.
Let:
- \( g \) represent the average weight of each goat (in pounds).
- \( c \) represent the average weight of each calf (in pounds).
Gerald has:
- 36 goats, each weighing \( g \) pounds, which gives a total weight of \( 36g \) pounds.
- 18 calves, each weighing \( c \) pounds, which gives a total weight of \( 18c \) pounds.
The total weight of the livestock that Gerald wants to transport should not exceed the trailer's weight limit of 10,000 pounds. Thus, the inequality can be set up as follows:
\[ 36g + 18c \leq 10,000 \]
Now let's substitute \( g = 96 \) pounds and \( c = 369 \) pounds into the inequality:
\[ 36(96) + 18(369) \leq 10,000 \]
Calculating the left side:
-
Calculate \( 36(96) \): \[ 36 \times 96 = 3456 \]
-
Calculate \( 18(369) \): \[ 18 \times 369 = 6642 \]
Now add these two results together: \[ 3456 + 6642 = 10098 \]
Now we check the inequality: \[ 10098 \leq 10,000 \]
Since \( 10098 \) is greater than \( 10,000 \), the inequality is not satisfied.
Therefore, Gerald cannot transport these goats and calves in his livestock trailer in one trip.