To solve the problem, we can set up two equations based on the information given:
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The relationship between Dalton's hourly pay \( x \) and Willard's hourly pay \( y \): \[ y = x + 22 \]
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The total labor cost for both of them based on their hours:
- Willard worked for 6 hours, and Dalton worked for 3 hours: \[ 6y + 3x = 492 \]
Now, we can simplify the second equation. First, we can substitute \( y \) in the second equation:
Substituting the first equation into the second: \[ 6(x + 22) + 3x = 492 \]
Expanding this: \[ 6x + 132 + 3x = 492 \]
Combining like terms: \[ 9x + 132 = 492 \]
Subtracting 132 from both sides: \[ 9x = 360 \]
Dividing by 9: \[ x = 40 \]
Now we can find Willard's pay \( y \): \[ y = x + 22 = 40 + 22 = 62 \]
Now we have computed both hourly wages:
- Dalton's hourly pay = $40
- Willard's hourly pay = $62
Finally, let's match our findings with the chosen equations and potential answers. The viable equations from the options include:
- \( y = x + 22 \)
- \( 6y + 3x = 492 \)
And the viable pair of answers is:
- Dalton $40 per hour
- Willard $62 per hour
So, the correct selections are:
- \( y = x + 22 \) and \( 6y + 3x = 492 \)
- Dalton $40 per hour and Willard $62 per hour