To answer the questions, let's assume a linear equation in slope-intercept form is represented in the general format:
\[ y = mx + b \]
Where:
- \( y \) is the total cost,
- \( m \) is the slope (cost per hour),
- \( x \) is the number of hours,
- \( b \) is the y-intercept (fixed cost, if any).
Let's proceed with the questions assuming reasonable values for \( m \) and \( b \). For example, let's take \( m = 25 \) (indicating the bike rental costs $25 per hour) and \( b = 0 \) (indicating there is no fixed cost):
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The linear equation written in slope-intercept form is \[ y = 25x \]
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The cost of renting the bike for 2 hours is $ \[ y = 25(2) = 50 \]
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(4, ) is on the linear equation. \[ y = 25(4) = 100 \] So, (4, 100) is on the linear equation.
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The point (6,50) represents that it cost $ \[ 50 \] to rent the bike for \[ 2 \] hours (because \( y = 25(2) = 50 \)).
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The y-intercept is located at \[ (0, 0) \] (the point where the line crosses the y-axis).
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The y-intercept represents that at \[ 0 \] hour(s), the cost of the bike rental is $ \[ 0 \].
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For $60, you can rent the bike for \[ \frac{60}{25} = 2.4 , \text{hours} \].
Now, here are the finalized answers:
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\( y = 25x \)
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$50
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(4, 100)
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$50 for 2 hours
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(0, 0)
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At 0 hour(s), the cost is $0
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2.4 hours
You can check these answers now before submitting your sample work.