To identify two equations that form a system with one solution (meaning the lines intersect at exactly one point), we need to ensure they have different slopes.
First, let's rewrite all equations in the format \(y = mx + b\):
- \(y = 57 - 4\) simplifies to \(y = 53\). (This is a horizontal line with slope = 0.)
- \(y = -2x + 3\) is already in the correct form. (Slope = -2.)
- \(y = 3x + 1\) is already in the correct form. (Slope = 3.)
- Starting from \(2y = 6x + 2\), divide by 2: \(y = 3x + 1\) (This has a slope of 3).
- From \(y - 5x = 2\), we rearrange to get \(y = 5x + 2\) (Slope = 5).
- From \(y - 4x + 1 = 0\), rearranging gives \(y = 4x - 1\) (Slope = 4).
Now we have the slopes for each equation:
- \(y = 53\) (slope = 0)
- \(y = -2x + 3\) (slope = -2)
- \(y = 3x + 1\) (slope = 3)
- \(y = 3x + 1\) (slope = 3)
- \(y = 5x + 2\) (slope = 5)
- \(y = 4x - 1\) (slope = 4)
For the system to have one solution, we need pairs of equations with different slopes.
Let's select:
- Equation 2: \(y = -2x + 3\) (slope = -2)
- Equation 5: \(y = 5x + 2\) (slope = 5)
These two equations have different slopes and will intersect at exactly one point, thus forming a system with one solution.
So, the two equations are:
- \(y = -2x + 3\)
- \(y = 5x + 2\)