Questions: Describe the solution to the system of equations graphed below. The system has infinitely many solutions of the form y=-x+3, where x is any real number. The system has no solutions. The system has a unique solution at (2,1). The system has a unique solution at (1,2).

Describe the solution to the system of equations graphed below. The system has infinitely many solutions of the form y=-x+3, where x is any real number. The system has no solutions. The system has a unique solution at (2,1). The system has a unique solution at (1,2).
Transcript text: Describe the solution to the system of equations graphed below. The system has infinitely many solutions of the form $y=-x+3$, where $x$ is any real number. The system has no solutions. The system has a unique solution at (2,1). The system has a unique solution at (1,2).
failed

Solution

failed
failed

Solution Steps

Step 1: Identify the intersection point

The solution to a system of equations graphed is the point where the lines intersect. In this graph, the two lines intersect at the point (2,1).

Step 2: Verify the solution

The blue line passes through the points (0,3) and (3,0). The slope is given by \((0-3)/(3-0) = -1\). The y-intercept is 3. So the equation of the blue line is \(y = -x + 3\).

The red line passes through the points (1,3) and (2,1). The slope is given by \((1-3)/(2-1) = -2\). Using the point-slope form with the point (2,1), we get \(y - 1 = -2(x-2)\), which simplifies to \(y = -2x + 5\).

Substituting the point (2,1) in both equations: Blue line: \(1 = -2 + 3\), which simplifies to \(1 = 1\), so the point (2,1) lies on the blue line. Red line: \(1 = -2(2) + 5\), which simplifies to \(1 = 1\), so the point (2,1) lies on the red line.

Final Answer

\(\boxed{\text{The system has a unique solution at (2,1).}}\)

Was this solution helpful?
failed
Unhelpful
failed
Helpful