Problem 54
Question
Graph each equation in a rectangular coordinate system. \(x-0\)
Step-by-Step Solution
Verified Answer
The graph of the equation \(x = 0\) is a vertical line that coincides with the y-axis.
1Step 1: Understand the equation
The equation given is \(x = 0\). This equation is in the form of \(x = k\) where \(k\) is a constant. The graph of any equation in this form is a vertical line.
2Step 2: Find the interception points with axes
For the equation \(x = 0\), the line intersects the x-axis at 0 and all other y-axis values. Thus, this line coincides with the y-axis.
3Step 3: Graph the line
Plot the line \(x = 0\) on the rectangular coordinate system. The graph is a vertical line that coincides with the y-axis.
Key Concepts
Rectangular Coordinate SystemVertical LineInterception PointsEquation of the Form x = k
Rectangular Coordinate System
The rectangular coordinate system, also known as the Cartesian coordinate system, is a two-dimensional plane that allows us to graph equations using coordinates. This system consists of two axes:
This system is essential for graphing linear equations, as it gives us a visual way to see the relationships between different variables.
- The horizontal axis, known as the x-axis.
- The vertical axis, known as the y-axis.
This system is essential for graphing linear equations, as it gives us a visual way to see the relationships between different variables.
Vertical Line
A vertical line in the rectangular coordinate system is a line that goes straight up and down. It does not tilt or lean. This kind of line has a special characteristic: all the points on the line have the same x-coordinate.
For instance, the equation \(x = 0\) describes a vertical line. This means no matter what y-value you choose, the x-value will always be 0. Consequently, for every point on this line, x remains constant while y can be any real number.
Vertical lines are unique because they cannot be described by the usual y = mx + b form, as their slope is undefined.
For instance, the equation \(x = 0\) describes a vertical line. This means no matter what y-value you choose, the x-value will always be 0. Consequently, for every point on this line, x remains constant while y can be any real number.
Vertical lines are unique because they cannot be described by the usual y = mx + b form, as their slope is undefined.
Interception Points
Interception points are where a line crosses the axes on the coordinate plane. In the equation \(x = 0\), the line intersects the x-axis at the origin (0,0) because that is the point where x is zero.
Since this is a vertical line, it does not cross the y-axis at any single point but rather runs directly along the y-axis itself. The points of intersection on the coordinate axes help in visualizing and graphing the line more accurately.
Since this is a vertical line, it does not cross the y-axis at any single point but rather runs directly along the y-axis itself. The points of intersection on the coordinate axes help in visualizing and graphing the line more accurately.
- On the x-axis: Intersection at (0,0).
- On the y-axis: Line coincides along the y-axis.
Equation of the Form x = k
Equations of the form \(x = k\) describe vertical lines where 'k' is a constant. Here, x has a fixed value, meaning for any point on this line, x always equals k, regardless of y.
For example, when given the equation \(x = 0\), this tells us that the line is vertical and passes through the x-coordinate of 0.
This form simplifies graphing since you only need to know the constant value of x to draw the line. It's an easy way to plot a straight vertical line on the coordinate plane.
For example, when given the equation \(x = 0\), this tells us that the line is vertical and passes through the x-coordinate of 0.
This form simplifies graphing since you only need to know the constant value of x to draw the line. It's an easy way to plot a straight vertical line on the coordinate plane.
Other exercises in this chapter
Problem 54
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