Because it farts
It’s vertex is not at the origin
Its vertex is not at the origin
vertex
Yes, if the range is the non-negative reals.
Both the Greatest Integer Function and the Absolute Value Function are considered Piece-Wise Defined Functions. This implies that the function was put together using parts from other functions.
It’s vertex is not at the origin
Its vertex is not at the origin
In math a normal absolute value equations share a vertex.
The attribute of the absolute value parent function, ( f(x) = |x| ), is its vertex, which is located at the point (0, 0). This function is characterized by its V-shaped graph, indicating that it reaches a minimum value at the vertex. The absolute value function is even, meaning it is symmetric about the y-axis. Its key feature is that it outputs non-negative values for all real inputs.
No, the y-intercept is not the same as the absolute value parent function. The absolute value parent function, represented as ( f(x) = |x| ), has a vertex at the origin (0, 0), which serves as its y-intercept. While the absolute value function does have a specific y-intercept, the term "y-intercept" generally refers to the point where any function crosses the y-axis, which can vary depending on the function in question.
y = 1/x
Linear and absolute value functions are similar in that both types of functions can be expressed in a mathematical form and represent straight lines on a graph. They both exhibit a consistent rate of change: linear functions have a constant slope, while absolute value functions have a V-shaped graph that consists of two linear segments meeting at a vertex. Additionally, both functions can be used to model real-world situations, though their behaviors differ in how they respond to changes in their input values.
vertex
A key property of the absolute-value parent function, ( f(x) = |x| ), is that it is V-shaped and symmetric about the y-axis. It has a vertex at the origin (0, 0) and its output is always non-negative, meaning ( f(x) \geq 0 ) for all ( x ). The function increases linearly for ( x > 0 ) and decreases linearly for ( x < 0 ). This characteristic makes it a fundamental example in understanding piecewise functions and transformations.
To shift the absolute value parent function ( F(x) = |x| ) right by 9 units, you replace ( x ) with ( x - 9 ). Therefore, the equation of the new function becomes ( F(x) = |x - 9| ). This transformation moves the vertex of the absolute value function from the origin to the point (9, 0).
The graph of an absolute-value function does not extend past the vertex because the vertex represents the minimum (or maximum, in the case of a downward-opening parabola) point of the graph. The absolute value ensures that all output values are non-negative (or non-positive), meaning that as you move away from the vertex in either direction, the values will either increase or decrease but never go below the vertex value. Consequently, the graph is V-shaped and reflects this property, making it impossible for the graph to extend beyond the vertex in the negative direction.
To find an absolute value equation from a graph, first identify the vertex of the graph, which represents the point where the absolute value function changes direction. Then, determine the slope of the lines on either side of the vertex to find the coefficients. The general form of the absolute value equation is ( y = a |x - h| + k ), where ((h, k)) is the vertex and (a) indicates the steepness and direction of the graph. Finally, use additional points on the graph to solve for (a) if needed.