OK, so let's call the parent function you're given f(x). There's a series of transformations a parent function can go through:
-f(x) = makes the parent function reflect over the x-axis
On the other hand, f(-x) = makes it reflect over the y-axis
f(x+a) = makes the parent function shift a units to the left
f(x-a) = makes the parent function shift a units to the right
f(x)+a = makes the parent function shift a units up
f(x)-a = makes the parent function shift a units down
f(ax) if x is a fraction like 1/2 , makes the parent function stretch by a factor of 2 (or multiply each x by 2)
f(ax) if x is a whole number (or fractions greater or equal to 1) like 2, makes the parent function compress by a factor of 2 (or divide each x by 2)
a*f(x) if x is a fraction like 1/2, makes the parent function get shorter by a factor of 2 (or divide each y by 2)
a*f(x) if x is a whole number (or fractions greater or equal to 1) like 2, makes the parent function get taller by a factor of 2 (or multiply each y by 2)
One way you can always tell what to do is that everything that is INSIDE the parentheses will be the OPPOSITE of what you think it should do. OUTSIDE the parentheses will do EXACTLY what you think it should do.
And when performing the transformations, start inside the parentheses first and then move outside. For example, f(x-2)+2; move the parent function first to the right 2 units and THEN move it up 2 units.
Reciprocal parent function
It is a reflection of the original graph in the line y = x.
f(x)=x^2 apex
It is in quadrants 1 and 2 It is v shaped it goes through the origin hope this helps!
Test it by the vertical line test. That is, if a vertical line passes through the two points of the graph, this graph is not the graph of a function.
Reciprocal parent function
Recognizing a function as a transformation of a parent graph simplifies the graphing process by providing a clear reference point for the function's behavior. It allows you to easily identify shifts, stretches, or reflections based on the transformations applied to the parent graph, which streamlines the process of plotting key features such as intercepts and asymptotes. Additionally, this approach enhances understanding of how changes in the function's equation affect its graphical representation, making it easier to predict and analyze the function's characteristics.
To determine the vertex and transformations of a given function, we first need the specific function itself. For example, if the function is in the form (f(x) = a(x-h)^2 + k), the vertex is ((h, k)). The transformations from the parent function (f(x) = x^2) would include a vertical stretch/compression by factor (a), a horizontal shift (h) units, and a vertical shift (k) units. If you provide the specific function, I can give a more detailed answer.
In vertical transformations every point on a graph is shifted upwards by a fixed number of points. In a horizontal transformation, every point on a graph is shifted along the x-axis a certain number of points.
If you want to ask questions about the "following", then I suggest that you make sure that there is something that is following.
The linear parent function is y=x. The line on a graph passes through the origin(0,0) with a slope of 1. The line will face left to right on the graph like this /.
It is a hyperbola, it is in quadrants I and II
It is a reflection of the original graph in the line y = x.
f(x)=x^2 apex
All of the algebraic transformations occur after the function does its job, all of the rules from the two charts above to transform the graph of a function.
the parent graph of a graph
the graph that is the parent