The video tutorial explains how to represent inverse functions using tables of values and graphs. It covers the relationship between a function and its inverse, emphasizing the interchange of x and y values. The tutorial provides three examples: a linear function, a cube root function, and a quadratic function, demonstrating how to graph each function and its inverse. The video also highlights the importance of the line y = x as the axis of symmetry for inverse functions.

What is the basic concept of finding the inverse of a function using a table of values?

• Interchange x and y values

• Subtract 1 from all x-values

• Add 1 to all y-values

• Multiply all x-values by 2

How is the graph of an inverse function related to the original function?

• It is identical to the original graph

• It is a translation of the original graph

• It is a reflection over the line y = x

• It is a rotation of the original graph

In the example of f(x) = 2x + 1, what is the inverse function?

• f^-1(x) = 2x - 1

• f^-1(x) = (x - 1) / 2

• f^-1(x) = 1 / (2x + 1)

• f^-1(x) = x + 1

What is the first step in graphing the inverse of f(x) = 2x + 1?

• Draw the line y = x

• Interchange x and y values

• Find the inverse function

• Plot the original function

For the function f(x) = cube root of x + 1, what is the inverse function?

• f^-1(x) = x^3 - 1

• f^-1(x) = cube root of (x - 1)

• f^-1(x) = x^3 + 1

• f^-1(x) = cube root of x + 1

Why is it necessary to restrict the domain of f(x) = x^2 when finding its inverse?

• To ensure it passes the vertical line test

• To simplify calculations

• To make it a one-to-one function

• To avoid negative values

What is the inverse of f(x) = x^2 when the domain is restricted?

• f^-1(x) = 2x

• f^-1(x) = x + 2

• f^-1(x) = square root of x

• f^-1(x) = x^2