Let's illustrate with an example. The square function takes a number as its input, and returns the square of a number. The opposite (inverse) function is the square root (input: any non-negative number; output: the square root). For example, the square of 3 is 9; the square root of 9 is 3. The idea, then, is that if you apply first a function, then its inverse, you get the original number back.
Range
The inverse function means the opposite calculation. The inverse function of "add 6" would be "subtract 6".
No. A simple example of this is y = x2; the inverse is x = y2, which is not a function.
The inverse of the cosine is the secant.
The opposite of another function - if you apply a function and then its inverse, you should get the original number back. For example, the inverse of squaring a positive number is taking the square root.
The original function's RANGE becomes the inverse function's domain.
Range
range TPate
The inverse of the inverse is the original function, so that the product of the two functions is equivalent to the identity function on the appropriate domain. The domain of a function is the range of the inverse function. The range of a function is the domain of the inverse function.
No. The inverse of an exponential function is a logarithmic function.
-6 is a number, not a function and so there is not an inverse function.
The inverse of the cubic function is the cube root function.
X squared is not an inverse function; it is a quadratic function.
The inverse function means the opposite calculation. The inverse function of "add 6" would be "subtract 6".
No. A simple example of this is y = x2; the inverse is x = y2, which is not a function.
The inverse of the cosine is the secant.
No, an function only contains a certain amount of vertices; leaving a logarithmic function to NOT be the inverse of an exponential function.