a function has a local maximum at x=-2 and x=6 and a local minimum at x=1. how do u find the concavity of this function and point of inflection??

***the only given info is the max and min points

Imagine what is happening from (-infinity < x < infinity)

1). from -infinity to x = -2, the graph is going up, then reaches a maximum at x = -2
2). From x = -2 to x = 1, the graph is going down to the minimum at x = 1
3). From x = 1 to x = 6, the graph goes up again to its maximum at x = 6
4). From x = 6 to +infinity, the graph must go down again.

So the graph will kind of look like two hills with one inflection point between x = -2 and x = 1, and another between x = 1 and x = 6

The function is concave down from - infinity to inflection point 1; concave up from inflection point1 to inflection point 2, and concave down from inflection point 2 to infinity.

The inflection points are found by solving the equation f''(x) = 0

To find the concavity and the point of inflection of a function based on the given information, we need to use the second derivative test. The second derivative of a function will help us analyze the behavior of the curve and determine the concavity and points of inflection.

Here are the steps to find the concavity and point(s) of inflection:

1. Start by finding the first derivative of the function. This will give you the critical points.

2. Next, find the second derivative of the function.

3. Set both the first and second derivatives equal to zero and solve for x. This will give you the critical points and points of inflection.

4. Now, analyze the sign changes in the second derivative to determine the concavity:

a. If the second derivative is positive, then the function is concave up in that region.
b. If the second derivative is negative, then the function is concave down in that region.

5. Finally, find the coordinates of the point(s) of inflection by substituting the critical points found in step 3 into the original function.

Note: It is important to consider the interval between the critical points to determine the concavity in specific ranges.

Given the information about the local maximum at x = -2, local maximum at x = 6, and local minimum at x = 1, we can infer that the critical points are x = -2, x = 6, and x = 1.

To determine the concavity and point(s) of inflection, we need additional information or specific values of the function or its derivatives. Without that information, we cannot determine the concavity and point(s) of inflection solely based on the given local maximum and minimum points.