Given the function f(x) = n^7 + 5n^10 + n^8 + n there are at most ___ x intercepts and at most ___ turning points

Can someone teach me what to look for please?

Would it be 10 x intercepts and 4 turning points?

I don't know if I'm looking at it correctly or have to look for something else

Turning points would be 9 right; all I have to do is 10-1?

Someone correct me if wrong

yes, there at most 9 turning points and 10 x-intercepts.

This particular polynomial only has 1 turning point, however, since its derivative only has one root. And it has but two x-intercepts.

To determine the number of x-intercepts and turning points of a function, you need to analyze its graph or equation. Here's what you should look for:

1. X-intercepts (also known as roots or zeros): These are the points on the graph where the function intersects the x-axis, meaning the value of y is zero. To find the x-intercepts, set f(x) to zero and solve for x. In this case, set f(x) = 0 and solve the resulting equation that involves polynomial terms.

2. Turning points (also known as local maxima or minima): These are the points on the graph where the function changes from increasing to decreasing (or vice versa). Turning points can be found by taking the derivative of the function and setting it equal to zero. Solve the derivative for x to find the x-values of the turning points.

Now let's apply these steps to the given function f(x) = n^7 + 5n^10 + n^8 + n:

1. X-intercepts: Set f(x) = 0 and solve.
n^7 + 5n^10 + n^8 + n = 0

To determine the number of possible x-intercepts, we need to analyze the equation further. However, you mentioned that "n" is the variable, and it hasn't been given any specific value or constraints. If "n" represents any real number, then we can't determine the exact number of x-intercepts without further information. However, based on the degree of the polynomial (highest exponent power), we can say that there are at most 10 possible x-intercepts since the highest exponent in the function is 10 (from the term 5n^10).

2. Turning points: Take the derivative of f(x) and solve for x.
f'(x) = d/dx (n^7 + 5n^10 + n^8 + n)
= 7n^6 + 50n^9 + 8n^7 + 1

Set f'(x) = 0 and solve the equation to find possible turning points. However, based on the same reasoning as above, we can only say that there are at most 9 possible turning points since the highest exponent in the derivative is 9 (from the term 50n^9).

To summarize, without specific values or constraints for "n," we can conclude that the given function can have at most 10 x-intercepts and 9 turning points.