Brainliestt asap! me : )

describe the end behavior and determine whether the graph represents an odd-degree or an even-degree polynomial function. then state the number of real zeros.

End Behavior:

As x goes to -∞, goes to -∞

As x goes to ∞, goes to ∞

The graph represents an odd-degree polynomial function

There are 4 real zeroes.

Step-by-step explanation:

For the end behavior, all we need do is look at the graph. As we go further left, the function will continue to approach -∞. As we go further right, the function will approach ∞.

An even function has the same end behavior on each side, while an odd function has different end behaviors on each side. As we found that the end behaviors were different, we can determine that the function is odd.

Looking at the graph, we can see that there are 4 zeroes. But how can a function with 4 zeroes be odd? In this case, this function would be an function. This specific one would have an as one of its factors.

1. y ⟶ -∞ as x ⟶ -∞ and y ⟶ ∞ as x ⟶ ∞

2. Odd degree

3. Five real zeros

Step-by-step explanation:

1. End behaviour

The end behaviour of a function is what happens to it as x ⟶ ∞ and as x ⟶ -∞.

Your graph points sharply down on the left-hand side and sharply up on the right-hand side.

In your graph, the end behaviour is

y ⟶ -∞ as x ⟶ -∞ and y ⟶ ∞ as x ⟶ ∞.

2. Even/odd degree polynomials

The degree of a polynomial is the term of highest order.

If the degree is even, the function is an even-degree polynomial.  

The end behaviour of an even-degree polynomial is such that the ends of the graph are either both up or both down.

For an odd-degree polynomial, one end of the graph is up and the other is down.

Your graph is one-side-up and one-side-down, so it represents an odd-degree polynomial.

3. Number of real zeros

A polynomial has as many zeros as its degree. Your polynomial is odd-degree, so it must have 1, 3, 5, 7, etc. zeros.

The graph crosses or touches the x-axis four times, so there are at least four real zeros. The fifth zero is either real or complex. It can't be complex, because complex zeros always occur in pairs.

The fifth zero must be a duplicate of one we already see, almost certainly the one at the origin.

So, your function has five real zeros.

As proof-of-concept, I devised a fifth-degree polynomial with the properties of your function. Its graph is similar to yours.

i used to know how to do this in 7th but i forget easily

step-by-step explanation:

no because mercury has a density of 13.6 grams per centimeter squared while gold has 19.32 grams centimeter squared

step-by-step explanation: