The graph depicts a polynomial function with several points of interest. Let's analyze the points and zeros to determine if any have multiplicity.

Key Points on the Graph:

• A = (-1.569, -3.124)
• B = (0.319, 8.643)
• C = (2, 0) (Zero)
• D = (-2, 0) (Zero)
• E = (-1, 0) (Zero)

Determining Multiplicity:

1. Point C (2, 0):

   • This is a zero of the polynomial.
   • The graph crosses the x-axis at $x = 2$.
   • Since it crosses the axis, the multiplicity of this zero is odd.

2. Point D (-2, 0):

   • This is another zero of the polynomial.
   • The graph crosses the x-axis at $x = -2$.
   • Since it crosses the axis, the multiplicity of this zero is odd.

3. Point E (-1, 0):

   • This is another zero of the polynomial.
   • The graph touches the x-axis at $x = -1$ and turns around.
   • When the graph touches the axis and turns around, it indicates that the zero has an even multiplicity.

Conclusion:

• Point C (2, 0): Zero with odd multiplicity (likely 1, 3, 5, etc.)
• Point D (-2, 0): Zero with odd multiplicity (likely 1, 3, 5, etc.)
• Point E (-1, 0): Zero with even multiplicity (likely 2, 4, 6, etc.)

The key reason for determining multiplicity lies in how the graph interacts with the x-axis:

• If the graph crosses the x-axis at a zero, the multiplicity is odd.
• If the graph touches the x-axis and turns around at a zero, the multiplicity is even.

Would you like any further details or explanations? Here are some more questions you might find helpful:

1. How to determine the degree of the polynomial from the graph?
2. How can the derivative of the polynomial help in finding critical points?
3. What are the properties of polynomial functions with higher degrees?
4. How to determine the end behavior of polynomial functions?
5. How does the factor theorem apply to finding zeros of polynomials?

Tip: When analyzing the graph of a polynomial, always check how the graph interacts with the x-axis at each zero to determine the multiplicity.