Let h be a twice differentiable function, and let h(−4)=−3, h′(−4)=0, and h′′(−4)=0.What occurs in the graph of h at the point (−4,−3) ?Choose 1 answer:(A) (−4,−3) is a minimum point.(B) (−4,−3) is a maximum point.(C) There's not enough information to tell.
Q. Let h be a twice differentiable function, and let h(−4)=−3, h′(−4)=0, and h′′(−4)=0.What occurs in the graph of h at the point (−4,−3) ?Choose 1 answer:(A) (−4,−3) is a minimum point.(B) (−4,−3) is a maximum point.(C) There's not enough information to tell.
Given Information: We are given that h is a twice differentiable function, and we have information about the function and its derivatives at the point x=−4. The value of the function at x=−4 is h(−4)=−3, which tells us that the point (−4,−3) lies on the graph of h.
First Derivative Analysis: The first derivative of h at x=−4 is given as h′(−4)=0. The first derivative represents the slope of the tangent line to the graph of the function at a particular point. Since h′(−4)=0, the tangent line to the graph of h at x=−4 is horizontal. This could indicate a local maximum, a local minimum, or a point of inflection.
Second Derivative Analysis: The second derivative of h at x=−4 is given as h′′(−4)=0. The second derivative provides information about the concavity of the function. If the second derivative is positive, the function is concave up (shaped like a cup), and if it is negative, the function is concave down (shaped like a cap). Since h′′(−4)=0, we cannot determine the concavity of the function at x=−4 from this information alone.
Conclusion: Given that both the first and second derivatives of h at x=−4 are zero, we cannot conclusively determine whether (−4,−3) is a minimum point, a maximum point, or neither. We would need additional information about the behavior of the function and its derivatives in the vicinity of x=−4 to make a determination.