Chapter 4: Problem 2
Suppose you find the linear approximation to a differentiable function at a local maximum of that function. Describe the graph of the linear approximation.
Chapter 4: Problem 2
Suppose you find the linear approximation to a differentiable function at a local maximum of that function. Describe the graph of the linear approximation.
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Get started for freeConcavity of parabolas Consider the general parabola described by the function \(f(x)=a x^{2}+b x+c .\) For what values of \(a, b\) and \(c\) is \(f\) concave up? For what values of \(a, b,\) and \(c\) is \(f\) concave down?
Given the following velocity functions of an object moving along a line, find the position function with the given initial position. Then graph both the velocity and position functions. $$v(t)=2 t+4 ; s(0)=0$$
A tangent question Verify by graphing that the graphs of \(y=\sin x\) and \(y=x / 2\) have one point of intersection, for \(x>0\) whereas the graphs of \(y=\sin x\) and \(y=x / 9\) have three points of intersection, for \(x>0 .\) Approximate the value of \(a\) such that the graphs of \(y=\sin x\) and \(y=x / a\) have exactly two points of intersection, for \(x>0\).
Find the solution of the following initial value problems. $$y^{\prime}(t)=\frac{3}{t}+6 ; y(1)=8$$
Locate the critical points of the following functions. Then use the Second Derivative Test to determine (if possible) whether they correspond to local maxima or local minima. $$f(x)=6 x^{2}-x^{3}$$
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