Chapter 11: Problem 12
How does the eccentricity determine the type of conic section?
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Chapter 11: Problem 12
How does the eccentricity determine the type of conic section?
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Explain why the slope of the line tangent to the polar graph of \(r=f(\theta)\) is not \(d r / d \theta\)
Convert the following equations to Cartesian coordinates. Describe the resulting curve. $$r=2$$
Find the slope of the line tangent to the following polar curves at the given points. At the points where the curve intersects the origin (when this occurs), find the equation of the tangent line in polar coordinates. $$r=1+2 \sin 2 \theta ;\left(3, \frac{\pi}{4}\right)$$
The butterfly curve of Example 8 may be enhanced by adding a term: $$r=e^{\sin \theta}-2 \cos 4 \theta+\sin ^{5}(\theta / 12), \quad \text { for } 0 \leq \theta \leq 24 \pi$$ a. Graph the curve. b. Explain why the new term produces the observed effect.
Consider the following parametric equations. a. Make a brief table of values of \(t, x,\) and \(y\) b. Plot the points in the table and the full parametric curve, indicating the positive orientation (the direction of increasing \(t\) ). c. Eliminate the parameter to obtain an equation in \(x\) and \(y\) d. Describe the curve. $$x=t^{3}-1, y=5 t+1 ;-3 \leq t \leq 3$$
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