Chapter 6: Problem 74
Convert the polar equation \(r=\cos \theta+3 \sin \theta\) to rectangular form and identify the graph.
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Chapter 6: Problem 74
Convert the polar equation \(r=\cos \theta+3 \sin \theta\) to rectangular form and identify the graph.
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\(r=\frac{6}{2 \sin \theta-3 \cos \theta}\)
In Exercises 29-32, use a graphing utility to graph the rotated conic. $$ r=\frac{3}{3+\sin (\theta-\pi / 3)} $$
The comet Encke has an elliptical orbit with an eccentricity of \(e \approx 0.847\). The length of the major axis of the orbit is approximately \(4.42\) astronomical units. Find a polar equation for the orbit. How close does the comet come to the sun?
In Exercises 33-48, find a polar equation of the conic with its focus at the pole. $$ \begin{array}{ll} {\text { Conic }} & \text { Vertex or Vertices } \\ \text { Parabola } & (10, \pi / 2) \\ \end{array} $$
Consider the polar equation $$ r=\frac{4}{1-0.4 \cos \theta} $$ (a) Identify the conic without graphing the equation. (b) Without graphing the following polar equations, describe how each differs from the given polar equation. $$ r_{1}=\frac{4}{1+0.4 \cos \theta}, \quad r_{2}=\frac{4}{1-0.4 \sin \theta} $$ (c) Use a graphing utility to verify your results in part (b).
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