Chapter 10: Problem 36
Find the inclination \(\theta\) (in radians and degrees) of the line. \(x-\sqrt{3} y+1=0\)
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Chapter 10: Problem 36
Find the inclination \(\theta\) (in radians and degrees) of the line. \(x-\sqrt{3} y+1=0\)
These are the key concepts you need to understand to accurately answer the question.
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True or False? In Exercises \(103-106,\) determine whether the statement is true or false. Justify your answer. The two sets of parametric equations \(x=t, y=t^{2}+1 \quad\) and \(\quad x=3 t, y=9 t^{2}+1\) correspond to the same rectangular equation.
Converting a Polar Equation to Rectangular Form In Exercises \(91-116,\) convert the polar equation to rectangular form. $$r=\frac{5}{1-4 \cos \theta}$$
Converting a Polar Equation to Rectangular Form In Exercises \(91-116,\) convert the polar equation to rectangular form. $$r=\frac{1}{1-\cos \theta}$$
Converting a Polar Equation to Rectangular Form In Exercises \(91-116,\) convert the polar equation to rectangular form. $$r=4 \csc \theta$$
The center of a Ferris wheel lies at the pole of the polar coordinate system, where the distances are in feet. Passengers enter a car at \((30,-\pi / 2) .\) It takes 45 seconds for the wheel to complete one clockwise revolution. (a) Write a polar equation that models the possible positions of a passenger car. (b) Passengers enter a car. Find and interpret their coordinates after 15 seconds of rotation. (c) Convert the point in part (b) to rectangular coordinates. Interpret the coordinates.
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