Chapter 4: Problem 36
Determine the amplitude and period of each function. Then graph one period of the function. $$y=\cos 4 x$$
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Chapter 4: Problem 36
Determine the amplitude and period of each function. Then graph one period of the function. $$y=\cos 4 x$$
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Graph \(y=\sin \frac{1}{x}\) in a [-0.2,0.2,0.01] by [-1.2,1.2,0.01] viewing rectangle. What is happening as \(x\) approaches 0 from the left or the right? Explain this behavior.
Use a graphing utility to graph each function. Use a viewing rectangle that shows the graph for at least two periods. $$y=\frac{1}{2} \tan (\pi x+1)$$
Use a graphing utility to graph each pair of functions in the same viewing rectangle. Use a viewing rectangle that shows the graphs for at least two periods. $$y=-2.5 \sin \frac{\pi}{3} x \text { and } y=-2.5 \csc \frac{\pi}{3} x$$
Determine whether each statement makes sense or does not make sense, and explain your reasoning. When graphing one complete cycle of \(y=A \sin (B x-C)\) I find it easiest to begin my graph on the \(x\) -axis.
Carbon dioxide particles in our atmosphere trap heat and raise the planet's temperature. Even if all greenhousegas emissions miraculously ended today, the planet would continue to warm through the rest of the century because of the amount of carbon we have already added to the atmosphere. Carbon dioxide accounts for about half of global warming. The function $$y=2.5 \sin 2 \pi x+0.0216 x^{2}+0.654 x+316$$ models carbon dioxide concentration, \(y,\) in parts per million, where \(x=0\) represents January \(1960 ; x=\frac{1}{12},\) February \(1960 ; x=\frac{2}{12},\) March \(1960 ; \ldots, x=1,\) January \(1961 ; x=\frac{13}{12}\) February \(1961 ;\) and so on. Use a graphing utility to graph the function in a [30,48,5] by [310,420,5] viewing rectangle. Describe what the graph reveals about carbon dioxide concentration from 1990 through 2008
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