exercise:E8c480e7b7: Difference between revisions
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Let <math>f</math> be a function which is periodic with period | |||
<math>2\pi</math>, i.e., <math>f(t+2\pi) = f(t)</math>, | Let <math>f</math> be a function which is periodic with period <math>2\pi</math>, i.e., <math>f(t+2\pi) = f(t)</math>, and suppose that the graph of <math>f</math> for | ||
and suppose that the graph of <math>f</math> for | <math>0 \leq t \leq 2\pi</math> is as shown in [[guide:17598b3b3c#fig 6.6|Figure]]. | ||
<math>0 \leq t \leq 2\pi</math> is as shown in [[#fig 6. | Draw the graph of <math>f</math> for <math>-2\pi \leq t \leq 6\pi</math>. | ||
Draw the graph of <math>f</math> for | |||
<math>-2\pi \leq t \leq 6\pi</math>. | |||
Latest revision as of 23:08, 23 November 2024
[math]
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[/math]
Let [math]f[/math] be a function which is periodic with period [math]2\pi[/math], i.e., [math]f(t+2\pi) = f(t)[/math], and suppose that the graph of [math]f[/math] for [math]0 \leq t \leq 2\pi[/math] is as shown in Figure. Draw the graph of [math]f[/math] for [math]-2\pi \leq t \leq 6\pi[/math].