De Moivre's Theorem. Sometimes, when I'm thinking about what problem to post for the week, topics just come to mind. Somehow, DeMoivre and his theorem was this week's winner. π The last time I really encountered this topic was well over five years ago...way back when I took a precalculus course. Now that I think about it, π€ I don't recall going over this topic in any tutoring sessions over the years. But then again, I've been tutoring for a long time and may not really remember if I actually did or not. π€·πΏ
I would also like to say the following: When I learned this topic, I was enrolled in a summer school course--about four weeks long. I learned the topic quickly without knowing what the practical applications of the theorem is. It felt like the topic was being learned for the sake of learning it, without any real-world connections being made. Even though I didn't ask the question then, I can ask it now and find an answer somewhere on this internet. Okay, I am done with that small rant.
To solve this week's problem in completion, you need to recall the following math skills:
✔️ How to convert complex numbers to polar form
✔️ How to apply DeMoivre's Theorem to find powers of complex numbers
✔️ How to evaluate trigonometric functions
WMP! #30 wants us to...
Check back on Friday, December 4th for the solution, which will be posted below ⬇️.
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Notice, I rounded the angle, π³, in degrees to the nearest thousandth. I didn't want use radians because I am more comfortable with degrees. Next up, the application of De Moivre's Theorem.
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