Chapter 2: Problem 64
\(z^{2}=-z^{2}\)
Short Answer
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Key Concepts
These are the key concepts you need to understand to accurately answer the question.
Chapter 2: Problem 64
\(z^{2}=-z^{2}\)
These are the key concepts you need to understand to accurately answer the question.
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Get started for freeIn electricity we learn that the resistance of two resistors in series is \(R_{1}+R_{2}\) and the resistance of two resistors in parallel is \(\left(R_{1}^{-1}+R_{2}^{-1}\right)^{-1}\). Corresponding formulas hold for complex impedances. Find the impedance of \(Z_{1}\) and \(Z_{2}\) in series, and in parallel, given: (a) \(Z_{1}=2+3 i, \quad Z_{2}=1-5 i\) (b) \(Z_{1}=2 \sqrt{3} \angle 30^{\circ}, \quad Z_{2}=2 \angle 120^{\circ}\)
The three cube roots of \(+1\) are often called \(1, \omega\), and \(\omega^{2}\), Show that this is reasonable, that is, show that the cube roots of \(+1\) are \(+1\) and two other numbers, each of which is the square of the other.
Find and plot the complex conjugate of each number. \(\cos \pi-i \sin \pi\)
Find each of the following in the \(x+i y\) form. $$ \tanh \frac{3 \pi i}{4} $$
Describe geometrically the set of points in the complex plane satisfying the following equations. 51\. \(|z|=2\)
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