Express z=−2−2i in polar and Euler form.
Convert z=1−i into polar form and Euler form, specifying θ explicitly.
Express z=−1+3i in both polar and Euler forms, with exact angles.
Express z=−4+3i in polar form and Euler form, giving the argument in the correct quadrant.
Convert the complex number 4+3i to polar form r(cosθ+isinθ) and Euler form reiθ.
Find the polar form and Euler form of z=−5i. [4]
Convert z=3−√3i to polar and Euler forms, giving exact values.
Find the polar and Euler forms of z=−3−3i.
Convert z=5i to polar and Euler forms.
Determine the modulus-argument (polar) form and exponential form of the complex number z=−3+i, giving the argument θ in the interval −π<θ≤π.
Express z=3+iz = \sqrt{3} + iz=3+i in polar form and Euler form, with θ in simplest exact form.
Convert z=22−22i to polar and Euler forms.
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