Final Answer:
The values of
are given by the cube roots of the expression. There are three distinct cube roots, and they are:
![\[z_1 = 2^(2/3)e^(i\pi/6), \quad z_2 = 2^(2/3)e^(i\pi/2), \quad z_3 = 2^(2/3)e^(5i\pi/6)\]](https://img.qammunity.org/2024/formulas/mathematics/college/spkes5xw5pm35ziklah2qe0ndy69280fyc.png)
Step-by-step explanation:
To find the cube roots of
, we can express it in polar form and then apply De Moivre's Theorem. The polar form of
where the magnitude is 2 and the argument is
.
Now, using De Moivre's Theorem, we raise the polar form to the power of

![\[(2e^(-i\pi/3))^(1/3) = 2^(1/3)e^(-(1/3)(i\pi/3))\]](https://img.qammunity.org/2024/formulas/mathematics/college/l02w835e46lqwhhp36pkdtv2nsx9r5qejh.png)
Simplifying the expression yields the three cube roots mentioned in the final answer.
In conclusion, the values of
are three complex numbers with different arguments, resulting in the distinct roots
, and
. The use of polar form and De Moivre's Theorem simplifies the calculation of these roots.