What is \(i \times i^4 \times i^9 \times i^{16} \times \ldots \times i^{576}\), where \(i=\sqrt{-1}\), equal to?
1
The exponents are perfect squares \(1^2, 2^2, \ldots, 24^2\) (since \(24^2=576\)), so the product is \(i^{\sum_{k=1}^{24}k^2}\). Using \(\sum_{k=1}^{24}k^2 = \dfrac{24\cdot25\cdot49}{6}=4900\), and since \(4900\) is divisible by 4, \(i^{4900} = 1\).
If i = √-1, then how many values does i -2n have for different n ∈ ℤ?
What is \(\rm \sum\limits_{n=1}^{8n+7} i^n\) equal to, where i = √-1?
Find the value of (1 - i/1 + i), where 'i' is an imaginary number:
Find the value of $(1+i)^4$.
If i = √-1, then how many values does i -2n have for different n ∈ ℤ?
What is \(\rm \sum\limits_{n=1}^{8n+7} i^n\) equal to, where i = √-1?