Find the limit of the following sequence.
\[
{\left({\left( \root{n}\of{0.5}+\frac{\root{n}\of{0.5}}
{n} \right)}^{n}\right)}_{
n=1}^{\infty }
\]
Hint: The limit of the sequence \({\left({\left(1 + \frac{1}
{n}\right)}^{n}\right)}_{n=1}^{\infty }\)
is the Euler number \(\mathrm{e}\).
Find the limit of the following sequence.
\[
{\left(\frac{(n^{2} + 4n + 4)^{n}}
{n^{2n}} \right)}_{n=1}^{\infty }
\]
Hint: The limit of the sequence \({\left({\left(1 + \frac{2}
{n}\right)}^{n}\right)}_{n=1}^{\infty }\)
is \(\mathrm{e}^2\), where \(\mathrm{e}\) is the Euler number.
Consider the convergent sequence
\[
(a_{n})_{n=1}^{\infty } = \left (\frac{6n^{2} + 10n - 300}
{2n^{2}} \right )_{n=1}^{\infty }
\]
and its limit \(L\). Find the
maximal difference between \(L\)
and the subsequence \((a_{n})_{n=300}^{\infty }\).
(In other words, find the maximal difference between
\(L\) and the terms of the
sequence starting at \(a_{300}\).)