\[ \begin{array}{l}x=5 \\ 25+5\end{array} \begin{array}{l}25+5=4^{2}+5\end{array} \] 22) Andullah claims that as \( n \) approaches infinity, the expressions \( \frac{1}{n+5} \) and \( \frac{1}{n}+5 \) approach same value. Is Abdullah's claim correct? Explain.
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Bonus Knowledge
As \( n \) approaches infinity, the expression \( \frac{1}{n+5} \) simplifies to \( \frac{1}{n} \) because the "+5" becomes negligible compared to \( n \). Thus, \( \frac{1}{n+5} \) approaches 0. On the other hand, \( \frac{1}{n} + 5 \) approaches \( 0 + 5 \), which equals 5. So, Abdullah's claim is incorrect; these expressions converge to different values as \( n \) approaches infinity. Understanding limits can help clarify why these expressions behave differently. When you analyze \( \frac{1}{n+5} \) and \( \frac{1}{n}+5 \), it’s vital to differentiate how constants affect behavior as they become minor in comparison to variable terms. This grasp of limits is crucial in calculus and can lead to deeper insights into rates of change and continuity!
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