Squeeze Theorem For Sequences  Summary and Q&A
TL;DR
The squeeze theorem can be used to determine if a sequence will converge or diverge by comparing it to two other known functions.
Questions & Answers
Q: How can we determine if a sequence will converge or diverge?
To determine if a sequence will converge or diverge, we can find the limit as n approaches infinity and see if it converges to a specific value or diverges to infinity or negative infinity.
Q: What is the squeeze theorem used for?
The squeeze theorem is used to determine the convergence or divergence of a sequence by comparing it to two other functions that have the same limit.
Q: How do we apply the squeeze theorem to a given sequence?
To apply the squeeze theorem, we need to find two functions, one that is greater than or equal to the sequence and one that is less than or equal to the sequence. If the limits of these two functions are equal, then the limit of the sequence is also equal to that value.
Q: How can graphing the sequence help determine convergence or divergence?
Graphing the sequence as a continuous function allows us to observe its behavior as x approaches infinity. If the graph approaches a horizontal asymptote, the sequence will converge. If it increases indefinitely, the sequence will diverge.
Summary & Key Takeaways

The squeeze theorem is used to determine the convergence or divergence of a sequence by comparing it to two other functions.

The limit as n approaches infinity for the sequence sine n over n squared is found to be 0 using the squeeze theorem.

Graphing the sequence as a continuous function can also help determine if it will converge or diverge.