Math Problem Statement
Solution
The problem you uploaded asks to find the following limit:
Step-by-Step Solution:
-
Use Taylor Expansion or Standard Limits: Near , we can use approximations for small angles. Recall that:
- for small ,
- for small (since when ).
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Simplify the Expression: Substituting these approximations into the limit:
- Conclusion: The value of the limit is:
Let me know if you would like more details or have any further questions!
Related Questions:
- How does the approximation work for small angles?
- Can we solve this limit using L'Hopital's Rule? How?
- What are some other common trigonometric limits near ?
- How do Taylor series expansions help in solving limits involving trigonometric functions?
- How does the result change if the angle inside the trigonometric functions is different (e.g., instead of )?
Tip: When dealing with trigonometric limits, small-angle approximations and standard limit rules like are often very useful!
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Math Problem Analysis
Mathematical Concepts
Limits
Trigonometric Limits
Small-Angle Approximations
Formulas
Limit approximation for small angles: \(\tan(x) \approx x\) and \(\cos(x) \approx 1\) for \(x \to 0\)
Simplification of trigonometric expressions
Standard limit: \( \lim_{x \to 0} \frac{\sin x}{x} = 1 \)
Theorems
Small Angle Approximation
Standard Trigonometric Limits
Suitable Grade Level
Grades 11-12, Pre-Calculus or Calculus I
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