Math Problem Statement
Solution
You have provided an expression to find the limit of as approaches 6 from the positive side (notated as ). Let's analyze and solve it.
Given the expression:
As approaches 6 from the right, the denominator approaches a very small positive number since is slightly greater than 6. Hence, is close to zero but positive.
For the numerator, approaches 18 as approaches 6. Therefore, the fraction will approach a very large positive number as the numerator is positive and the denominator is a small positive number close to zero.
Thus, the limit is:
This implies that as approaches 6 from the right, the value of increases without bound.
Would you like more details on this solution or have any questions? Here are some related questions you might find interesting:
- What would be the limit of as approaches 6 from the left ()?
- How would the limit change if it were as approaches 6?
- What is the behavior of the function around values other than 6?
- Can you explain why the limit to the positive and negative side might differ?
- How do you find limits at infinity for similar rational functions?
Tip: Always consider the sign of the denominator when approaching a certain point, as it determines whether the limit heads towards positive or negative infinity, or if it exists at all.
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Math Problem Analysis
Mathematical Concepts
Limits
Rational Functions
Asymptotic Behavior
Formulas
lim_{x \to 6^+} \frac{3x}{x - 6}
Theorems
Limit Definition for Rational Functions
Asymptotic Behavior as x approaches a vertical asymptote
Suitable Grade Level
Grades 11-12 (High School Calculus)
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