Math Problem Statement
Solution
Let's analyze the graph to determine the truth of each statement:
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Jump Discontinuity at : At , the graph has an open circle (the function is not defined at this point) and a filled dot at a different height, indicating that the left-hand limit does not equal the right-hand limit. This is a classic jump discontinuity.
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Removable Discontinuity at : At , the graph shows a hole (open circle) but the function value seems to approach the same point from both sides. This suggests that the limit exists but the function is not defined at this point, making it a removable discontinuity.
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Infinite Discontinuity at : At , the graph has a vertical asymptote, indicating that the function goes to infinity on both sides of this point. This is an infinite discontinuity.
Conclusion:
- All three statements are true.
Would you like further details or have any questions?
Here are 5 related questions to consider:
- What is the definition of a jump discontinuity?
- How is a removable discontinuity different from other types of discontinuities?
- What causes an infinite discontinuity in a function?
- Can a function have more than one type of discontinuity at a single point?
- How can you determine the limit of a function graphically?
Tip: Always check both the left-hand and right-hand limits to determine the type of discontinuity at a point.
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Math Problem Analysis
Mathematical Concepts
Types of Discontinuities
Graphical Analysis of Functions
Formulas
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Theorems
Jump Discontinuity
Removable Discontinuity
Infinite Discontinuity
Suitable Grade Level
Grades 10-12
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