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This deck focuses on Exploring Types Of Discontinuities, giving you a quick way to review the definitions, rules, and examples that matter most for AP Calculus BC.
Study Exploring Types Of Discontinuities in AP Calculus BC with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
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What type of discontinuity is present for f(x)=x−11 at x=1?
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Infinite discontinuity. Denominator becomes zero causing function to approach infinity.
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This deck focuses on Exploring Types Of Discontinuities, giving you a quick way to review the definitions, rules, and examples that matter most for AP Calculus BC.
Work through these flashcards in short sessions. Try to answer each prompt before flipping the card, then revisit any cards you miss until the explanation feels automatic.
Answer: Infinite discontinuity. Denominator becomes zero causing function to approach infinity.
Answer: Infinite discontinuity. Natural log approaches −∞ as x approaches zero from right.
Answer: The graph has a sudden break or jump at the point. The graph has a visible gap between different function levels.
Answer: The limit exists but the function is not defined at that point. A hole exists that can be filled by defining the limit value.
Answer: A point discontinuity where a limit exists but the function is undefined. The function has a hole that can be filled by defining the limit value.
Answer: Infinite discontinuity. The function approaches infinity, creating a vertical line.
Answer: Infinite discontinuity. Function approaches +∞ from both sides at x=0.
Answer: Removable discontinuity. Factor (x−4) cancels, creating a hole at x=4.
Answer: Removable discontinuity. A hole in the graph that can be filled.
Answer: Infinite discontinuity. Function approaches +∞ from both sides at x=0.
Answer: It can make the function continuous at that point. Filling the hole makes the function continuous at that point.
Answer: Jump discontinuity. Left and right limits exist but have different finite values.
Answer: Infinite discontinuity. The function approaches infinity, creating a vertical line.
Answer: Jump discontinuity. Left limit is −1, right limit is 1, but function undefined.
Answer: Infinite discontinuity. Denominator approaches zero while numerator doesn't at x=3.
Answer: Jump discontinuity. Left limit −1, right limit 1, function undefined at origin.
Answer: Jump discontinuity. Different function definitions create unequal one-sided limits.
Answer: Jump discontinuity. Different function definitions create unequal one-sided limits.
Answer: Jump discontinuity. Left limit −1, right limit 1, function undefined at origin.
Answer: Infinite discontinuity. Denominator approaches zero while numerator doesn't at x=3.
Answer: Removable discontinuity. Factor (x−3) cancels from numerator and denominator.
Answer: Infinite discontinuity. Natural log approaches −∞ as x approaches zero from right.
Answer: The limit exists but the function is not defined at that point. A hole exists that can be filled by defining the limit value.
Answer: Infinite discontinuity. Division by zero causes the function to approach ±∞.
Answer: Removable discontinuity. The limit exists but the function value doesn't at that point.
Answer: Infinite discontinuity. Denominator becomes zero while numerator doesn't at x=1.
Answer: Infinite discontinuity. Function approaches +∞ from both sides at x=0.
Answer: Removable discontinuity. Canceling common factors reveals the removable nature.
Answer: Infinite discontinuity. Denominator becomes zero causing function to approach infinity.
Answer: Unequal one-sided limits. Left and right approaches yield different finite values.
Answer: Jump discontinuity. Floor function has different left and right limits at integers.
Answer: Jump discontinuity. Different function values on either side create a gap in the graph.
Answer: Removable discontinuity. Canceling common factors reveals the removable nature.
Answer: Removable discontinuity. Factor (x−1) cancels, giving limit value of 2.
Answer: Removable discontinuity. Simply define the function value at the point to make it continuous.
Answer: A point discontinuity where a limit exists but the function is undefined. The function has a hole that can be filled by defining the limit value.
Answer: Removable discontinuity. Factor (x−3) cancels, leaving (x+3)=6 at x=3.
Answer: Infinite discontinuity. The graph has a vertical line where function approaches infinity.
Answer: Removable discontinuity. Assigning the limit value makes the function continuous.
Answer: Infinite or jump discontinuity. No limit means either infinite behavior or unequal one-sided limits.
Answer: Removable discontinuity. Simply define the function value at the point to make it continuous.
Answer: Jump discontinuity. Different function values on either side create a gap in the graph.
Answer: Removable discontinuity. The factor (x−a) cancels, leaving a hole at x=a.
Answer: Removable discontinuity. The limit exists but the function value doesn't at that point.
Answer: A discontinuity where the function approaches infinity at a point. The function grows without bound, creating a vertical asymptote.
Answer: Infinite discontinuity. Denominator zero makes function approach infinity at x=0.
Answer: Removable discontinuity. Factor (x−4) cancels, creating a hole at x=4.
Answer: Removable discontinuity. A hole in the graph that can be filled.
Answer: Removable discontinuity. The factor (x−a) cancels, leaving a hole at x=a.
Answer: Removable discontinuity. Factor (x−1) cancels, giving limit value of 2.
Answer: Jump discontinuity. Left and right limits exist but have different finite values.
Answer: Infinite discontinuity. Function approaches +∞ from both sides at x=0.
Answer: Removable discontinuity. Factor (x−2) cancels, creating a hole at x=2.
Answer: Removable discontinuity. Factor (x−5) cancels, leaving (x+5)=10 at x=5.
Answer: Unequal one-sided limits. Left and right approaches yield different finite values.
Answer: Jump discontinuity. Floor function has different left and right limits at integers.
Answer: A discontinuity where the left and right limits exist but are not equal. The function has different values when approached from left vs right.
Answer: Removable discontinuity. Factor (x−2) cancels, creating a hole at x=2.
Answer: A discontinuity where the left and right limits exist but are not equal. The function has different values when approached from left vs right.
Answer: The graph has a sudden break or jump at the point. The graph has a visible gap between different function levels.
Answer: Removable discontinuity. Factor (x−5) cancels, leaving (x+5)=10 at x=5.
Answer: Infinite discontinuity. Tangent has vertical asymptotes where cosine equals zero.
Answer: It can make the function continuous at that point. Filling the hole makes the function continuous at that point.
Answer: Infinite discontinuity. Denominator zero makes function approach infinity at x=0.
Answer: Infinite discontinuity. Denominator becomes zero while numerator doesn't at x=1.
Answer: Removable discontinuity. Assigning the limit value makes the function continuous.
Answer: Infinite or jump discontinuity. No limit means either infinite behavior or unequal one-sided limits.
Answer: Infinite discontinuity. Tangent has vertical asymptotes where cosine equals zero.
Answer: Removable discontinuity. Factor x−3 cancels, leaving x+3=6 at x=3.
Answer: Infinite discontinuity. Division by zero causes the function to approach ±∞.
Answer: Removable discontinuity. Factor (x−3) cancels from numerator and denominator.
Answer: Jump discontinuity. Left limit is −1, right limit is 1, but function undefined.
Answer: Infinite discontinuity. The graph has a vertical line where function approaches infinity.
Answer: A discontinuity where the function approaches infinity at a point. The function grows without bound, creating a vertical asymptote.