What this deck covers
This deck focuses on Transformations Of Functions And Graphs, giving you a quick way to review the definitions, rules, and examples that matter most for Algebra 2.
Study Transformations Of Functions And Graphs in Algebra 2 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 is the graph effect of replacing f(x) with f(x)+k for k>0?
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Shift the graph up k units. Adding k to the function output translates all points vertically upward.
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This deck focuses on Transformations Of Functions And Graphs, giving you a quick way to review the definitions, rules, and examples that matter most for Algebra 2.
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: Shift the graph up k units. Adding k to the function output translates all points vertically upward.
Answer: Vertical stretch by factor k. Multiplying by k>1 stretches all y-values away from the x-axis.
Answer: No change. Multiplying input by one produces an identical transformation.
Answer: (x,y)→(x−k,y). Horizontal shift moves each point leftward by k units.
Answer: Shift the graph left ∣k∣ units. Subtracting negative k from input shifts the graph leftward.
Answer: Symmetry about the y-axis. Even functions have mirror symmetry across the y-axis.
Answer: Reflect the graph across the y-axis. Negative input creates a mirror image across the y-axis.
Answer: g(0)=f(k). The y-intercept becomes f(k).
Answer: Vertical compression by factor k. Multiplying by 0<k<1 compresses all y-values toward the x-axis.
Answer: k=3. Point (5,7) moves left to (2,7), so k=5−2=3.
Answer: Shift the graph down ∣k∣ units. Adding negative k translates all points downward by the magnitude.
Answer: Reflect across y-axis and scale horizontally by ∣k∣. Negative input coefficient reflects across y-axis and scales horizontally.
Answer: k=−4. The scaling factor is 3−12=−4.
Answer: Odd. Reciprocal function has origin symmetry: −x1=−x1.
Answer: (x,y)→(kx,y). Horizontal scaling divides each x-coordinate by k.
Answer: f(−x)=−f(x) for all x in the domain. This equation defines symmetry about the origin.
Answer: Neither. Mix of even and odd powers breaks symmetry properties.
Answer: f(−x)=f(x) for all x in the domain. This equation defines symmetry about the y-axis.
Answer: Horizontal compression by factor 4. Input coefficient 4 creates horizontal compression by factor 4.
Answer: Shift the graph right ∣k∣ units. Adding negative k to input shifts the graph rightward.
Answer: g(0)=f(0)+k. The y-intercept is the sum of original intercept and k.
Answer: (x,y)→(x,ky). Vertical scaling multiplies each y-coordinate by k.
Answer: Even. All terms have even powers, so f(−x)=f(x).
Answer: It generally becomes neither even nor odd. Vertical shifts break the symmetry through origin or y-axis.
Answer: Reflect across y-axis, then shift up 5. First reflect horizontally, then translate vertically.
Answer: Shift the graph right k units. Subtracting k from input shifts the graph rightward by k units.
Answer: (x,y)→(x+k,y). Horizontal shift moves each point rightward by k units.
Answer: Reflect across x-axis and scale by ∣k∣. Negative coefficient flips across x-axis and scales by absolute value.
Answer: Odd. All terms have odd powers, so f(−x)=−f(x).
Answer: g(0)=kf(0). The y-intercept is k times the original intercept.
Answer: k=2. If (6,2) becomes (3,2), then k6=3, so k=2.
Answer: Horizontal compression by factor k. Multiplying input by k>1 compresses the graph horizontally.
Answer: Shift the graph left k units. Adding k to input shifts the graph leftward by k units.
Answer: Reflect the graph across the x-axis. Negative coefficient flips all y-values to opposite signs.
Answer: If x is in the domain, then −x must also be in the domain. The domain must be symmetric about zero for classification.
Answer: k=−3. Change in y-intercept equals the vertical shift amount.
Answer: Reflect across both axes (equivalently rotate 180∘). Combines both reflections, equivalent to point reflection through origin.
Answer: Horizontal stretch by factor 3. Input coefficient 31 creates horizontal stretch by factor 3.
Answer: Even/odd status stays the same as f. Vertical scaling preserves the original symmetry pattern.
Answer: Shift right 4, then shift up 1. First shift horizontally, then translate vertically.
Answer: Horizontal stretch by factor rac{1}{k}. Multiplying input by 0<k<1 stretches the graph horizontally.
Answer: Horizontal stretch by 2; reflect x-axis; vertical stretch by 3. Combines horizontal stretch, x-axis reflection, and vertical stretch.
Answer: Even. Absolute value creates y-axis symmetry: ∣−x∣=∣x∣.
Answer: No change. Multiplying by one produces an identical transformation.
Answer: No change. Adding zero produces an identical transformation.
Answer: k=7. Vertical shift from −2 to 5 requires adding 7.
Answer: g(0)=f(0). Horizontal scaling doesn't affect the y-intercept at x=0.
Answer: Even. Even power in denominator creates y-axis symmetry.
Answer: k=41. Scaling factor is 82=41.
Answer: Symmetry about the origin (a 180∘ rotation). Odd functions have point symmetry through the origin.
Answer: Vertical stretch by 2, then shift down 3. First stretch vertically, then translate downward.
Answer: (x,y)→(x,y+k). Vertical shift adds k to each y-coordinate.
Answer: k=−2. If (−4,9) becomes (2,9), then k−4=2, so k=−2.