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This deck focuses on Comparing Linear Quadratic Polynomial Exponential Growth, giving you a quick way to review the definitions, rules, and examples that matter most for Algebra 2.
Study Comparing Linear Quadratic Polynomial Exponential Growth 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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Which grows faster for large x: f(x)=2x or g(x)=100x3?
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2x. Exponential with base >1 eventually exceeds any polynomial.
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This deck focuses on Comparing Linear Quadratic Polynomial Exponential Growth, 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: 2x. Exponential with base >1 eventually exceeds any polynomial.
Answer: Linear mx+b. Linear functions have constant first differences between consecutive outputs.
Answer: Exponential (with base b>1). Exponential functions with base >1 have fastest long-term growth.
Answer: Linear. Form mx+b indicates linear function (degree 1).
Answer: There exists N such that x>N⇒bx>mx+b0. Formal statement that exponential eventually dominates linear growth.
Answer: Polynomial (quadratic). Quadratic polynomial has degree 2 (highest power is x2).
Answer: Quadratic (y=x2). Values are perfect squares: 12,22,32,42.
Answer: f(0)=a. Any number to power 0 equals 1, so b0=1 and f(0)=a⋅1=a.
Answer: Exponential abx. Exponential functions have constant ratios between consecutive outputs.
Answer: 1.2x. Even tiny exponential base >1 eventually exceeds high-degree polynomial.
Answer: Linear growth model. Constant additive increase indicates linear growth pattern.
Answer: bx eventually exceeds mx+b0. Exponential with base >1 eventually surpasses any linear function.
Answer: Increasing slope (concave up), not a constant slope. Exponential graphs curve upward with increasing steepness, unlike linear's constant slope.
Answer: f(x+1)−f(x)=m. Linear functions have constant additive differences equal to slope m.
Answer: 210. 210=1024 while 102=100, so exponential is much larger.
Answer: bx eventually exceeds p(x). Key theorem: exponential with base >1 dominates all polynomials eventually.
Answer: b>1. Standard compares increasing exponentials, requiring base greater than 1.
Answer: x3. 23=8 while 33=27, so polynomial is larger at x=3.
Answer: (0,a). Y-intercept occurs at x=0, giving point (0,a⋅b0)=(0,a).
Answer: 210. 210=1024 while 3(10)=30, so exponential is much larger.
Answer: x5. Higher degree polynomial grows faster than lower degree polynomial.
Answer: limx→∞bxxn=0 for b>1. Ratio of polynomial to exponential approaches zero as exponential dominates.
Answer: 35. 35=243 while 2(5)2=50, so exponential is larger.
Answer: 8%. Growth rate is (1.08−1)×100%=8%.
Answer: Linear (difference 4). Each value increases by 4 from previous (constant difference).
Answer: 1.01x. Even small exponential bases >1 eventually dominate high-degree polynomials.
Answer: There exists N such that x>N⇒f(x)>g(x). Formal definition: after some threshold N, f is always greater than g.
Answer: There exists N such that x>N⇒bx>p(x). General statement that exponential eventually dominates any polynomial.
Answer: p(x)=anxn+⋯+a1x+a0 with an=0. Standard polynomial form with leading coefficient an nonzero.
Answer: r>0 (and a>0). Growth rate must be positive for (1+r)x to represent increasing exponential.
Answer: 5. Degree is the highest power of x in the polynomial.
Answer: bx grows faster than xn. Exponential functions with base b>1 eventually dominate any polynomial.
Answer: Exponential (ratio 2). Each value doubles the previous (constant ratio of 2).
Answer: b>1 (with a>0). Base must exceed 1 for exponential growth (increasing function).
Answer: rac{f(x+1)}{f(x)}=b. Consecutive outputs have constant multiplicative ratio equal to base b.
Answer: Exponential growth model. Constant multiplicative ratio indicates exponential growth pattern.
Answer: There exists N such that x>N⇒bx>x2. Formal statement that exponential eventually dominates quadratic growth.
Answer: Successive ratios ykyk+1 are constant. Exponential growth shows constant multiplicative ratios in tables.
Answer: f(x) decreases toward 0. Base 0<b<1 creates exponential decay toward horizontal asymptote y=0.
Answer: 7. Substitute x=0: f(0)=7⋅30=7⋅1=7.
Answer: Successive differences yk+1−yk are constant. Linear growth shows constant additive differences in tables.
Answer: Quadratic growth. Constant second differences indicate quadratic (degree 2) polynomial.
Answer: 1.0001x eventually exceeds x4. Even extremely small exponential base >1 eventually exceeds any polynomial.
Answer: 220. 220≈1 million while 100(20)2=40,000, exponential dominates.
Answer: 2. Growth factor is the base b in exponential function abx.
Answer: 3x. Exponential with base >1 eventually exceeds any polynomial.
Answer: ex. Natural exponential eventually dominates any polynomial, regardless of degree.
Answer: Exponential. Form abx with constant base indicates exponential function.
Answer: 0.7. Base is the number being raised to power x in exponential function.