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New York State Regents Examinations Algebra II (Regents Examination) Syllabus

The Algebra II (Regents Examination) syllabus for New York State Regents Examinations in full: 6 chapters, 19 topics and 33 sub-topics, every one listed below, plus 57 Algebra II (Regents Examination) flashcards with answers.

6Chapters
19Topics
33Sub-topics
57Flashcards

Algebra II (Regents Examination) syllabus: all 6 chapters

Expand any chapter to see its topics and sub-topics.

  1. Polynomial and Rational Functions

    3 topics
    • Polynomial Arithmetic and Factoring
      • Operations on polynomials and synthetic division
      • Factoring by grouping and sum/difference of cubes
      • Remainder and factor theorems
    • Graphs of Polynomial Functions
      • Zeros, multiplicity, and end behavior
    • Rational Expressions and Equations
      • Simplifying and operating on rational expressions
      • Solving rational equations and extraneous roots
  2. Radicals, Complex Numbers, and Equations

    3 topics
    • Rational Exponents and Radicals
      • Converting between radical and exponent form
      • Solving radical equations
    • Complex Number System
      • Operations with imaginary and complex numbers
      • Complex solutions of quadratics
    • Solving Polynomial Equations
      • Finding real and complex roots of higher-degree equations
  3. Exponential and Logarithmic Functions

    3 topics
    • Exponential Functions and Modeling
      • Continuous growth and the number e
      • Compound interest applications
    • Logarithms and Their Properties
      • Logarithm definition and change of base
      • Product, quotient, and power laws
    • Solving Exponential and Logarithmic Equations
      • Using logarithms to solve for exponents
  4. Trigonometric Functions

    3 topics
    • The Unit Circle and Radian Measure
      • Reference angles and exact values
      • Converting between degrees and radians
    • Graphing Trigonometric Functions
      • Amplitude, period, frequency, and phase shift
      • Modeling periodic phenomena
    • Trigonometric Identities
      • Pythagorean identity and applications
  5. Functions, Sequences, and Series

    3 topics
    • Transformations and Inverse Functions
      • Shifts, stretches, and reflections of parent functions
      • Finding and verifying inverses
    • Sequences and Series
      • Arithmetic and geometric series and sums
      • Sigma notation
    • Comparing and Building Functions
      • Modeling with combinations of function types
  6. Statistics, Probability, and Inference

    4 topics
    • Normal Distribution
      • z-scores and the empirical rule
      • Areas under the normal curve
    • Study Design and Sampling
      • Surveys, experiments, and observational studies
      • Randomization and bias
    • Simulation and Inference
      • Margin of error and confidence in results
      • Evaluating treatment significance via simulation
    • Conditional Probability
      • Independence and the multiplication rule

New York State Regents Examinations Algebra II (Regents Examination) flashcards — 57 questions with answers

  1. State the Remainder Theorem for a polynomial p(x) divided by (x - a).

    When p(x) is divided by (x - a), the remainder equals p(a).

  2. State the Factor Theorem.

    (x - a) is a factor of polynomial p(x) if and only if p(a) = 0.

  3. Factor the difference of two cubes: a^3 - b^3.

    a^3 - b^3 = (a - b)(a^2 + ab + b^2).

  4. Factor the sum of two cubes: a^3 + b^3.

    a^3 + b^3 = (a + b)(a^2 - ab + b^2).

  5. For a polynomial in standard form, how do the degree and leading coefficient determine end behavior?

    Even degree: both ends go the same way (up if leading coefficient > 0, down if < 0). Odd degree: ends go opposite ways (up-right/down-left if coefficient > 0, reversed if < 0).

  6. What does the multiplicity of a real zero tell you about the graph at that x-intercept?

    Odd multiplicity: the graph crosses the x-axis. Even multiplicity: the graph touches and turns around (is tangent) at that intercept.

  7. What is the maximum number of turning points (relative extrema) of a polynomial of degree n?

    At most n - 1 turning points.

  8. How many roots (counting multiplicity and complex roots) does a degree-n polynomial have, per the Fundamental Theorem of Algebra?

    Exactly n roots in the complex number system, counting multiplicities.

  9. What values must be excluded from the domain of a rational expression?

    Any value of the variable that makes the denominator equal to zero.

  10. What is the first step when adding or subtracting rational expressions with unlike denominators?

    Find the least common denominator (LCD), then rewrite each expression with that common denominator before combining numerators.

  11. When solving a rational equation, why must you check solutions, and what are rejected solutions called?

    Multiplying out can introduce values that make a denominator zero; those invalid answers are called extraneous solutions and must be rejected.

  12. Rewrite the radical expression as a rational exponent: the n-th root of a^m.

    a^(m/n).

  13. Simplify (using rational-exponent rules): a^(1/2) · a^(1/3).

    a^(1/2 + 1/3) = a^(5/6).

  14. What does a negative rational exponent mean, e.g. a^(-m/n)?

    a^(-m/n) = 1 / a^(m/n), the reciprocal of the positive-exponent expression.

  15. How do you rationalize a denominator containing a single square root, such as 1/√a?

    Multiply numerator and denominator by √a to get √a / a.

  16. Define the imaginary unit i and give the values of i^2, i^3, and i^4.

    i = √(-1); i^2 = -1; i^3 = -i; i^4 = 1.

  17. What is the complex conjugate of a + bi, and what is the product (a + bi)(a - bi)?

    The conjugate is a - bi; their product is a^2 + b^2 (a real number).

  18. How do you divide complex numbers, e.g. simplify (a + bi)/(c + di)?

    Multiply numerator and denominator by the conjugate of the denominator (c - di), then simplify to standard a + bi form.

  19. State the quadratic formula and what the discriminant b^2 - 4ac reveals.

    x = (-b ± √(b^2 - 4ac)) / (2a). Discriminant > 0: two real roots; = 0: one repeated real root; < 0: two complex conjugate roots.

  20. What does the Rational Root Theorem state about possible rational zeros of a polynomial with integer coefficients?

    Any rational zero has the form p/q, where p is a factor of the constant term and q is a factor of the leading coefficient.

Show the other 37 Algebra II (Regents Examination) flashcards
  1. If a polynomial with real coefficients has the root 2 + 3i, what other root must it have?

    Its complex conjugate, 2 - 3i (complex roots occur in conjugate pairs).

  2. Give the general form of an exponential function and state the condition on the base.

    f(x) = a·b^x, where a ≠ 0 and the base b > 0, b ≠ 1.

  3. In y = a·b^x, how do you tell exponential growth from decay?

    Growth when b > 1; decay when 0 < b < 1.

  4. For exponential growth/decay y = a(1 ± r)^t, what do a and r represent?

    a is the initial amount; r is the growth (+) or decay (−) rate per time period (as a decimal).

  5. Convert to logarithmic form: b^y = x.

    log_b(x) = y.

  6. State the product, quotient, and power properties of logarithms.

    log_b(MN) = log_b M + log_b N; log_b(M/N) = log_b M − log_b N; log_b(M^p) = p·log_b M.

  7. State the change-of-base formula for log_b(x).

    log_b(x) = log(x)/log(b) = ln(x)/ln(b) (any common base).

  8. What is the natural logarithm, and what are ln(e) and ln(1)?

    ln is the logarithm with base e; ln(e) = 1 and ln(1) = 0.

  9. Outline the method to solve an exponential equation like b^x = c when bases can't be matched.

    Take the logarithm of both sides, use the power rule to bring the exponent down, then solve for x.

  10. Solve for x: log_2(x) = 5.

    x = 2^5 = 32.

  11. When solving a logarithmic equation, why must answers be checked?

    Because the argument of a logarithm must be positive; solutions making any argument ≤ 0 are extraneous and rejected.

  12. Define radian measure of an angle in terms of arc length and radius.

    A radian is the central angle that subtends an arc equal in length to the radius; θ (radians) = arc length / radius.

  13. Give the conversion factors between degrees and radians.

    Multiply degrees by π/180 to get radians; multiply radians by 180/π to get degrees. (180° = π radians.)

  14. On the unit circle, what do the coordinates (x, y) of the terminal point of angle θ represent?

    x = cos θ and y = sin θ; also tan θ = y/x.

  15. Give the exact values of sin, cos, and tan for θ = π/6 (30°).

    sin = 1/2, cos = √3/2, tan = √3/3 (=1/√3).

  16. Give the exact values of sin, cos, and tan for θ = π/4 (45°).

    sin = √2/2, cos = √2/2, tan = 1.

  17. How does the sign of the trig functions vary by quadrant (the 'ASTC' rule)?

    Quadrant I: all positive; II: sine (and csc) positive; III: tangent (and cot) positive; IV: cosine (and sec) positive.

  18. For y = A·sin(Bx + C) + D, identify amplitude, period, phase shift, and midline.

    Amplitude = |A|; period = 2π/|B|; phase shift = −C/B; midline = y = D.

  19. What are the period and range of the basic sine and cosine functions?

    Both have period 2π and range [−1, 1].

  20. What is the period of the basic tangent function, and where are its vertical asymptotes?

    Period π; vertical asymptotes at x = π/2 + πk (where cosine = 0).

  21. State the Pythagorean identity relating sine and cosine.

    sin^2 θ + cos^2 θ = 1.

  22. Express tan θ and the reciprocal identities (csc, sec, cot) in terms of sine and cosine.

    tan θ = sin θ/cos θ; csc θ = 1/sin θ; sec θ = 1/cos θ; cot θ = cos θ/sin θ.

  23. State the double-angle formula for sine.

    sin(2θ) = 2 sin θ cos θ.

  24. Describe how the transformation g(x) = a·f(b(x − h)) + k changes the graph of f(x).

    a: vertical stretch/compression (and reflection if a<0); b: horizontal stretch/compression (reflection if b<0); h: horizontal shift; k: vertical shift.

  25. Compare f(x − h) versus f(x) − h on the graph.

    f(x − h) shifts the graph horizontally (right if h>0); f(x) − h shifts it vertically (down by h).

  26. How are the graphs of a function and its inverse related, and what algebraic step finds the inverse?

    They are reflections across the line y = x; to find the inverse, swap x and y and solve for y.

  27. What condition must a function meet to have an inverse that is also a function (use a graphical test)?

    It must be one-to-one, i.e., pass the horizontal line test (each y-value used at most once).

  28. Give the recursive and explicit formulas for an arithmetic sequence with first term a_1 and common difference d.

    Recursive: a_n = a_(n−1) + d; explicit: a_n = a_1 + (n − 1)d.

  29. Give the explicit formula for a geometric sequence and the formula for the sum of its first n terms.

    a_n = a_1·r^(n−1); sum S_n = a_1(1 − r^n)/(1 − r) for r ≠ 1.

  30. What key property of the normal distribution is described by the empirical (68-95-99.7) rule?

    For a normal distribution, about 68% of data lies within 1 standard deviation of the mean, about 95% within 2, and about 99.7% within 3.

  31. How do you compute a z-score, and what does it measure?

    z = (x − μ)/σ; it measures how many standard deviations a value x is above (+) or below (−) the mean.

  32. Distinguish a population parameter from a sample statistic.

    A parameter is a fixed numerical value describing an entire population; a statistic is a value computed from a sample used to estimate that parameter.

  33. Distinguish a sample survey, an observational study, and a controlled experiment.

    A survey collects responses from a sample; an observational study records data without imposing treatment; an experiment deliberately imposes a treatment to establish cause and effect.

  34. What is a simulation, and what is its purpose in statistical inference?

    A simulation uses random trials (e.g., random numbers) to model a chance process, generating an empirical distribution to estimate probabilities or assess whether observed results are statistically significant.

  35. In comparing two treatment groups, when is an observed difference considered statistically significant via simulation?

    When the observed difference is unlikely (e.g., rarely occurs) under simulated random re-assignments assuming no real difference, indicating it is probably not due to chance.

  36. State the formula for the conditional probability P(A | B).

    P(A | B) = P(A and B) / P(B), provided P(B) ≠ 0.

  37. How do you test whether two events A and B are independent?

    They are independent if P(A | B) = P(A) (equivalently P(A and B) = P(A)·P(B)).

New York State Regents Examinations Algebra II (Regents Examination) FAQ

What is in the New York State Regents Examinations Algebra II (Regents Examination) syllabus?

New York State Regents Examinations Algebra II (Regents Examination) is split into 6 chapters: Polynomial and Rational Functions, Radicals, Complex Numbers, and Equations, Exponential and Logarithmic Functions, Trigonometric Functions, Functions, Sequences, and Series and Statistics, Probability, and Inference. Together they contain 19 topics and 33 sub-topics.

How many chapters are in New York State Regents Examinations Algebra II (Regents Examination)?

6 chapters, containing 19 topics and 33 sub-topics. The largest chapter is Statistics, Probability, and Inference, with 4 topics.

Are there flashcards for New York State Regents Examinations Algebra II (Regents Examination)?

Yes — a 57-card Algebra II (Regents Examination) deck, printed in full in the flashcards section of this page and available in the Examius app with spaced repetition. The free plan covers one exam of your choice, including its flashcards; Examius Pro, a one-time purchase, unlocks every other exam and deck.