AP Calculus BC study materials
AP Calculus BC study resources

AP Calculus BC study plan

AP Calculus BC · Give each week a clear focus.

8 weeks · About 7 hours per week

Week 1

Integration and Accumulation of Change

  • Compute definite integrals from the limit definition of a Riemann sum for polynomial and simple transcendental integrands

  • Apply the Fundamental Theorem of Calculus (both parts) to evaluate integrals and differentiate accumulation functions with variable limits

  • Build a one-page reference of antiderivative rules and verify each rule by differentiating it

  • Estimate definite integrals numerically using left, right, midpoint, and trapezoidal sums and compare error behavior

Your checkpoint

A 20-problem integration set (limit definition, FTC, accumulation functions, numeric estimation) scored and corrected, with every missed problem reworked and annotated with the error type

Week 2

Integration and Accumulation of Change & Infinite Sequences and Series

  • Evaluate integrals by substitution, including changing limits of integration for definite integrals

  • Decompose rational integrands with partial fractions and select u-substitution versus algebraic manipulation

  • Determine convergence of improper integrals using limit comparisons and p-integral benchmarks

  • Classify sequences as convergent or divergent and justify with limit laws, squeeze theorem, or growth-rate comparison

Your checkpoint

A timed 45-minute quiz covering substitution, partial fractions, improper integrals, and sequence limits, scored with a written correction log for each error

Week 3

Infinite Sequences and Series

  • Apply all convergence tests (nth-term, geometric, p-series, integral, comparison, limit comparison, alternating, ratio, root) and state the correct hypothesis for each

  • Determine absolute versus conditional convergence and estimate alternating series error with the remainder bound

  • Construct power series for functions via differentiation, integration, and geometric-series manipulation

  • Compute Taylor and Maclaurin polynomials and bound the remainder with the Lagrange error term

Your checkpoint

A decision-tree flowchart for selecting a convergence test plus 15 worked series problems, each labeled with the test used and its justification

Week 4

Infinite Sequences and Series & Analytical Applications of Differentiation

  • Find intervals of convergence and radii of convergence for power series using the ratio and root tests

  • Represent functions as Taylor series and evaluate series at specific points to approximate function values

  • Apply the Mean Value Theorem and Rolle's Theorem to justify existence of values satisfying given conditions

  • Use the first and second derivative tests to classify critical points and locate inflection points

Your checkpoint

A 60-minute midterm-style assessment (series convergence, Taylor polynomials, MVT, curve analysis) scored against AP-style rubrics, with a written reflection on the two weakest skill areas

Week 5

Analytical Applications of Differentiation & Contextual Applications of Differentiation

  • Sketch accurate graphs of functions from sign charts of the first and second derivatives, including asymptotes and end behavior

  • Solve optimization problems by constructing objective functions and verifying extrema on closed or open intervals

  • Set up and solve related-rates problems by differentiating constraint equations with respect to time

  • Apply L'Hopital's rule to indeterminate forms and connect linear approximation to local linearity

Your checkpoint

A portfolio of 6 fully written free-response problems (2 optimization, 2 related rates, 1 graph analysis, 1 L'Hopital) with complete justification sentences in AP scoring style

Week 6

Limits and Continuity & Differentiation: Definition and Fundamental Properties & Differentiation: Composite, Implicit, and Inverse Functions

  • Evaluate limits algebraically, graphically, and with one-sided and infinite-limit techniques, and identify removable versus nonremovable discontinuities

  • State the three conditions of continuity and apply the Intermediate Value Theorem to prove existence of solutions

  • Differentiate from the limit definition and use derivative rules (product, quotient, chain) fluently

  • Differentiate implicitly and invert derivatives for inverse trigonometric and general inverse functions

Your checkpoint

A 30-problem rapid-fire drill (limits, continuity, differentiation rules, implicit and inverse derivatives) completed under time pressure with an accuracy target of 85% or higher

Week 7

Parametric Equations, Polar Coordinates, and Vector-Valued Functions & Applications of Integration

  • Differentiate and integrate parametric equations, including arc length and slope in parametric form

  • Convert between polar and rectangular coordinates and compute area and arc length in polar form

  • Differentiate and integrate vector-valued functions and interpret velocity, speed, and acceleration vectors

  • Set up and evaluate area between curves, volumes of revolution (disk, washer, shell), and average value integrals

Your checkpoint

A mixed 12-problem set spanning parametric, polar, vector, and area/volume applications, with a labeled sketch for every geometry problem

Week 8

Differential Equations & Integration and Accumulation of Change & Infinite Sequences and Series & Analytical Applications of Differentiation

  • Solve separable differential equations with initial conditions and interpret slope fields qualitatively

  • Model exponential growth and decay and logistic growth, and solve for constants from given data

  • Execute a full-length timed practice exam under AP conditions and self-score using official rubrics

  • Target the three lowest-scoring domains from the practice exam with focused re-drilling and error analysis

Your checkpoint

One complete timed practice exam (multiple choice plus free response) with a scored error-analysis spreadsheet mapping every miss to a domain and a written remediation list

Milestones

Week 2: Score 80% or higher on the integration and sequence quiz, and correctly justify convergence for at least 8 of 10 improper integrals and series

Week 4: Score 75% or higher on the midterm-style assessment and correctly select the appropriate convergence test with valid justification on at least 12 of 15 series problems

Week 6: Achieve 85% or higher accuracy on the timed differentiation and limits drill, and correctly justify every optimization and related-rates solution

Week 8: Score 4 or higher equivalent (roughly 65%+ composite) on the full-length practice exam and complete the domain-mapped error analysis for every missed question