AP Calculus BC study plan
AP Calculus BC · Give each week a clear focus.
8 weeks · About 7 hours per week
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
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
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
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
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
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
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
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