NCEA Level 3 Calculus study plan
NCEA Level 3 Calculus · Give each week a clear focus.
8 weeks · About 6 hours per week
Differentiation and integration (calculus methods)
Differentiate polynomials, powers, and simple rational expressions from first principles and by rule, stating the limit definition each time
Apply the chain, product, and quotient rules to composite expressions and justify which rule applies before differentiating
Compute gradients, tangents, and normals at a given point and interpret the derivative as an instantaneous rate of change
Set up and solve basic optimisation and kinematics problems where the derivative is zero or where rate is given
Your checkpoint
A one-page formula-and-rule sheet plus 15 fully worked differentiation problems (mixed rules) with each step annotated
Differentiation and integration (calculus methods)
Integrate power, polynomial, and simple trigonometric and exponential expressions, including negative and fractional indices
Evaluate definite integrals and apply the fundamental theorem correctly, showing antiderivative substitution limits
Use integration to find areas between curves and to solve displacement-from-velocity problems
Recognise when substitution or recognition of the derivative of a function is required and carry it out
Your checkpoint
A timed 45-minute mock section of 10 integration problems scored against a marking schedule, with errors logged by cause
Differentiation and integration (calculus methods)
Combine differentiation and integration in multi-step problems involving rates of change, areas, and volumes of revolution
Solve differential-equation-style problems of the form dy/dx = f(x) by direct integration with initial conditions
Interpret and communicate the meaning of a definite integral and derivative in a real context in written sentences
Identify and correct the three most frequent algebraic slips in your own working (sign errors, index errors, missing constants)
Your checkpoint
One extended 3-part exam-style question fully solved with written interpretation, self-marked against the schedule at 80% or better
Conic sections and coordinate geometry
Derive and state the standard equations of circles, parabolas, ellipses, and hyperbolas in both standard and general forms
Complete the square to convert general conic equations into standard form and classify the conic from its coefficients
Find foci, vertices, directrices, eccentricity, and asymptotes for each conic type
Sketch conics accurately with labelled key features from an equation alone
Your checkpoint
A classification table and 12 conversion-and-sketch exercises, checked for correct identification of every conic
Conic sections and coordinate geometry
Solve intersection problems between conics and lines algebraically and interpret the number of solutions geometrically
Apply the discriminant to determine tangency and to find tangent lines to conics
Use parametric forms of the parabola and ellipse to solve locus and chord problems
Translate between Cartesian and parametric representations fluently
Your checkpoint
A 10-question coordinate-geometry practice paper completed under 60-minute timed conditions, with a written correction for every wrong answer
Trigonometric functions and identities
Recall and apply exact values, reciprocal and Pythagorean identities, and compound-angle and double-angle formulae without reference
Prove identities by transforming one side into the other and state the identity used at each step
Solve trigonometric equations over a specified interval, including general solutions and those requiring rearrangement into quadratic form
Differentiate and integrate trigonometric functions and apply them to gradient and area problems
Sketch trigonometric graphs showing amplitude, period, phase shift, and asymptotes
Your checkpoint
A proof portfolio of 8 identities and 10 solved equations over stated intervals, plus a 20-item recall quiz scored at 90% or better
Trigonometric functions and identities & Complex numbers and algebra
Convert between rectangular, polar, and exponential forms of complex numbers and justify the modulus-argument choice
Apply De Moivre's theorem to powers and roots and locate roots on an Argand diagram
Perform arithmetic on complex numbers and solve quadratic equations with complex roots
Use trigonometric identities together with complex-number techniques in combined problems
Your checkpoint
A worked set of 12 complex-number problems including a full roots-of-unity diagram, plus 5 combined trigonometry-complex questions
Complex numbers and algebra & Differentiation and integration (calculus methods)
Solve polynomial equations and apply the factor and remainder theorems, including complex conjugate-root pairs
Manipulate algebraic fractions, logarithms, and exponentials accurately in multi-step problems
Complete two full mixed-domain practice papers under exam timing and mark them against the schedule
Consolidate a personal error log into a one-page revision summary of the highest-risk mistakes
Your checkpoint
Two timed full practice papers scoring 80% or better overall with a completed error log and one-page final revision summary
Milestones
Week 2: Score at least 75% on the 10-problem integration mock and show correct rule selection in every differentiation step of the week 1 sheet
Week 4: Correctly classify 10 of 12 conic equations by completing the square and label all key features on each sketch
Week 6: Achieve 90% on the trigonometric recall quiz and complete all 8 identity proofs without referring to worked examples
Week 8: Score 80% or better on both timed mixed papers, with every logged error matched to a specific correction action