Additional Mathematics

Complete course for Cambridge International Examinations — syllabuses 4037 (O Level) and 0606 (IGCSE). Both syllabuses share identical content — one course covers both.

Cambridge 4037 / 0606 8 Complete Lessons Full Syllabus Calculus Included 80+ Worked Examples 55+ Exam Questions
8Lessons
80+Worked Examples
55+Exam Questions
30Common Mistakes
100%Syllabus Coverage

About This Course

This Additional Mathematics course covers the complete Cambridge O Level (4037) and IGCSE (0606) Additional Mathematics syllabus. Both qualifications are identical in content — this single course fully prepares students for either examination. The course extends well beyond O Level Mathematics into advanced algebra, logarithms and exponentials, advanced trigonometry, and the full calculus (differentiation and integration) with real-world applications. Each lesson follows a structured format: concept explanation, step-by-step worked examples, and graded exam practice questions with full model answers and examiner tips.

📋 Entry Requirement: Students should have completed O Level Mathematics (Cambridge 4024 / 0580) or an equivalent qualification before starting this course. Confident knowledge of algebra, coordinate geometry, and basic trigonometry is assumed throughout. If needed, visit our O Level Mathematics Hub first.
Syllabus Comparison — 4037 vs 0606
Feature O Level Additional Mathematics (4037) IGCSE Additional Mathematics (0606)
ContentIdentical to 0606Identical to 4037
Paper 12 hours — 80 marks — Calculator allowed2 hours — 80 marks — Calculator allowed
Paper 22 hours — 80 marks — Calculator allowed2 hours — 80 marks — Calculator allowed
GradesA* to EA* to G
AvailabilityZones 3, 4, 5 (includes Pakistan)All zones worldwide
Who this suitsStudents seeking advanced mathematics qualification or preparing for A Level Mathematics / Further Mathematics.
Complete Course — All 8 Lessons
1

Functions

Domain, range, one-to-one vs many-to-one, composite functions and their domains, inverse functions, restricted domains, self-inverse functions, modulus function, graph transformations including |f(x)| and f(|x|)

Pure Proofs Graphs
2

Quadratics & Polynomials

Discriminant and nature of roots, quadratic inequalities, completing the square, always positive/negative proofs, polynomial division, remainder and factor theorems, partial fractions (all three types)

Pure Theorem
3

Binomial Theorem

Pascal's Triangle, nCr formula and symmetry, binomial expansion (a+b)ⁿ, general term, finding specific terms and coefficients, constant term in expressions with negative powers, product of two expansions, finding n and a

Pure Algebra
4

Logarithms & Exponentials

Exponential functions, Euler's number e, definition of logarithm, all four laws, solving log and exponential equations, disguised quadratics, graph transformations, linearisation (y=abˣ, y=axⁿ, y=aeᵇˣ)

Pure Graphs Modelling
5

Advanced Trigonometry

Fundamental identities (sin², cos², sec², cosec²), proving identities, addition formulae, double angle formulae (all three cos forms), R sin(x±α) form, maximum/minimum values, general solutions in degrees and radians

Pure Proofs Radians
6

Differentiation

First principles, all standard results (eˣ, ln, sin, cos, tan), chain rule, product rule, quotient rule, tangents and normals, stationary points and classification, optimisation, connected rates of change, kinematics

Calculus Applications Kinematics
7

Integration

Standard integrals, integrating trig using double angle, integration by substitution, definite integrals, area under curve, area between two curves, area w.r.t. y-axis, partial fractions, kinematics, finding constants

Calculus Area Kinematics
8

Revision & Exam Technique

Complete formula reference card, 30 most common exam mistakes, six golden rules, topic-specific strategies, self-assessment checklist, mixed exam-style practice questions spanning all eight topics

Must Read Exam Ready
Quick Reference

📐 Calculus Essentials

  • d/dx(eᵃˣ) = aeᵃˣ
  • d/dx(ln x) = 1/x
  • d/dx(sin ax) = a cos ax
  • d/dx(cos ax) = −a sin ax
  • d/dx(tan ax) = a sec²ax
  • Chain: dy/dx = (dy/du)(du/dx)
  • Product: (uv)' = u'v + uv'
  • Quotient: (u/v)' = (u'v−uv')/v²
  • ∫eᵃˣ = (1/a)eᵃˣ + c
  • ∫sin ax = −(1/a)cos ax + c
  • ∫1/(ax+b) = (1/a)ln|ax+b| + c
  • ∫cos²ax = x/2+sin2ax/4a + c

🔑 Key Formulae

  • Discriminant: b²−4ac
  • ⁿCᵣ = n!/[r!(n−r)!]
  • T_{r+1} = ⁿCᵣ aⁿ⁻ʳ bʳ
  • logₐ(xy) = logₐx + logₐy
  • logₐ(xⁿ) = n logₐx
  • Change base: logₐx=lnx/lna
  • sin 2A = 2 sinA cosA
  • cos 2A = 2cos²A−1 = 1−2sin²A
  • R sin(x+α): R=√(a²+b²)
  • tan α = b/a (for a sinx+b cosx)
  • General sin: θ=nπ+(−1)ⁿα
  • General cos: θ=2nπ±α

⚠ Critical Rules

  • fg(x) → apply g FIRST then f
  • Domain f⁻¹ = Range of f
  • Prove identities: ONE side only
  • Check log arguments > 0
  • Trig calculus: radians only
  • Never divide by trig function
  • d²y/dx²=0 → use sign test
  • Distance ≠ displacement
  • Change limits in substitution
  • |area below x-axis| (modulus)
  • Improper fraction → divide first
  • +c in ALL indefinite integrals
Academic Progression Pathway

Where Additional Mathematics Leads

O Level Mathematics (4024/0580)
Additional Mathematics (4037/0606) ← You are here
A Level Mathematics (9709)
A Level Mathematics (9709)
A Level Further Mathematics (9231)
University Mathematics / Engineering / Physics

Additional Mathematics covers roughly half the A Level Mathematics content — making it the ideal bridge qualification. Students who complete 4037/0606 typically find the transition to A Level Mathematics significantly smoother.

🎯 Top 8 Exam Tips for Cambridge Additional Mathematics (4037 / 0606)

  1. Show every algebraic step. Method marks are awarded throughout. A correct method with an arithmetic error still earns most marks. Never write just the final answer for multi-mark questions.
  2. When "hence" appears, use the previous result. Cambridge specifically tests whether you can connect results between parts. Using an independent method when "hence" is specified may lose marks.
  3. Use radians for all trigonometric calculus. Differentiating or integrating trig functions only works correctly in radians. Check your calculator mode at the start of every calculus question.
  4. In logarithm equations, always check and reject invalid solutions. State explicitly "reject x=... because log argument < 0." Cambridge mark schemes allocate a mark for this rejection step.
  5. For identity proofs, work on ONE side only. Never move terms across the ≡ sign. Start with the more complex side. Conclude clearly with "= RHS ✓" or "= LHS ✓."
  6. For area questions, always sketch the curves first. Mark intersection points, shade the required region, and identify which curve is above the other. Integrating in the wrong order gives a negative area — subtract the lower from the upper.
  7. For R form questions, adjust the solution range for the shifted angle. If solving R sin(x+α)=k in 0°≤x≤360°, the range for (x+α) is α to 360°+α. Missing solutions outside 0°–360° is a very common error.
  8. Leave time to check your answers. For stationary points: verify using d²y/dx² or sign test. For trig equations: check all solutions satisfy the original equation. For log equations: verify arguments are positive.
Also Available at Garden Paper Mart Academy