OCRA-Level197 resources

OCR A-Level Further Mathematics A Past Papers & Mark Schemes

Free OCR A-Level Further Mathematics A (H245) past papers, mark schemes & examiner reports. Pure Core 1 & 2 plus optional Mechanics, Statistics, Discrete Maths and Additional Pure. 128 resources.

πŸ“…June 2019 – June 2024πŸ“„197 resources availableβœ…Free to download

Download Past Papers

Type
Year

197 of 197 resources β€” page 1 of 8

June 2023

4 files
πŸ“„

Further Mathematics A – Question paper – Pure core 2 printed answer booklet

Question Paper
πŸ“„

Further Mathematics A – Question paper – Statistics

Question Paper
πŸ“„

Further Mathematics A – Question paper – Statistics printed answer booklet

Question Paper
πŸ“„

Further Mathematics A – Question paper – Pure core 1

Question Paper

June 2022

5 files
πŸ“„

Further Mathematics A – Question Paper – Pure core 2 printed answer booklet

Question Paper
πŸ“„

Further Mathematics A – Question paper – Statistics

Question Paper
πŸ“„

Further Mathematics A – Question Paper – Statistics printed answer booklet

Question Paper
πŸ“„

Further Mathematics A – Question Paper – Pure core 1

Question Paper
πŸ“„

Further Mathematics A – Question Paper – Discrete mathematics printed answer booklet

Question Paper

November 2021

6 files
πŸ“„

Further Mathematics A – Question paper – Statistics

Question Paper
πŸ“„

Further Mathematics A – Question paper – Statistics post exam correction

Question Paper
πŸ“„

Further Mathematics A – Question paper – Statistics printed answer booklet

Question Paper
πŸ“„

Further Mathematics A – Question paper – Pure core 2 printed answer booklet

Question Paper
πŸ“„

Further Mathematics A – Question paper – Pure core 1

Question Paper
πŸ“„

Further Mathematics A – Question paper – Discrete mathematics printed answer booklet

Question Paper

November 2020

5 files
πŸ“„

Further Mathematics A – Question paper – Statistics

Question Paper
πŸ“„

Further Mathematics A – Question paper – Statistics printed answer booklet

Question Paper
πŸ“„

Further Mathematics A – Question paper – Pure core 2 printed answer booklet

Question Paper
πŸ“„

Further Mathematics A – Question paper – Pure core 1

Question Paper
πŸ“„

Further Mathematics A – Question paper – Discrete mathematics printed answer booklet

Question Paper

June 2019

3 files
πŸ“„

Further Mathematics A – Question paper – Statistics

Question Paper
πŸ“„

Further Mathematics A – Question Paper – Statistics printed answer booklet

Question Paper
πŸ“„

Further Mathematics A – Question Paper – Pure core 1

Question Paper

No date

2 files
πŸ“

Further Mathematics A – Statistics – annotated sample assessment materials

Sample Assessment Materials
πŸ“

Further Mathematics A – Statistics

Sample Assessment Materials
…

Two Pure Core Papers and Two Optional Routes: How OCR Further Maths A Is Structured

OCR A-Level Further Mathematics A (H245) is built around a compulsory pure core examined across two papers, supplemented by two optional papers chosen from four applied strands. This structure gives students genuine flexibility to play to their strengths β€” a rarity in A-Level mathematics. Pure Core 1 (Y541, 1 hour 30 minutes, 75 marks) covers complex numbers including Argand diagrams and de Moivre's theorem, matrices and their applications to transformations, proof by induction, roots of polynomials, and series including the method of differences. Pure Core 2 (Y542, 1 hour 30 minutes, 75 marks) extends into hyperbolic functions, polar coordinates and curves, further calculus techniques (integration by parts, reduction formulae, arc length and surface area of revolution), differential equations (first and second order), and vectors including the vector product and equations of lines and planes in three dimensions. The four optional papers (each Y543–Y546, 1 hour 15 minutes, 60 marks) are: Statistics β€” hypothesis testing, continuous random variables, combinations of random variables, and estimation; Mechanics β€” dimensional analysis, work-energy-power, impulse and momentum, circular motion, and centres of mass; Discrete Mathematics β€” network algorithms (Dijkstra's, Kruskal's, Prim's), linear programming, critical path analysis, and game theory; and Additional Pure Mathematics β€” number theory, groups, further vectors, and surfaces. Students sit all four papers in the same examination series. The two pure core papers contribute 75 marks each (approximately 28% each) while the two optional papers contribute 60 marks each (approximately 22% each), giving a total of 270 marks. Unlike Mathematics A where calculator use is restricted in one paper, all four Further Mathematics A papers permit a scientific or graphical calculator.

Exam Paper Structure

Pure Core 1Calculator βœ“

Y541

⏱ 1 hour 30 minutes🎯 75 marksπŸ“Š 28% of grade
Complex numbers and Argand diagramsMatrices and linear transformationsProof by inductionRoots of polynomialsSeries and method of differences
Pure Core 2Calculator βœ“

Y542

⏱ 1 hour 30 minutes🎯 75 marksπŸ“Š 28% of grade
Hyperbolic functionsPolar coordinatesFurther calculus (reduction formulae, arc length)Differential equations (first and second order)Vectors (vector product, lines and planes)
Optional Paper 1Calculator βœ“

Y543–Y546

⏱ 1 hour 15 minutes🎯 60 marksπŸ“Š 22% of grade
Choice of: Statistics, Mechanics, Discrete Mathematics, or Additional Pure
Optional Paper 2Calculator βœ“

Y543–Y546

⏱ 1 hour 15 minutes🎯 60 marksπŸ“Š 22% of grade
Choice of: a second option from Statistics, Mechanics, Discrete, or Additional Pure

Key Information

Exam BoardOCR
Specification CodeH245
QualificationA-Level
Grading ScaleA*–E
Assessment Type4 written papers (2 compulsory + 2 optional)
Number Of Papers4
Exam DurationPure Core 1 & 2: 1h 30m each. Optionals: 1h 15m each
Total Marks270 (75 + 75 + 60 + 60)
Calculator StatusCalculator allowed in all papers
Available SessionsJune 2019 – June 2024
Total Resources128

Key Topics in Further Mathematics A

Topics you need to know

Complex numbers (modulus-argument form, de Moivre's theorem, loci)Matrices (determinants, inverses, eigenvalues and eigenvectors)Proof by induction (divisibility, summation, matrix results)Hyperbolic functions (identities, inverse hyperbolics, Osborn's rule)Polar coordinates (sketching curves, area enclosed)Further calculus (reduction formulae, improper integrals, arc length)Differential equations (second order homogeneous and non-homogeneous)Vectors in 3D (vector product, scalar triple product, planes)

Exam Command Words

Command wordWhat the examiner expects
ProveConstruct a logical, rigorous mathematical argument establishing a result from first principles
FindObtain a specific numerical or algebraic result, showing all intermediate working
Show thatVerify a given result using a clear chain of reasoning; the answer is provided but every step must be justified
SketchDraw a graph or diagram showing key features (intercepts, asymptotes, turning points) β€” precise plotting is not required
HenceUse the result just established in the previous part to answer this question β€” do not start from scratch
DetermineEstablish a result through calculation and reasoning, presenting a clear conclusion
VerifyConfirm a given statement by substituting values or checking conditions

Typical Grade Boundaries

GradeApproximate mark needed
A*74–86%
A62–73%
B52–61%
C42–51%
D33–41%
E24–32%

⚠️ Typical boundaries across four papers (270 total marks). Actual boundaries vary by series β€” check OCR's website.

Navigating the Proof-Heavy Pure Core and Choosing Your Optional Combination

The two Pure Core papers reward fluency with abstract reasoning in ways that the main Mathematics A course does not. Proof by induction questions follow a predictable structure β€” establish the base case, assume truth for n = k, prove for n = k + 1, and write a concluding statement β€” but the mark schemes are strict about every step. Missing the concluding statement ('therefore true for all positive integers by induction') typically loses a mark even when the algebra is correct. Complex numbers and matrices are interconnected throughout the specification. Transformation questions may require you to express a rotation as a matrix, convert to complex number form, or switch between Cartesian and polar representations. Practise moving between these forms fluently rather than treating each topic in isolation β€” examiners deliberately set questions that cross these boundaries. When choosing your two optional papers, consider not just which topics you prefer but which combinations complement each other. Statistics and Mechanics share very little overlap, meaning you study a broader range of mathematics. Discrete Mathematics and Additional Pure both extend pure reasoning, which suits students who prefer algebraic thinking over applied modelling. Most schools offer Statistics and Mechanics, but if you are self-studying, Discrete Mathematics rewards careful algorithmic thinking and has highly predictable question types. The printed answer booklets provided for each paper specify exactly how much working space is expected. If your solution is significantly longer than the space provided, you may be overcomplicating your approach. Use this as a self-check during practice.

More OCR A-Level Subjects

Explore other A-Level subjects from OCR

Related Past Papers

AI-Powered Revision

Meet your AI Tutor

Get clear explanations, worked examples, and step-by-step guidance on any A-Level Further Mathematics A topic. Your personal AI tutor, free to try.

βœ“ No credit card requiredβœ“ Covers all OCR topicsβœ“ Instant answers