OCRAS Level192 resources

OCR AS Level Further Mathematics B (MEI) Past Papers

Download OCR AS Level Further Mathematics B MEI (H635) past papers. Core Pure plus optional Mechanics, Statistics, Modelling with Algorithms or Numerical Methods. 24 resources.

πŸ“…June 2017 – presentπŸ“„192 resources availableβœ…Free to download

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June 2023

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Further Mathematics B (MEI) – Question paper – Numerical methods answer booklet

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Further Mathematics B (MEI) – Question paper – Numerical methods

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Further Mathematics B (MEI) – Question paper – Modelling with algorithms

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Further Mathematics B (MEI) – Question paper – Modelling with algorithms answer booklet

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Further Mathematics B (MEI) – Question paper – Core pure answer booklet

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Further Mathematics B (MEI) – Modified papers

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June 2022

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Further Mathematics B (MEI) – Question paper – Numerical methods answer booklet

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Further Mathematics B (MEI) – Question paper – Numerical methods

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Further Mathematics B (MEI) – Question paper – Modelling with algorithms

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Further Mathematics B (MEI) – Question paper – Modelling with algorithms answer booklet

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Further Mathematics B (MEI) – Question paper – Core pure answer booklet

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Further Mathematics B (MEI) – Modified papers

Modified Paper

November 2021

5 files
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Further Mathematics B (MEI) – Question paper – Numerical methods answer booklet

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Further Mathematics B (MEI) – Question paper – Numerical methods

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Further Mathematics B (MEI) – Question paper – Modelling with algorithms

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Further Mathematics B (MEI) – Question paper – Modelling with algorithms answer booklet

Question Paper
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Further Mathematics B (MEI) – Question paper – Core pure answer booklet

Question Paper

November 2020

6 files
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Further Mathematics B (MEI) – Question paper – Numerical methods answer booklet

Question Paper
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Further Mathematics B (MEI) – Question paper – Modelling with algorithms

Question Paper
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Further Mathematics B (MEI) – Question paper – Modelling with algorithms answer booklet

Question Paper
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Further Mathematics B (MEI) – Question paper – Numerical methods

Question Paper
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Further Mathematics B (MEI) – Question paper – Core pure answer booklet

Question Paper
πŸ“‹

Further Mathematics B (MEI) – Modified papers

Modified Paper

June 2019

2 files
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Further Mathematics B (MEI) – Question paper – Modelling with algorithms

Question Paper
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Further Mathematics B (MEI) – Question paper – Numerical methods

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Core Pure Foundations and MEI's Distinctive Optional Further Maths Components

OCR AS Level Further Mathematics B (MEI) (H635) is developed with Mathematics in Education and Industry and follows MEI's characteristic approach of contextualising abstract mathematics within real-world applications. The qualification consists of Core Pure (compulsory) plus one optional minor paper chosen from Mechanics A, Statistics A, Modelling with Algorithms, or Numerical Methods. Core Pure (H635/01, 1 hour 30 minutes, 75 marks) develops the foundations of further mathematics: complex numbers (arithmetic in Cartesian form, finding square roots of complex numbers, the fundamental theorem of algebra), matrices (addition, multiplication, determinants, inverse matrices, and geometric transformations of the plane), further algebra (rational functions, partial fractions, the method of differences for summing series), proof by mathematical induction (for divisibility, matrix powers, and summation formulae), and further calculus (integration using standard forms, reduction formulae, arc length). The optional components each occupy 1 hour 15 minutes. Mechanics A extends AS Mechanics to cover variable acceleration, projectile motion with air resistance, circular motion, and work-energy methods. Statistics A covers the Poisson distribution, continuous random variables (probability density functions, cumulative distribution functions), and hypothesis testing for the Poisson mean. Modelling with Algorithms covers graph theory, minimum spanning trees, shortest paths (Dijkstra's algorithm), and critical path analysis β€” with a strong emphasis on applying algorithms step-by-step and tracing execution. Numerical Methods covers iterative roots-finding techniques, numerical integration (trapezium rule, Simpson's rule), and numerical differentiation, with all methods contextualised in modelling scenarios. MEI's emphasis on mathematical communication means extended questions ask students to interpret results and comment on the validity of mathematical models alongside performing calculations.

Exam Paper Structure

Core PureCalculator βœ“

Core Pure Mathematics

⏱ 1 hour 30 minutes🎯 75 marksπŸ“Š 50%% of grade
Complex numbersMatricesFurther algebra and proof by inductionFurther calculusRational functions and partial fractions
OptionCalculator βœ“

Mechanics A / Statistics A / Modelling with Algorithms / Numerical Methods

⏱ 1 hour 15 minutes🎯 75 marksπŸ“Š 50%% of grade
Variable acceleration and circular motion (Mechanics A)Poisson distribution and continuous random variables (Statistics A)Graph theory and critical path analysis (Modelling with Algorithms)Iterative methods and numerical integration (Numerical Methods)

Key Information

Exam BoardOCR (MEI)
Specification CodeH635
QualificationAS Level
Grading ScaleA–E
Assessment TypeCore Pure paper (1h 30m) + optional minor paper (1h 15m)
Number Of Papers2
Exam DurationCore Pure: 1h 30m; Option: 1h 15m
Total Marks150
Calculator StatusCalculator allowed in all papers
Available SessionsJune 2017 – present
Total Resources24

Key Topics in Further Mathematics B (MEI)

Topics you need to know

Complex numbers in Cartesian formMatrix algebra and transformationsProof by induction for sequences and divisibilityMethod of differences and telescoping seriesPoisson distributionDijkstra's shortest path algorithmTrapezium rule and Simpson's rule

Exam Command Words

Command wordWhat the examiner expects
Show thatDerive the result fully β€” all steps must be shown
TraceApply the algorithm step-by-step, recording all intermediate values
CommentInterpret a mathematical result in context or evaluate accuracy
Hence or otherwiseA previous result may be used, but an alternative approach is also acceptable

Typical Grade Boundaries

GradeApproximate mark needed
A65–80%
B53–64%
C41–52%
D29–40%
E18–28%

⚠️ OCR AS Further Mathematics B (MEI) grade boundaries vary by session and optional component chosen.

Partial Fractions, Induction, and Algorithmic Tracing in MEI Further Maths

The method of differences for summing series is a distinctive MEI Core Pure topic. The technique expresses the general term f(r) as the difference g(r) βˆ’ g(r+1), then telescopes the sum so that most terms cancel and only the first and last remain. Practise decomposing terms using partial fractions first, since many telescoping sums require partial fraction decomposition as an initial step. Once the telescoping structure is identified, write out the first three and last two terms explicitly to make the cancellation visible before simplifying. For the Modelling with Algorithms option, marks are awarded for showing algorithm execution step-by-step, not just stating the final answer. In Dijkstra's shortest path algorithm, for example, you must show the order in which nodes are permanently labelled, record provisional distances at each iteration, and clearly identify the shortest path at the end. Practise tracing standard algorithms on worked examples until the steps are automatic β€” many marks are available purely for correct execution, independent of conceptual understanding. In Numerical Methods, the trapezium rule and Simpson's rule both appear regularly. Recall that Simpson's rule is always more accurate than the trapezium rule for smooth functions, because it fits parabolic arcs rather than straight-line segments to the function. For an error comment question, you must state whether the trapezium rule gives an overestimate or underestimate β€” this depends on whether the function is concave up (overestimate) or concave down (underestimate) over the interval. Sketch the curve and the trapezoids to determine this before writing your answer.

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