Paper 2
(Merged Question Paper and Marking Scheme)
Please write clearly in block capitals.
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I declare this is my own work.
A-level
MATHEMATICS
Paper 2
Tuesday 11 June 2024 Afternoon Time allowed: 2 hours
Materials For Examiner’s Use
You must have the AQA Formulae for A‑ level Mathematics booklet Question Mark
You should have a graphical or scientific calculator that meets the
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requirements of the specification. 2
3
Instructions
Use black ink or black ball‑ point pen. Pencil should only be used for drawing.
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Fill in the boxes at the top of this page.
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Answer all questions.
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You must answer each question in the space provided for that question. 7
If you need extra space for your answer(s), use the lined pages at the end of 8
this book. Write the question number against your answer(s). 9
Do not write outside the box around each page or on blank pages. 10
Show all necessary working; otherwise marks for method may be lost. 11
Do all rough work in this book. Cross through any work that you do not want
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to be marked. 13
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Information
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The marks for questions are shown in brackets.
The maximum mark for this paper is 100.
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Advice 18
Unless stated otherwise, you may quote formulae, without proof, from 19
the booklet. 20
You do not necessarily need to use all the space provided. 21
TOTAL
,A-Level Mathematics: Paper 2 (Tuesday 11 June 2024). Exam Preparation Areas
This paper focuses on Pure Mathematics and Applied Mathematics, including topics from Mechanics and
Statistics. Here’s a breakdown of the key areas typically covered:
1. Pure Mathematics:
Algebra:
o Quadratic Equations: Solving using factoring, completing the square, and the quadratic
formula.
o Polynomials: Factorization, finding roots, and using the Remainder and Factor Theorems.
o Exponents and Logarithms: Solving exponential and logarithmic equations, including using
the laws of indices.
Functions and Graphs:
o Graphing functions such as quadratics, cubics, exponentials, and logarithms, and analyzing key
features such as intercepts, turning points, and asymptotes.
o Transformations of functions: translations, stretches, and reflections.
Trigonometry:
o Solving trigonometric equations, using identities (e.g., Pythagorean identities, double angle
formula), and applying inverse trigonometric functions.
Calculus:
o Differentiation: Basic differentiation rules (power, product, quotient, and chain rule), solving
problems involving rates of change, and finding tangents and normals.
o Applications of Differentiation: Finding stationary points (minima, maxima, points of
inflection) and solving optimization problems.
o Integration
Coordinate Geometry:
o Straight Line Equations: Finding the equation of a line given a gradient and a point, or two
points.
o Circles: Equation of a circle in standard form, and solving problems involving tangents and
distances from a point to a line.
2. Applied Mathematics:
Mechanics:
o Kinematics: Motion under constant acceleration, equations of motion, and solving problems
involving velocity and displacement.
o Forces and Newton's Laws: Solving problems involving forces, friction, tension, and
equilibrium using Newton's second law.
o Energy and Momentum: Work, power, kinetic and potential energy, and conservation of
momentum in collisions.
Statistics:
o Data Representation: Constructing and interpreting histograms, cumulative frequency graphs,
and box plots.
o Probability: Using probability rules (addition and multiplication rules), tree diagrams, and
solving problems involving conditional probability.
o Distributions: Understanding and applying binomial and normal distributions, and solving
problems involving these.
o Statistical Measures: Calculating and interpreting mean, median, mode, variance, and
standard deviation.
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outside the
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Section A
Answer all questions in the spaces provided.
1 One of the equations below is the equation of a circle.
Identify this equation.
[1 mark]
Tick (🗸) one box.
(x + 1)2 – (y + 2)2 = –36
(x + 1)2 – (y + 2)2 = 36
(x + 1)2 + (y + 2)2 = –36
(x + 1)2 + (y + 2)2 = 36
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outside the
2 The graph of y = f (x) intersects the x‑ axis at (–3, 0), (0, 0) and (2, 0) as shown in the box
diagram below.
y
A
–3 2 x
B
The shaded region A has an area of 189
The shaded region B has an area of 64
2
Find the value of
∫ –3
f (x) dx
Circle your answer.
[1 mark]
–253 –125 125 253
Turn over for the next question
Turn over U
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3 Solve the inequality
(1 – x)(x – 4) < 0
[1 mark]
Tick (🗸) one box.
∩
{x : x < 1} {x : x > 4}
{x : x < 1} ∩ {x : x > 4}
{x : x ≥ 4}
∩
{x : x < 1}
{x : x < 1} ∩ {x : x ≥ 4}
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4 Use logarithms to solve the equation
5 x– 2 = 71570
Give your answer to two decimal places.
[3 marks]
Turn over for the next question
Turn over U
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outside the
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5 Given that
x3
y=
dy sin x
find
dx
[3 marks]
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6 It is given that
(2 sin θ + 3 cos θ)2 + (6 sin θ – cos θ)2 = 30
and that θ is obtuse.
Find the exact value of sin θ.
Fully justify your answer.
[6 marks]
Turn over U
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7 On the first day of each month, Kate pays £50 into a savings account.
Interest is paid on the total amount in the account on the last day of each month.
The interest rate is 0.2%
At the end of the nth month, the total amount of money in Kate’s savings account
is £Tn
Kate correctly calculates T1 and T2 as shown below:
T1 = 50 × 1.002 = 50.10
T2 = (T1 + 50) × 1.002
= ((50 × 1.002) + 50) × 1.002
= 50 × 1.0022 + 50 × 1.002
≈ 100.30
7 (a) Show that T3 is given by
T3 = 50 × 1.0023 + 50 × 1.0022 + 50 × 1.002
[1 mark]
7 (b) Kate uses her method to correctly calculate how much money she can expect to have
in her savings account at the end of 10 years.
7 (b) (i) Find the amount of money Kate expects to have in her savings account at the end
of 10 years.
[3 marks]
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