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Further Maths · AQA 7367 · Paper 3M · June 2019

AQA A Level Further Maths Paper 3M June 2019 question paper 7367/3M

50 marks

AQA 7367 · Paper 3M

8 questions
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Question 1

A spring has natural length 0.4 metres and modulus of elasticity 55 N

Calculate the elastic potential energy stored in the spring when the extension of the spring is 0.08 metres.

Circle your answer.

0.176 J
0.44 J
0.88 J
1.76 J

[1 mark]

Answer
Mark scheme for question 1

Question 2

A particle has an angular speed of 72 revolutions per minute.

Find the angular speed in radians per second.

Circle your answer.

Question 2, shown as an image

[1 mark]

Answer
Mark scheme for question 2

Question 3

Figure for question 3

[3 marks]

Answer
Mark scheme for question 3

Question 4

In this question use maths symbol = 10 m smaths symbol2

An inelastic string has length 1.2 metres. One end of the string is attached to a fixed point O. A sphere, of mass 500 grams, is attached to the other end of the string.

The sphere is held, with the string taut and at an angle of 20maths symbol to the vertical, touching the chin of a student, as shown in the diagram below.

Figure for question 4

The sphere is released from rest.

Assume that the student stays perfectly still once the sphere has been released.

(a)

Calculate the maximum speed of the sphere.

[3 marks]

Answer
Mark scheme for question 4(a)
(b)

Find the maximum tension in the string.

[3 marks]

Answer
Mark scheme for question 4(b)
(c)

State, with a reason, whether or not the sphere touches the student’s chin again after it has been released.

[2 marks]

Answer
Mark scheme for question 4(c)

Question 5

The triangular region shown below is rotated through 360maths symbol around the x-axis, to form a solid cone.

Figure for question 5

The coordinates of the vertices of the triangle are (0, 0), (8, 0) and (0, 4).

All units are in centimetres.

(a)

State an assumption that you should make about the cone in order to find the position of its centre of mass.

[1 mark]

Answer
Mark scheme for question 5(a)
(b)

Using integration, prove that the centre of mass of the cone is 2 cm from its plane face.

[5 marks]

Answer
Mark scheme for question 5(b)
(c)

The cone is placed with its plane face on a rough board. One end of the board is lifted so that the angle between the board and the horizontal is gradually increased. Eventually the cone topples without sliding.

(c)(i)

Find the angle between the board and the horizontal when the cone topples, giving your answer to the nearest degree.

[2 marks]

Answer
Mark scheme for question 5(c)(i)
(c)(ii)

Find the range of possible values for the coefficient of friction between the cone and the board.

[3 marks]

Answer
Mark scheme for question 5(c)(ii)

Question 6

A ball moving on a smooth horizontal surface collides with a fixed vertical wall.

Question 6, shown as an image

wall.

Question 6, shown as an image

wall.

Model the ball as a particle.

(a)

Find the coefficient of restitution between the ball and the wall, giving your answer correct to two significant figures.

[3 marks]

Answer
Mark scheme for question 6(a)
(b)

Determine whether or not the wall is smooth.

Fully justify your answer.

[3 marks]

Answer
Mark scheme for question 6(b)

Question 7

A particle of mass 2.5 kilograms is attached to one end of a light, inextensible string of length 75 cm. The other end of this string is attached to a point A.

The particle is also attached to one end of an elastic string of natural length 30 cm and modulus of elasticity maths symbol N. The other end of this string is attached to a point B, which is 60 cm vertically below A.

The particle is set in motion so that it describes a horizontal circle with centre B. The angular speed of the particle is 8 rad smaths symbol1

Find maths symbol, giving your answer in terms of g.

[9 marks]

Answer
Mark scheme for question 7

Question 8

In this question use maths symbol = 9.8 m smaths symbol2

A ‘reverse’ bungee jump consists of two identical elastic ropes. One end of each elastic rope is attached to either side of the top of a gorge.

The other ends are both attached to Hannah, who has mass 84 kg

Hannah is modelled as a particle, as shown in the diagram below.

Figure for question 8

The depth of the gorge is 50 metres and the width of the gorge is 40 metres.

Each elastic rope has natural length 30 metres and modulus of elasticity 3150 N

Hannah is released from rest at the centre of the bottom of the gorge.

(a)

Show that the speed of Hannah when the ropes become slack is 30 m smaths symbol1 correct to two significant figures.

[6 marks]

Answer
Mark scheme for question 8(a)
(b)

Determine whether Hannah is moving up or down when the ropes become taut again.

[5 marks]

Answer
Mark scheme for question 8(b)

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