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2025 Pearson Edexcel A Level Physics Question Paper Option 2 June+ Mark scheme
Typology: Exams
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surname names
Number Number
Morning (Time: 1 hour 45 minutes)
Paper
Answer all questions.
Try to answer every question.
Fill in the boxes at the top of this page with your name,
Use black ink or ball-point pen.
Check your answers if you have time at the end.
🟐 🟐
centre number and candidate number.
Answer the questions in the spaces provided
The total mark for this paper is 90.
In the question marked with an asterisk ()* , marks will be awarded for your ability to
structure your answer logically, showing how the points that you make are related or
follow on from each other where appropriate.
Read each question carefully before you start to answer it.
You are advised to show your working in calculations, including units
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Answer ALL questions.
All multiple choice questions must be answered with a cross in the box for the correct answer
from A to D. If you change your mind about an answer, put a line through the box and then
mark your new answer with a cross.
1 Which of the following gives the SI base units of stress?
A kg m s
B kg m
C N m
D Pa
(Total for Question 1 = 1 mark)
2 Which of the following provides evidence for the particle nature of
electromagnetic radiation?
A diffraction
B interference
C photoelectric effect
D polarisation
(Total for Question 2 = 1 mark)
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5 X and Y are identical stars. When viewed from Earth the intensity of star X is four times
the intensity of star Y.
Which of the following explanations is possible?
A X is twice as far away as Y.
B X is four times as far away as Y.
C Y is twice as far away as X.
D Y is four times as far away as X.
(Total for Question 5 = 1 mark)
6 A trolley is attached to two springs and set into horizontal oscillation, as shown.
stand
spring
clamp
direction of oscillation
trolley
bench
The kinetic energy of the trolley is E k , and the potential energy of the trolley is E p
Which row of the table is correct?
(Total for Question 6 = 1 mark)
Trolley at equilibrium position Trolley at maximum displacement
k is a maximum E p is minimum
k is a maximum E p is a maximum
k is zero E p is a maximum
k is zero E p is minimum
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7 A small ball bearing falls slowly through a liquid at terminal velocity. The temperature
of the liquid is increased.
Which row of the table shows the change in viscosity of the liquid and the change in
terminal velocity of the ball bearing?
(Total for Question 7 = 1 mark)
8 Some rocks contain polonium. The polonium is radioactive, and decays to a stable
isotope of lead.
Which of the following graphs shows how the number N of lead atoms produced from
the decay of polonium varies with time?
Time
Time
Time
Time
(Total for Question 8 = 1 mark)
Viscosity of liquid Terminal velocity of ball bearing
increases increases
increases decreases
decreases increases
decreases decreases
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10 The diagram shows how displacement varies with distance for two waves, X and Y, at a
particular instant. The waves are travelling to the right.
Displacement
X Y
Distance
Which of the following statements describes the phase relationship between the
two waves?
A X leads Y by 90°
B X leads Y by 180°
C Y leads X by 90°
D Y leads X by 180°
(Total for Question 10 = 1 mark)
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11 A spectral line with wavelength 655.88 nm is detected on Earth from the Triangulum
Galaxy. The wavelength of this spectral line measured using a laboratory source
is 656.28 nm.
Calculate the velocity of the Triangulum Galaxy relative to the Earth.
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Magnitude of velocity = ......................................................
Direction = ......................................................
(Total for Question 11 = 3 marks)
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13 A teacher demonstrated the photoelectric effect by illuminating a zinc plate with
electromagnetic radiation.
When ultraviolet radiation of wavelength 320 nm was incident upon the zinc plate,
electrons were emitted from the zinc surface.
When visible light of wavelength 420 nm was incident upon the zinc plate, no effect was
observed.
Explain these observations. Your answer should include calculations.
work function of zinc = 3.74 eV
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(Total for Question 13 = 5 marks)
4 * 1 Air molecules are trapped in a container by a piston, as shown.
piston
The position of the piston is adjusted so that the volume available to the air molecules is
reduced. The temperature of the air stays constant.
Explain how the pressure exerted by the air changes. You should refer to the motion of
the air molecules.
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(Total for Question 14 = 6 marks)
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16 The closest distance from the eye where light from an object can be brought to a focus
is known as the near point distance. The near point distance for a human eye is taken to
be 25 cm.
A long‑sighted eye has a near point distance greater than 25 cm. This may cause
problems with focusing on near objects.
A converging lens can be used to correct this problem. The converging lens forms an
image of a near object at the actual near point distance of the long‑sighted eye.
(a) State the type of image formed by the converging lens when used to correct a
long‑sighted eye.
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(b) The near point distance for a long‑sighted eye is 65 cm.
Calculate the power, in dioptres, of the converging lens required.
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Power of converging lens =....................................... D
(c) A diverging lens can also be used to correct problems with eyesight.
Draw a ray diagram on the axes below to show the formation of the image of a
distant object by a diverging lens. F marks the position of each principal focus of
the lens.
diverging lens
(Total for Question 16 = 7 marks)
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17 The asteroid Bennu is in an approximately circular orbit around the Sun. Scientists
consider that Bennu may collide with Earth within the next century.
(a) In 2060 Bennu will be 7.49 × 10
8 m from the Earth.
(i) Show that the mass of Bennu is about 7.8 × 10
10 kg.
mean radius of Bennu = 245 m
average density of Bennu = 1260 kg m
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(ii) Calculate the magnitude of the force F between Bennu and Earth in 2060.
mass of Earth = 5.98 × 10
24 kg
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(b) The orbital time of Bennu around the Sun is 1.17 years.
Calculate the mass of the Sun.
average distance of Bennu from the Sun = 1.70 × 10
11 m
mass of Bennu = 7.8 × 10
10 kg
1 year = 3.15 × 10
7 s
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Mass of Sun = ......................................................
(Total for Question 17 = 9 marks)
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19 The photograph shows a giant ice sculpture of the Elizabeth Tower (Big Ben). The ice
sculpture was installed in St Pancras station in London in 2009.
(Source: © Skye Hohmann / Alamy Stock Photo)
The ice sculpture can be approximated as a regular cuboid, as shown below.
3.10 m 3.10 m
25.0 m
(a) Show that the mass of the ice sculpture is about 2.2 × 10
5 kg.
density of ice = 920 kg m
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(b) (i) It is claimed that 1% of the ice would melt if the ice sculpture were in direct
sunlight continuously for 12 hours. Assume that radiation, of intensity I , from
the Sun is directly incident upon the top of the sculpture, as shown below.
I = 1350 W m
Deduce whether this claim is correct.
initial temperature of ice sculpture = – 20 °C
intensity of the Sun = 1350 W m
specific heat capacity of ice = 2.09 × 10
3 J kg
specific latent heat of ice = 3.34 × 10
5 J kg
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(ii) Give two reasons why your analysis of the situation may be incorrect.
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(Total for Question 19 = 10 marks)
(b) Tall buildings sway in the wind. The design of the Petronas Towers permits safe
movement of the towers.
(i) The towers were designed to permit a maximum horizontal displacement of
0.90 m at the top of the towers. The natural frequency of each tower is 0.17 Hz.
Calculate the maximum velocity at the top of one of the towers when the tower
is oscillating at its natural frequency.
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Maximum velocity at the top of the tower = ......................................................
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(ii) The twin towers were linked together to improve the response of the building to
strong winds.
The graph below shows how the maximum displacement x varies with the
frequency f for a single tower and for two linked towers.
x
single tower
linked towers
f
Explain the behaviour of a single tower compared with the behaviour of the
linked towers.
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(Total for Question 20 = 11 marks)