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Physics · Edexcel 1PH0 · Paper 1 · Foundation · June 2022

Edexcel GCSE Physics Paper 1 Foundation June 2022 question paper 1PH0/1F

1h 45m 100 marks

Practise the past exam questions by topic

Edexcel 1PH0 · Paper 1F

10 questions
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Question 1

(a)

Figure 1 shows how the visible spectrum of white light is shown on a screen.

Figure for question 1
(a)(i)

Which of these is the best piece of equipment to produce the white light?

Question 1, shown as an image

(1)

(a)(ii)

Which colour is seen between yellow and blue in the spectrum on the screen?

Question 1, shown as an image

(1)

(b)

Figure 2 shows the main parts of the electromagnetic spectrum.

Figure for question 1

Complete the following sentences using information from Figure 2. Each part of the electromagnetic spectrum may be used once, more than once or not at all.

(b)(i)

The part of the electromagnetic spectrum used to detect broken bones is

(1)

(b)(ii)

The part of the electromagnetic spectrum used in thermal imaging is

(1)

(b)(iii)

The part of the electromagnetic spectrum that

• is used to cook food

AND

• has a shorter wavelength than microwaves is

(1)

(b)(iv)

The part of the electromagnetic spectrum that

• is used to sterilise medical equipment

AND

• has a shorter wavelength than x‑rays is

(1)

Question 2

This question is about waves.

(a)

Figure 3 is a diagram of a water wave in a ripple tank.

Question 2, shown as an image
Figure for question 2
(a)(i)

State the number of crests of the wave between P and Q.

Question 2, shown as an image

(1)

(a)(ii)

The distance between P and Q is 42 cm.

Calculate the wavelength of the water wave in Figure 3.

wavelength =........

(2)

(a)(iii)

Describe how a student could determine the wave speed of the water wave in Figure 3.

(3)

(b)(i)

Which row of the table is correct for sound waves ?

Figure for question 2

(1)

(b)(ii)

A sound wave has a frequency of 440 Hz and a wavelength of 0.75 m.

Calculate the wave speed of the sound wave.

wave speed =........

(2)

Question 3

This question is about reflection and refraction of light.

(a)(i)

Figure 4 shows a ray of light travelling to a plane mirror.

On Figure 4, draw the ray of light after it reflects off the mirror surface.

Figure for question 3

(2)

(a)(ii)

Figure 5 shows a ray of light in air travelling to a glass block.

On Figure 5, draw the ray of light after it refracts at the surface of the glass block.

Figure for question 3

(2)

(a)(iii)

Figure 6 shows a ray of light in water, travelling to the surface of the water.

The angle marked X is greater than the critical angle.

On Figure 6, draw the ray of light after it reaches the surface of the water.

Figure for question 3

(2)

(b)

A converging lens has a focal length of 40 cm.

Calculate the power of this lens in dioptres.

Use the equation

Question 3, shown as an image

power of the lens =........ dioptres

(3)

Question 4

(a)

Figure 7 shows a truck lifting a box.

Figure for question 4

The box has a mass of 57 kg.

The truck lifts the box through a vertical height of 2.1 m.

The gravitational field strength, g = 10 N/kg

Calculate the change in the gravitational potential energy of the box.

Use the equation

Question 4, shown as an image

change in gravitational potential energy =........

(2)

(b)

A cyclist of mass 70 kg travels at a constant velocity of 8 m/s.

Calculate the kinetic energy of the cyclist.

kinetic energy of the cyclist =........

(3)

(c)

Figure 8 shows a trolley at the top of a slope.

Figure for question 4

A student gently pushes the trolley until it just starts to roll down the slope.

The student measures the time it takes for the trolley to roll down the slope.

The student repeats this for different values of the angle α.

Figure 9 is a graph of the student’s results.

Figure for question 4
(c)(i)

Use the graph in Figure 9 to find the time the trolley takes to roll down the ramp when the angle α = 45maths symbol.

(1)

(c)(ii)

Use the graph in Figure 9 to estimate the time the trolley takes to roll down the ramp when the angle α = 80maths symbol.

Show your working on the graph.

(2)

(c)(iii)

The student had a choice of how to measure the time the trolley takes to roll down the ramp.

1. Use a hand‑held stopwatch.

2. Use light gates at the top and bottom of the slope.

The student chose to use the light gates.

Explain why this was the correct choice.

You should refer to the data on the time axis of Figure 9 in your answer.

(2)

Question 5

This question is about stars.

(a)

Use words from the box to complete the following sentences.

Figure for question 5
(a)(i)

Stars of similar mass to our Sun were formed from a cloud of gas and dust

(1)

(a)(ii)

Our Sun is a........ star.

(1)

(b)(i)

Which will be the next stage in the evolution of our Sun?

Question 5, shown as an image

(1)

(b)(ii)

The core of a star with a much bigger mass than our Sun is most likely to end as a

Question 5, shown as an image

(1)

(c)

A nuclear fusion reaction is happening in our Sun.

The nuclear fusion reaction produces helium and radiates energy.

(c)(i)

State one of the conditions necessary for this nuclear fusion reaction to start.

(1)

(c)(ii)

Describe what happens in this nuclear fusion reaction.

(2)

(c)(iii)

The intensity of the Sun’s radiation in W/m2 on the surface of Earth is 1.32maths symbol103.

The intensity of the Sun’s radiation in W/m2 on the surface of Mars is 4.92maths symbol102.

Calculate the ratio

intensity of the Sun’s radiation on the surface of Earth intensity of the Sun’s radiation on the surface of Mars

(2)

Question 6

(a)

Figure 10 shows a safety sign on the door of a laboratory where radioactive materials are used.

Figure for question 6
(a)(i)

State one way that radioactivity can be dangerous to humans.

(1)

(a)(ii)

State one piece of equipment that can be used to measure radioactivity.

(1)

(a)(iii)

Alpha (α) radiation and ultraviolet (UV) radiation are ionising radiations.

Give two other ionising radiations.

(2)

(b)

Sulfur‑35 is a radioactive isotope of sulfur.

Figure 11 represents a nucleus of sulfur‑35.

35 S 16

Figure 11

Draw one line from each type of particle to the number of that type of particle in a nucleus of sulfur‑35.

Figure for question 6

(3)

(c)

A sample of a radioactive isotope has a mass of 520 g.

The half‑life of the radioactive isotope is 18 days.

(c)(i)

Calculate the mass of the original radioactive isotope remaining after 18 days.

mass after 18 days........

(1)

(c)(ii)

Calculate the mass of the original radioactive isotope remaining after 54 days.

mass after 54 days........

(2)

Question 7

(a)

A rock on the surface of the Earth has a mass of 12 kg.

(a)(i)

Calculate the weight of this rock on the surface of the Earth.

The gravitational field strength on the surface of the Earth is 10 N/kg.

Use the equation

Question 7, shown as an image

weight on the Earth =........

(2)

(a)(ii)

The weight of the same rock on the surface of the Moon is 20 N.

Calculate the gravitational field strength on the surface of the Moon.

gravitational field strength on the Moon........

(3)

(b)

*(b) Describe the Solar System in terms of the Sun, the planets, and the other objects which move in the Solar System.

Your answer should include the patterns of movement of the planets and the other objects in the Solar System.

You may draw a labelled diagram if it helps your answer.

(6)

Question 8

(a)

Which statement describes conservation of energy in a closed system?

Question 8, shown as an image

(1)

(b)

A student uses the apparatus in Figure 12 to find out which of two materials, sand or sawdust, is the better insulator.

Figure for question 8

The student also has a kettle to boil water, a thermometer and a stop clock.

(b)(i)

Draw a labelled diagram to show how the student should set up the equipment to investigate which material is the better insulator.

(3)

(b)(ii)

Give three factors that the student must control in this investigation.

(3)

(c)

Expanded polystyrene, used to insulate buildings, has different densities.

Figure 13 shows how the thermal conductivity of expanded polystyrene changes with the density of expanded polystyrene.

Figure for question 8

density of expanded polystyrene in kg/m3

Figure 13

Using the graph in Figure 13, describe how the thermal conductivity of expanded polystyrene changes with the density of expanded polystyrene.

(2)

(d)

Figure 14 is an energy diagram for an electric kettle, used to heat water.

Question 8, shown as an image
Question 8, shown as an image

one second = 3000 J one second

Figure for question 8

one second = 2400 J

(d)(i)

Calculate the amount of energy lost to the surroundings in one second.

energy lost to the surroundings in one second =........

(1)

(d)(ii)

Calculate the efficiency of the kettle.

Use the equation

Question 8, shown as an image

(2)

Question 9

(a)

Figure 15 is a speed limit sign from a European motorway.

The speeds shown are in km/h (kilometres per hour).

Figure for question 9
(a)(i)

The sign tells drivers to drive at a slower speed in wet weather.

Explain why it is safer for drivers to drive at a slower speed in wet weather.

(2)

(a)(ii)

Show that a speed of 31 m/s is less than a speed of 130 km/h.

(2)

(a)(iii)
Figure for question 9

A car is travelling at a speed of 31 m/s.

The car travels 46 m between the driver seeing an emergency and starting to brake.

Calculate the driver’s reaction time.

Give your answer to 2 significant figures.

driver’s reaction time =........

(3)

(b)

*(b) Figure 16 is a velocity/time graph for a toy train on a straight track for 7 seconds.

Figure for question 9

Using information from the graph, describe when and how the velocity and acceleration of the toy train change at different times during the 7 seconds shown on the graph.

(6)

Question 10

(a)

Radioactive tracers can be used when scanning a person’s kidneys.

A radioactive isotope is injected into a person’s blood stream.

The isotope emits radiation.

As the blood flows through the kidneys, this radiation is detected outside the body by a scanner.

(a)(i)

What type of radiation travels from the kidney to the scanner?

Question 10, shown as an image

(1)

(a)(ii)

During the scan, a technician needs to take readings for about 30 minutes.

The half‑life of the isotope used is about 6 hours.

1. State why an isotope with a half‑life of about 6 minutes is not suitable.

2. State why an isotope with a half‑life of about 6 days is not suitable.

(2)

(a)(iii)

State two ways of reducing the radiation risks to the technician.

(2)

(b)

Figure 17 is a diagram of a nuclear reactor.

Figure for question 10
(b)(i)

Explain how pushing the control rods further into the reactor slows down the nuclear chain reaction.

(2)

(b)(ii)

The moderator in a nuclear reactor slows down the neutrons so that the neutrons are more likely to start other fission reactions.

In a nuclear reactor,

• the average speed of the fast neutrons is 3.0maths symbol107m/s

• the average speed of the slow neutrons is 4.0maths symbol103m/s

Calculate the average speed of the slow neutrons as a percentage of the average speed of the fast neutrons.

(2)

(b)(iii)

The nuclear reaction is the first stage in the process of generating electricity.

Describe how energy is transferred from the nuclear reaction to the next stage in the process.

Equations

Figure for question 10

(2)

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