Question 1
What is the gravitational field strength at the Earth’s surface?
A 10 N/kg
B 16 N/kg
C 50 N/kg
D 230 N/kg
[1]
Answer
What is the gravitational field strength at the Earth’s surface?
A 10 N/kg
B 16 N/kg
C 50 N/kg
D 230 N/kg
[1]
Which voltage is the maximum voltage made when four 1.5 V cells are connected in series ?
A 0 V
B 1.5 V
C 3.0 V
D 6.0 V
[1]
Cog X has 16 teeth and cog Y has 8 teeth.
Cog X is turned around two times.
How many times does cog Y turn around?
A 1
B 2
C 4
D 8
[1]
What is the smallest number of forces needed to bend an object?
A 1
B 2
C 3
D 4
[1]
The diagram shows the relationship between force and extension for a spring.
Which letter on the graph shows the elastic limit of the spring being stretched?
[1]
This is a circuit.
Which letter A, B, C or D shows the part of the circuit that carries a current of 2 A?
[1]
A student has 3 identical resistors. She arranges them in four different ways.
Which arrangement has the most resistance?
[1]
An object travelled 800 m in 40 seconds.
Use the equation: distance travelled (m) = speed (m/s) × time (s)
What is the speed of the object?
A 0.05 m/s
B 20 m/s
C 840 m/s
D 32 000 m/s
[1]
An object moved 20 cm with a force of 20 N.
Use the equation: work done = force × distance
Which is the correct calculation of work done?
A 0.4 J
B 4.0 J
C 40 J
D 400 J
[1]
In which situation does the force cause a rotation?
A Bouncing on a trampoline
B Hitting a nail with a hammer
C Pushing a friend on a swing
D Sitting on a chair
[1]
Which is a scalar?
A Acceleration
B Displacement
C Force
D Speed
[1]
These statements are about pressure and volume of a gas.
Which statement is correct?
A Volume doubles, pressure doubles
B Volume doubles, pressure halves
C Volume halves, pressure halves
D Volume halves, pressure stays constant
[1]
Which of the following has the most kinetic energy?
[1]
Which distances are the same ?
[1]
A student studies how the temperature falls when a liquid cools.
What is happening at point X on the graph?
A Boiling
B Freezing
C Melting
D Subliming
[1]
A student uses four electrical appliances for different lengths of time.
Look at the table.
| Appliance | Power (W) | Time used (hours) |
| Hair dryer | 1500 | 0.3 |
| TV | 100 | 5 |
| Toaster | 2000 | 0.2 |
| Light bulb | 10 | 12 |
Which appliance uses the most energy?
[1]
Which appliance uses the least energy?
[1]
Here are three different components and their use in the home.
Match the component to its correct use.
One has been done for you.
Component Use
[2]
A charge of 44 000 C flows through a light bulb. The potential difference is 230 V.
Calculate the energy transferred.
Use the equation: Charge = Energy ÷ Potential difference
Record your answer to 2 significant figures.
[4]
A student has completed her homework on static electricity.
Look at her homework.
Identify the student’s mistake and correct it.
[2]
When charges move, a current flows.
Write down the current flowing at point Y in the circuit.
[1]
Atomic models have changed over time.
Old atomic model – Atoms are a positive mass with negative electrons fixed in it.
Current atomic model – Atoms are made from protons, neutrons and electrons. Protons and neutrons are in a central nucleus surrounded by a cloud of electrons.
Write down two differences between these models.
[2]
Why did the atomic model change?
[2]
A student has data on four blocks of different materials.
Each block has the same volume.
| Block | Mass (kg) | Density (kg/m3) |
| A | 2 | 2000 |
| B | 4 | 4000 |
| C | 6 | 6000 |
| D | 8 | 8000 |
Plot this data onto the graph and draw a line of best fit.
[2]
Describe the pattern shown on the graph.
[2]
A student completes an experiment to find the specific heat capacity of water.
He heats up 1 kg of water, using an immersion heater. He measures the temperature rise and calculates the specific heat capacity of the water.
| Attempt | Energy supplied (J) | Temperature rise (°C) | Specific heat capacity (J/kg °C) |
| 1 | 10 000 | 2 | 5000 |
| 2 | 21 000 | 4 | 5250 |
| 3 | 44 000 | 8 | 5500 |
Calculate the mean specific heat capacity.
Answer =........ J/kg °C
[1]
Describe the conclusions that can be drawn from the data.
[3]
The actual value for the specific heat capacity of water is 4200 J/kg °C.
Explain why the mean specific heat capacity calculated in (a)(i) is higher than the actual value.
[2]
Write down two problems with this experiment and suggest how they could be solved.
Use the diagram and results table to help you.
[4]
19* Four students run in different races.
| Student | Race distance (m) | Time (s) |
| A | 50 | 6 |
| B | 100 | 15 |
| C | 100 | 14 |
| D | 200 | 31 |
Use the information in the table to describe and compare the motion of the four students.
Use the data in your answer.
[6]
Objects can interact in many ways. Pairs of forces arise when objects interact.
Write down one type of force involved when objects interact.
[1]
A book rests on a table.
Draw a free body force diagram to show the forces acting on the book.
Use arrows to represent the forces.
[4]
A teacher uses an air-track for motion experiments. Using the air-track means that there is no friction between the glider and the air-track.
The teacher places the glider on the horizontal air-track and gives it a small push to start it moving.
Explain the motion of the glider.
[2]
A presenter on a car TV programme says:
“The car maker has reduced the mass of this car and it now has better acceleration.”
Explain why the presenter is correct.
[2]
A car accelerates from 5 m/s to 25 m/s in 4 seconds.
Calculate the acceleration of the car.
Use the equation: Acceleration = Change in speed ÷ Time taken
[3]
Two children play on a seesaw.
Both children sit 2 m from the pivot.
Calculate the clockwise and anti-clockwise moments around the pivot when the seesaw is horizontal.
[3]
Calculate where Child A should sit to balance the seesaw.
[3]
A student tries to compress the fluid in a sealed syringe with a force of 10 N.
The area of the end of the syringe is 0.1 m2.
Calculate the pressure in the fluid.
[3]
Write down the direction of the force produced by the fluid on the plunger.
[1]
A student builds a circuit to investigate the resistance of component X.
[1]
Why is this component needed in this circuit?
[1]
The student uses the circuit to take current and potential difference readings.
The student plots a graph of her results.
Look at the graph.
What is component X in the circuit?
[1]
The resistance of component X varies as the potential difference changes.
Describe how the graph shows this and explain why this happens.
[3]
Component X has a resistance of 16 when a current of 0.25 A flows.
Calculate the potential difference across component X.
Use the equation: Potential difference = Current × Resistance
[2]
Calculate the power of component X when a current of 0.25 A flows.
[3]
A student sets up an experiment to investigate the magnetic field around a current-carrying wire.
Describe how the student could use this experiment and a compass to investigate the magnetic field produced by the wire.
[3]
Draw the shape of the field which would be found around this wire.
[2]
The behaviour of a magnetic compass is evidence that the core of the Earth is magnetic. Explain why.
[2]
The paper as printed
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