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Waves Quiz (Edexcel)

Total questions: 90

Worksheet time: 50mins

Name
Class
Date
1.

What do waves transfer?

a)

Matter

b)

Energy and information

c)

Heat only

d)

Sound only

2.

How are waves described in terms of their motion?

a)

As a straight line movement

b)

As oscillations or vibrations about a fixed point

c)

As a circular motion

d)

As a random motion

3.

What is an example of a wave causing particles to oscillate up and down?

a)

Sound in air

b)

Ripples in water

c)

Light in a vacuum

d)

Heat in a metal rod

4.

What do sound waves cause particles of air to do?

a)

Move in a straight line

b)

Vibrate back and forth

c)

Rotate around a fixed point

d)

Expand and contract

5.

Do waves transfer matter along with energy and information?

4 lines
6.

What type of wave is present on the surface of a body of water?

a)

Longitudinal wave

b)

Transverse wave

c)

Surface wave

d)

Sound wave

7.

Why does the toy duck not travel with the wave?

a)

Because the duck is anchored to the bottom of the water body

b)

Because the duck is too heavy to move with the wave

c)

Because the wave transfers energy, not the particles of the medium

d)

Because the duck is not a part of the water

8.

What demonstrates that waves do not transfer matter?

a)

The duck moves in a circular motion

b)

The duck moves along with the wave horizontally

c)

The duck bobs up and down without moving horizontally with the wave

d)

The duck sinks when the wave passes

9.

What happens to the points on the wave as it passes?

a)

They move along with the wave

b)

They vibrate back and forth about fixed positions

c)

They travel to the shore

d)

They sink and rise with the wave

10.

What is transferred by both transverse and longitudinal waves?

a)

Matter

b)

Particles

c)

Energy

d)

Heat

11.

What is amplitude defined as in wave motion?

a)

The distance from one point on the wave to the same point on the next wave

b)

The distance from the undisturbed position to the peak or trough of a wave

c)

The maximum velocity of the wave

d)

The time it takes for one complete wave to pass a point

12.

What symbol is used to represent wavelength in wave motion?

a)

A

b)

T

c)

λ (lambda)

d)

v

13.

How is wavelength measured in a transverse wave?

a)

From the centre of one compression to the centre of the next

b)

From the peak to the undisturbed position

c)

From one peak to the next peak

d)

From the trough to the undisturbed position

14.

How is wavelength measured in a longitudinal wave?

a)

From the peak to the undisturbed position

b)

From one peak to the next peak

c)

From the centre of one compression to the centre of the next

d)

From the trough to the undisturbed position

15.

In a wave diagram, where is the distance along a wave typically put?

a)

On the y-axis

b)

On the z-axis

c)

On the x-axis

d)

On the wavefront

16.

What is the definition of frequency in the context of waves?

a)

The distance a wave travels in one second

b)

The number of waves passing a point in one second

c)

The time taken for a wave to complete one cycle

d)

The height of the wave from the equilibrium position

17.

What symbol is used to represent frequency?

a)

λ

b)

T

c)

f

d)

v

18.

How is frequency measured?

a)

Meters (m)

b)

Seconds (s)

c)

Hertz (Hz)

d)

Meters per second (m/s)

19.

What does the time period of a wave represent?

a)

The number of waves passing a point in one second

b)

The distance a wave travels in one second

c)

The time taken for a single wave to pass a point

d)

The speed of the wave

20.

What symbol is used to represent the time period of a wave?

a)

λ

b)

T

c)

f

d)

v

21.

How is the time period measured?

a)

Meters (m)

b)

Seconds (s)

c)

Hertz (Hz)

d)

Meters per second (m/s)

22.

What is the relationship between frequency (f) and time period (T) of a wave?

4 lines
23.

How is wave velocity (or wave speed) defined?

a)

The number of waves passing a point in one second

b)

The time taken for a single wave to pass a point

c)

The distance a wave travels in one second

d)

The height of the wave from the equilibrium position

24.

What is a wavefront a useful way of picturing?

a)

The amplitude of a wave

b)

Waves from above, where each wavefront represents a single wave

c)

The frequency of a wave

d)

The period of a wave

25.

What does the space between each wavefront represent?

a)

The amplitude of the wave

b)

The frequency of the wave

c)

The wavelength

d)

The energy of the wave

26.

What does it represent when wavefronts are close together?

a)

A wave with a long wavelength

b)

A wave with a high amplitude

c)

A wave with a short wavelength

d)

A wave with a low frequency

27.

What does it represent when wavefronts are far apart?

a)

A wave with a high frequency

b)

A wave with a short wavelength

c)

A wave with a low amplitude

d)

A wave with a long wavelength

28.

What is sometimes called a ray in the context of wavefronts?

a)

The direction the wave is moving

b)

The space between wavefronts

c)

The wavefronts that are close together

d)

The wavefronts that are far apart

29.

What are waves described as in the context of transferring energy?

a)

Repeated vibrations that transfer energy

b)

Single occurrences that transfer energy

c)

Continuous motion that does not transfer energy

d)

Random movements that occasionally transfer energy

30.

Which of the following is NOT a type of wave mentioned in the text?

a)

Transverse

b)

Longitudinal

c)

Circular

d)

Electromagnetic

31.

How are transverse waves defined?

a)

Waves where the points along its length vibrate parallel to the direction of energy transfer

b)

Waves where the points along its length vibrate at 90 degrees to the direction of energy transfer

c)

Waves where the points along its length do not vibrate

d)

Waves where the points along its length vibrate in random directions

32.

In a transverse wave, the energy transfer is:

a)

Parallel to wave motion

b)

Perpendicular to wave motion

c)

In the same direction as the particle motion

d)

Not related to the wave motion

33.

Which of the following environments can transverse waves move in?

a)

Solids only

b)

Liquids only

c)

Gases only

d)

Solids, liquids, gases, and in a vacuum

34.

What is the highest point above the rest position on a wave called?

a)

Trough

b)

Crest

c)

Peak

d)

Summit

35.

What is the lowest point below the rest position on a wave called?

a)

Trough

b)

Crest

c)

Valley

d)

Dip

36.

Which of the following is NOT an example of a transverse wave?

a)

Ripples on the surface of water

b)

Vibrations in a guitar string

c)

S-waves (a type of seismic wave)

d)

Sound waves in air

37.

In transverse waves, how are the vibrations of the particles in the medium oriented relative to the direction of energy transfer?

a)

Parallel

b)

At a 45-degree angle

c)

Perpendicular

d)

In the same direction

38.

What do the curves above and below the central line in the representation of transverse waves indicate?

a)

The direction of energy transfer

b)

The amplitude of the wave

c)

The peaks and troughs of the wave

d)

The frequency of the wave

39.

How are transverse waves represented in diagrams?

a)

As a dotted line

b)

As a continuous solid line

c)

With arrows only

d)

Not represented at all

40.

In longitudinal waves, how do the points along its length vibrate?

a)

Perpendicular to the direction of energy transfer

b)

Parallel to the direction of energy transfer

c)

In a circular motion

d)

They do not vibrate

41.

For a longitudinal wave, which of the following statements is true?

a)

They transfer energy and the particles of the medium

b)

They can move in a vacuum

c)

They cannot move in solids, liquids, and gases

d)

The energy transfer is in the same direction as the wave motion

42.

What are the key features of a longitudinal wave called where the points are close together?

a)

Troughs

b)

Rarefactions

c)

Compressions

d)

Crests

43.

What are the key features of a longitudinal wave called where the points are spaced apart?

a)

Troughs

b)

Rarefactions

c)

Compressions

d)

Crests

44.

Which of the following is an example of a longitudinal wave?

a)

Light wave

b)

Sound wave

c)

Water wave

d)

Radio wave

45.

What does drawing the lines closer together in the representation of a longitudinal wave indicate?

a)

Rarefaction

b)

Compression

c)

Wavelength

d)

Amplitude

46.

Longitudinal waves can be seen in a slinky spring when it is:

a)

Held at one end and shaken up and down

b)

Moved quickly backwards and forwards

c)

Placed on a surface and stretched out

d)

Twisted in a circular motion

47.

In a longitudinal wave, the direction of energy transfer is:

a)

Perpendicular to the wave movement

b)

In a circular pattern

c)

Parallel to the wave movement

d)

In an oscillating motion

48.

In a longitudinal wave, what is the direction of energy transfer relative to the direction of vibration?

a)

Perpendicular to the direction of vibration

b)

The same as the direction of vibration

c)

Opposite to the direction of vibration

d)

There is no energy transfer in longitudinal waves

49.

What are the two main features of a longitudinal wave as shown in the diagram?

a)

Troughs and crests

b)

Rarefactions and compressions

c)

Peaks and valleys

d)

Nodes and antinodes

50.

Which of the following can be used to demonstrate longitudinal waves according to the text?

a)

Water surface

b)

Ropes

c)

Springs

d)

Light beams

51.

In which direction does the wave travel in a rope compared to the vibration of the rope?

a)

Parallel

b)

Perpendicular

c)

At a 45-degree angle

d)

In the same direction as the hand movement

52.

How does the wave travel in a spring relative to the vibration of the coils?

a)

Perpendicular

b)

At a 45-degree angle

c)

Parallel

d)

In a zigzag pattern

53.

What is depicted by the arrows in the diagrams for both ropes and springs?

a)

Direction of the wave only

b)

Direction of the vibration only

c)

Movement of energy

d)

Direction of the external force applied

54.

What is the structure of transverse waves?

a)

Compressions and Rarefactions

b)

Peaks and Troughs

c)

Constant density

d)

Changes in pressure

55.

In which medium can longitudinal waves not travel?

a)

Vacuum

b)

Solids

c)

Liquids

d)

Gases

56.

How does the vibration direction of transverse waves relate to the direction of energy transfer?

a)

Parallel to direction of energy transfer

b)

90 degrees to direction of energy transfer

c)

Dependent on material it is traveling in

d)

Changes in pressure

57.

What happens to the density of longitudinal waves as they travel?

a)

Constant density

b)

Changes in density

c)

Pressure is constant

d)

Dependent on material it is traveling in

58.

What is the speed of wave dependent on for transverse waves?

a)

Changes in pressure

b)

Constant density

c)

Dependent on material it is traveling in

d)

Cannot travel in a vacuum

59.

What type of waves are P-waves?

a)

Transverse waves

b)

Longitudinal waves

c)

Surface waves

d)

Mechanical waves

60.

In longitudinal waves, how do points along the wave vibrate relative to the direction of energy transfer?

a)

Perpendicular to the direction of energy transfer

b)

In a circular motion

c)

Parallel to the direction of energy transfer

d)

In an elliptical motion

61.

What is indicated by the arrows at point R in the diagram?

a)

The point R is stationary

b)

The point R vibrates in a direction that is perpendicular to the P-wave

c)

The point R vibrates in parallel to the direction of the P-wave

d)

The point R represents the amplitude of the P-wave

62.

How is wave speed defined according to the wave equation?

a)

The distance a wave travels in a given amount of time

b)

The frequency of the wave divided by the wavelength

c)

The time it takes for a wave to travel one meter

d)

The product of the wave's frequency and wavelength

63.

What is the formula for calculating wave speed?

a)

v = d / t

b)

v = f × λ

c)

v = λ / f

d)

v = t / d

64.

What does the symbol 'v' represent in the wave speed equation?

a)

Velocity

b)

Volume

c)

Voltage

d)

Wave speed in metres per second (m/s)

65.

What does the wave equation v = f × λ relate?

a)

Wave speed to distance and time

b)

Wave speed to frequency and wavelength

c)

Frequency to time and wavelength

d)

Wavelength to distance and time

66.

What does the symbol 'λ' stand for in the wave equation?

a)

Frequency in Hertz (Hz)

b)

Time in seconds (s)

c)

Wavelength in metres (m)

d)

Distance travelled by the wave

67.

If a wave's frequency is 10 Hz and its wavelength is 2 meters, what is the wave speed?

a)

5 m/s

b)

10 m/s

c)

20 m/s

d)

200 m/s

68.

What is the relationship between wave speed (v), frequency (f), and wavelength (λ) as shown in the diagram?

a)

v = f + λ

b)

v = f / λ

c)

v = f × λ

d)

v = f - λ

69.

Given a wave in a pond has a speed of 0.15 m/s and a time period of 2 seconds, what is the frequency of the wave?

a)

0.075 Hz

b)

0.3 Hz

c)

0.5 Hz

d)

2 Hz

70.

Using the same wave with a speed of 0.15 m/s and a time period of 2 seconds, what is the wavelength of the wave?

a)

0.075 m

b)

0.3 m

c)

0.15 m

d)

0.6 m

71.

What is the formula to calculate frequency (f) if the period (T) is known?

a)

f = T

b)

f = 1/T

c)

f = T^2

d)

f = 2T

72.

Given the wave speed (v) as 0.15 m/s and the frequency (f) as 0.5 Hz, what is the wavelength (λ)?

a)

λ = 0.075 m

b)

λ = 0.30 m

c)

λ = 0.60 m

d)

λ = 1.50 m

73.

How can frequency be calculated from the period?

a)

Multiply the period by 2

b)

Divide 1 by the period

c)

Square the period

d)

Take the square root of the period

74.

What should you be careful about when converting frequency units from kHz to Hz?

a)

1 kHz = 10 Hz

b)

1 kHz = 100 Hz

c)

1 kHz = 1000 Hz

d)

1 kHz = 10000 Hz

75.

What is the purpose of the experiment described in the method for measuring wave speed?

a)

To determine the speed of light in air

b)

To determine the speed of sound in air

c)

To measure the distance between two points using sound

d)

To test the hearing ability of individuals

76.

What equipment is used to measure the distance between the two people in the experiment?

a)

A ruler

b)

A measuring tape

c)

A trundle wheel

d)

A stopwatch

77.

What do the two people use to create a sound in the experiment?

a)

A whistle

b)

Two wooden blocks

c)

A bell

d)

Clapping hands

78.

What is the minimum distance recommended between the two people in the experiment?

a)

50m

b)

100m

c)

150m

d)

200m

79.

How is the speed of sound calculated in this experiment?

a)

By measuring the time it takes for the sound to travel between the two people

b)

By counting the number of claps heard in a minute

c)

By using the frequency of the sound waves produced

d)

By measuring the loudness of the sound at the second point

80.

What instrument is used by a person to measure the distance from a wall when measuring the speed of sound using echoes?

a)

Stopwatch

b)

Trundle wheel

c)

Wooden blocks

d)

Tape measure

81.

What must be the minimum distance between a person and a wall to effectively measure the speed of sound using echoes according to the method described?

a)

10m

b)

20m

c)

50m

d)

100m

82.

How many times should the claps be repeated to calculate an average time for the echoes when measuring the speed of sound?

a)

10

b)

20

c)

30

d)

40

83.

What is the purpose of the second person with a stopwatch in the method described for measuring the speed of sound using echoes?

a)

To measure the distance to the wall

b)

To listen for the echo

c)

To start timing when they hear one of the claps and stop timing 20 claps later

d)

To clap the wooden blocks

84.

What is the total distance travelled by sound during the 20 claps if the person is standing 50m away from the wall?

a)

500m

b)

1000m

c)

2000m

d)

2500m

85.

Which equation is used to calculate the speed of sound based on the method described in the image?

a)

SPEED OF SOUND = DISTANCE TRAVELED BY SOUND / TIME TAKEN

b)

SPEED OF SOUND = TIME TAKEN / DISTANCE TRAVELED BY SOUND

c)

SPEED OF SOUND = DISTANCE TRAVELED BY SOUND * TIME TAKEN

d)

SPEED OF SOUND = TIME TAKEN * DISTANCE TRAVELED BY SOUND

86.

What is the purpose of using two microphones in the method of measuring the speed of sound using an oscilloscope?

a)

To measure the distance between the microphones

b)

To detect the sound at two different locations and measure the time difference

c)

To amplify the sound of the clap

d)

To record the sound for analysis at a later time

87.

What triggers the oscilloscope to display the sound waves in this experiment?

a)

The sound of the clap reaching the second microphone

b)

The sound of the clap reaching the first microphone

c)

The sound of the clap reaching both microphones simultaneously

d)

The sound of the clap echoing off the wall

88.

How is the speed of sound calculated using this method?

a)

Speed of sound = Distance to the wall / Time taken

b)

Speed of sound = 2 * Distance to the wall / Time taken

c)

Speed of sound = Time taken / Distance to the wall

d)

Speed of sound = Distance to the wall / 2 * Time taken

89.

What is the role of the two wooden blocks in this experiment?

a)

To hold the microphones in place

b)

To reflect the sound waves

c)

To make a large clap next to the first microphone

d)

To adjust the distance between the microphones

90.

What is done after measuring the time difference between the claps reaching each microphone?

a)

The experiment is concluded

b)

The oscilloscope settings are adjusted

c)

The distance between the microphones is measured again

d)

The time difference is used to calculate the speed of sound