{{asɛmtiNe Ɔkyerɛwfo}} | Nhomakorabea | Nneɛma a ɛma wotumi yɛ ade

4

A sound wave is a pressure wave; regions of high (compressions) and low pressure (rarefactions) are established as the result of the vibrations of the sound source. These compressions and rarefactions result because sound

vibrates longitudinally; the longitudinal movement of air produces pressure fluctuations.

is able to reflect off fixed ends and interfere with incident waves

is like all waves; it is able to bend into the regions of space behind obstacles.

waves have a speed that is dependent only upon the properties of the medium.

is more dense than air and thus has more inertia, causing the bunching up of sound.

4

Describe the picture using:
Particles
Disturbance
Parallel
Energy

4

A sound wave is different than a light wave in that a sound wave is

produced by an oscillating object and a light wave is not.

capable of existing with a variety of frequencies and a light wave has a single frequency.

not capable of diffracting and a light wave is.

not capable of traveling through a vacuum.

2

Which of these has a 'Higher' frequency?

2

Which of these has a 'Higher' period?

4

Humans can hear which of the following?

4

Two musical notes that have a frequency ratio of 2:1 are said to be separated by an octave. A musical note that is separated by an octave from middle C (256 Hz) has a frequency of _____.

9.2 - Nature of a Sound Wave

9.2 - Nature of a Sound Wave

A sound wave is a pressure wave; regions of high (compressions) and low pressure (rarefactions) are established as the result of the vibrations of the sound source. These compressions and rarefactions result because sound

Describe the picture using:
Particles
Disturbance
Parallel
Energy

A sound wave is different than a light wave in that a sound wave is

Which of these has a 'Higher' frequency?

Which of these has a 'Higher' period?

Humans can hear which of the following?

Two musical notes that have a frequency ratio of 2:1 are said to be separated by an octave. A musical note that is separated by an octave from middle C (256 Hz) has a frequency of _____.

A sound wave is a pressure wave; regions of high (compressions) and low pressure (rarefactions) are established as the result of the vibrations of the sound source. These compressions and rarefactions result because sound

A sound wave is different than a light wave in that a sound wave is

Which of these has a 'Higher' frequency?

Which of these has a 'Higher' period?

Humans can hear which of the following?

Two musical notes that have a frequency ratio of 2:1 are said to be separated by an octave. A musical note that is separated by an octave from middle C (256 Hz) has a frequency of _____.

9.2 - Nature of a Sound Wave

9.2 - Nature of a Sound Wave

A sound wave is a pressure wave; regions of high (compressions) and low pressure (rarefactions) are established as the result of the vibrations of the sound source. These compressions and rarefactions result because sound

Describe the picture using: ParticlesDisturbanceParallelEnergy

A sound wave is different than a light wave in that a sound wave is

Which of these has a 'Higher' frequency?

Which of these has a 'Higher' period?

Humans can hear which of the following?

Two musical notes that have a frequency ratio of 2:1 are said to be separated by an octave. A musical note that is separated by an octave from middle C (256 Hz) has a frequency of _____.

A sound wave is a pressure wave; regions of high (compressions) and low pressure (rarefactions) are established as the result of the vibrations of the sound source. These compressions and rarefactions result because sound

A sound wave is different than a light wave in that a sound wave is

Which of these has a 'Higher' frequency?

Which of these has a 'Higher' period?

Humans can hear which of the following?

Two musical notes that have a frequency ratio of 2:1 are said to be separated by an octave. A musical note that is separated by an octave from middle C (256 Hz) has a frequency of _____.

Describe the picture using:
Particles
Disturbance
Parallel
Energy