No. Polarization only applies to transverse waves; and sound in gases like air, at least, can only be longitudinal waves.
One way to prove that sound travels in a solid is by conducting an experiment where a sound source is placed against one end of the solid material and a microphone is placed at the other end to detect the sound waves. The detected sound waves show that sound can propagate through the solid material. This demonstrates that the particles in the solid can transmit mechanical vibrations that manifest as sound waves.
In general, light does not affect sound. Sound waves and light waves are different forms of energy that usually do not influence each other directly. However, extreme cases like laser-induced sound or photoacoustic effects can show interactions between light and sound.
It is not loudness, it is LOWness - Mythbusters did a show on that and found that low frequency noises do snuff out flames! But it is not actually the sound, but the motion of the air in the transmission of the sound.
Interference of sound waves occurs when one sound wave is not in phase with another. Graphically, this means that the sin/cos function representing the second wave does not line up exactly with the first one and the differences in sounds that result interfere with each other.
The differences between light and sound are as follows:Light can be considered to be made of waves as well as particles. Sound is only a wave. It does not show particle nature.Light waves are electromagnetic waves while sound waves are mechanical waves.Light waves are transverse while sound waves are longitudinal.Light waves can travel in vacuum. Sound waves require a material medium to travel, and hence, cannot travel in vacuum.The speed of light in a medium is constant. The velocity of sound waves can change.In sound waves, the particles of the medium actually oscillate. In a light wave, the electric and magnetic vectors oscillate.Light waves can be polarized, but sound waves cannot.Light waves travel much faster than sound waves. The speed of light is a physical constant. Its value is exactly 299,792,458 metres per second in vacuuum. The speed of sound is 343 metres per second in dry air at 20°C.And finally, a simple one - you can see light while you can hear sound.
thermometer
Sound is just waves within a medium (Air), you could quite effectively create a model via a tub of water and show waves bouncing off the sides, sound will have a similar propagation to the water waves.
The differences between light and sound are as follows:Light can be considered to be made of waves as well as particles. Sound is only a wave. It does not show particle nature.Light waves are electromagnetic waves while sound waves are mechanical waves.Light waves are transverse while sound waves are longitudinal.Light waves can travel in vacuum. Sound waves require a material medium to travel, and hence, cannot travel in vacuum.The speed of light in a medium is constant. The velocity of sound waves can change.In sound waves, the particles of the medium actually oscillate. In a light wave, the electric and magnetic vectors oscillate.Light waves can be polarized, but sound waves cannot.Light waves travel much faster than sound waves. The speed of light is a physical constant. Its value is exactly 299,792,458 metres per second in vacuuum. The speed of sound is 343 metres per second in dry air at 20°C.And finally, a simple one - you can see light while you can hear sound.
One way to prove that sound travels in a solid is by conducting an experiment where a sound source is placed against one end of the solid material and a microphone is placed at the other end to detect the sound waves. The detected sound waves show that sound can propagate through the solid material. This demonstrates that the particles in the solid can transmit mechanical vibrations that manifest as sound waves.
In general, light does not affect sound. Sound waves and light waves are different forms of energy that usually do not influence each other directly. However, extreme cases like laser-induced sound or photoacoustic effects can show interactions between light and sound.
It is not loudness, it is LOWness - Mythbusters did a show on that and found that low frequency noises do snuff out flames! But it is not actually the sound, but the motion of the air in the transmission of the sound.
Dont know does anybody else know??
The epicenr can be found by location the sound in the waves carried.
Interference of sound waves occurs when one sound wave is not in phase with another. Graphically, this means that the sin/cos function representing the second wave does not line up exactly with the first one and the differences in sounds that result interfere with each other.
The differences between light and sound are as follows:Light can be considered to be made of waves as well as particles. Sound is only a wave. It does not show particle nature.Light waves are electromagnetic waves while sound waves are mechanical waves.Light waves are transverse while sound waves are longitudinal.Light waves can travel in vacuum. Sound waves require a material medium to travel, and hence, cannot travel in vacuum.The speed of light in a medium is constant. The velocity of sound waves can change.In sound waves, the particles of the medium actually oscillate. In a light wave, the electric and magnetic vectors oscillate.Light waves can be polarized, but sound waves cannot.Light waves travel much faster than sound waves. The speed of light is a physical constant. Its value is exactly 299,792,458 metres per second in vacuuum. The speed of sound is 343 metres per second in dry air at 20°C.And finally, a simple one - you can see light while you can hear sound.
wistful waves
The frequency of all electrical waves is measured in cycles per second or Hertz, sound waves or audio is the lower range of the spectrum from one Hz to about ten Kilo Hz where the frequency is to high for human or animal hearing that is where radio waves or radio frequency start up to many Giga Hz where the different light frequencies start like white light, infra red, ultra violet and X-ray ETC.