Compression is the areas where the particles are closer together. Rarefaction is the areas where the particles are stretched apart.
In a longitudinal wave, the compression part refers to the region where particles are closely packed together, leading to an increase in pressure. This compression region is followed by a rarefaction, where particles are spread apart, resulting in a decrease in pressure. The alternation between compression and rarefaction causes the wave to propagate through the medium.
The wavelength of a sound wave is the distance between a compression (high pressure) or rarefaction (low pressure) and the next compression or rarefaction. It is the physical length of one cycle of the wave and is typically measured in meters.
That is called the wavelength.
A compression and a rarefaction create a sound wave. In a compression, air molecules are pushed closer together, creating a region of high pressure. In a rarefaction, air molecules are spread out, creating a region of low pressure. This alternation between compressions and rarefactions forms the basis of a sound wave.
In a transverse wave, particles of the medium oscillate perpendicular to the direction of wave propagation, like the up-and-down motion of a water wave. In a longitudinal wave, particles oscillate parallel to the direction of wave propagation, like the compression and rarefaction in a sound wave.
wavelength
In a longitudinal wave, the compression part refers to the region where particles are closely packed together, leading to an increase in pressure. This compression region is followed by a rarefaction, where particles are spread apart, resulting in a decrease in pressure. The alternation between compression and rarefaction causes the wave to propagate through the medium.
The wavelength of a sound wave is the distance between a compression (high pressure) or rarefaction (low pressure) and the next compression or rarefaction. It is the physical length of one cycle of the wave and is typically measured in meters.
That is called the wavelength.
A compression and a rarefaction create a sound wave. In a compression, air molecules are pushed closer together, creating a region of high pressure. In a rarefaction, air molecules are spread out, creating a region of low pressure. This alternation between compressions and rarefactions forms the basis of a sound wave.
Wavelength
the difference is a rarefaction needs vibration i believe i'mnot sure
In a transverse wave, particles of the medium oscillate perpendicular to the direction of wave propagation, like the up-and-down motion of a water wave. In a longitudinal wave, particles oscillate parallel to the direction of wave propagation, like the compression and rarefaction in a sound wave.
Because the Analyzed waves converted into the constant force of Consulted Created forces which Escalated into Formatted and Integrated power Maintained. With elctro programs Programmed to Supported the Troubleshooted magnetics causing it to explode with hydro power waves.
That is the wavelength.
Compression refers to the region in a sound wave where air molecules are pushed closer together, resulting in higher pressure. Rarefaction, on the other hand, is the region where air molecules are spread farther apart, leading to lower pressure. Together, compression and rarefaction create the alternating pattern of high and low pressure zones in a sound wave.
Rarefied air, for example is air that has been expanded to a large volume without the addition of more air into that volume. It has an extremely low density and lots of space in between molecules. Compression is the opposite. You are 'squishing' that same sample of air (or whatever gas you're talking about) into a very tiny volume, without allowing any to escape. It has a much higher relative density that rarefied air.