Yes. Think of a loudspeaker cone moving back and forth. When the speaker moves one direction, it compresses the air in front of it. The compression propagates away at the speed of sound. When the speaker cone moves the other direction, it generates a rarefaction, and that disturbance also moves at the speed of sound. So a "push" gives a compression wave, and a "pull" give a rarefaction wave. It works in the ground pretty much the same as it does in air.
A deshawn wave!
When the wavelength of a wave gets higher the speed decreases. This is a studied in science.
As wavelength decreases the wave diffraction will decrease, so the curve formed will be less noticeable. The sharpness of the diffraction will decrease that you can see will lessen.
soundyes sound travel in a straight line What Sound Looks LikeThe answer is yes and no. If you drew a line from the source of a sound to where you were when you perceived it, it would appear to be a line.However, upon further analysis (the depth of that depending on the sound you are looking at), you would see that it actually travels in a wave form, having an amplitude, frequency, wave length, period and speed.Does sound travel in a straight line?No, sound travels in a wave, therefore it does not travel in a straight line. It does travel in a line, just not a staright one
The density of air increases and then decreases as the sound wave passes.
The source that emitted the sound wave.
The amplitude of a wave typically decreases as it moves away from its source. This is due to the spreading out of the wave energy over a larger area as it propagates. Factors such as distance, intervening materials, and absorption can also affect the amplitude of the wave.
As a wave source moves towards an observer, the pitch of the wave increases. This is known as a Doppler shift, where the frequency of the wave appears higher due to the relative motion between the source and the observer. Conversely, as the source moves away from the observer, the pitch of the wave decreases.
The intensity of sound decreases as you get farther away from the source. This is because sound waves spread out in all directions, causing energy to be distributed over a larger area.
When a wave source is moving towards an observer, the pitch or frequency of the wave increases, known as a Doppler shift. This occurs because the waves are reaching the observer at a faster rate due to the source moving closer. Conversely, when the wave source is moving away from the observer, the pitch or frequency decreases.
The energy in waves decreases as they travel further from the source due to spreading out over a larger area. This process is known as wave attenuation or wave dissipation. As a result, the intensity and amplitude of the waves decrease with distance from the source.
Intensity decreases when the energy of the wave is spread out over a larger area or when the amplitude of the wave decreases. This can happen due to factors such as distance from the source, absorption by the medium, or the spreading out of the wave as it propagates.
Waves decrease in amplitude as they radiate because their energy is spread out over a larger area as they travel away from the source. This phenomenon is known as wave attenuation, and it occurs due to factors such as absorption, scattering, and dispersion in the medium through which the wave is traveling. As a result, the wave loses intensity and its amplitude decreases.
It is because the epicenter decreases their strenght as it is closer to it
It depends if its transverse or longitudinal.
Nothing. If the frequency of a wave depended on its distance from the source, then . . . -- The key of the marching band would change as it passed you in the parade. -- So would the colors on the flag.
The angle of the V-shaped shock wave, known as the Mach angle, decreases as the speed of the wave source increases. At very high speeds, the shock wave becomes nearly perpendicular to the direction of motion of the source, creating a more narrow V shape.