An example of a mechanical longitudinal wave, or a compressional wave, is a sound wave. Another example is primary waves of an earthquake. Both travel through their respective medium, either air and Earth, while the particles constituting these mediums move in the direction parallel to the wave.Know More
A compression wave is a mechanical longitudinal wave. The longitudinal wave constitutes the movement of the compressed region of matter in one direction. The particles of which that matter consists, however, do not move along with the wave. They are displaced in the direction parallel to that in which the wave propagates.
To visualize a compressional wave in a nonwave example, picture a slinky toy. The compression of the spiral rings appears to be a wave traveling from one end of the slinky to another, while individual rings simply oscillate around their original points of rest.
The distance that sound can travel depends on what medium the sound wave has to go through. The speed of the wave affects the distance that it can travel. Temperature and atmospheric pressure also can directly affect the amount of distance a sound wave can cover.Full Answer >
Waves can travel through matter called a medium. This is true for mechanical waves that include sound, water and slinky waves. However, this is not the case for electromagnetic waves, which can travel through a vacuum.Full Answer >
A P-wave is a type of seismic wave that can travel through a continuum. A P-wave can also be referred to as a compressional wave, a primary wave or a pressure wave.Full Answer >
A wave’s amplitude is the distance measured from the rest position to the crest’s top or the trough’s bottom. On a wave diagram, the rest position is the central line. The wave’s crest is at its highest point while the trough is the lowest point.Full Answer >