high sound particles are near, and low sound as far apart particles.
Yes, they do. Sound waves move fastest through solids, less fast through liquids, and slowest through gasses. This is because the molecules of solids are closer together, while those of gasses are further apart, creating more space that the waves must jump to move.
In a longitudinal wave, the particles do not move with the wave. The particle movement is parallel to the direction of the wave propagation. This means that the particles move left and right which in turn makes the other particles start to oscillate. This creates a wave. longitudinal pressure waves are also known as sound waves.
Sound can only occur where there is "matter". It is created by the atoms of the matter vibrating against each other in a wave form. This can occur where ever there is matter; air, wood, water, metal etc. It can not occur where there is no matter; space, a vacuum.
The dispersion relationship depends on the medium through which the waves propagate and on the type of waves (for instance electromagnetic, sound or water waves). For sound waves, the denser a medium is, the faster the waves will travel as particles will be closer together and thus energy can be transferred among them at a greater rate.
compression
When sound particles are close together, it is called compression. This occurs during the peaks of a sound wave, where air molecules are densely packed together.
The part of a sound wave where particles are bunched together is called compression. This is the region where air particles are pushed close together, creating an area of higher pressure.
Longitudinal waves push particles together by compressing them and spread them apart by rarefying. Sound waves are an example of longitudinal waves.
Compression.
you see. the denser the medium, the faster the sound travels. imagine a gas, particles are far apart transferring sound energy/waves will not be so fast. imagine a solid, like metal particles are close together, sound travels faster since it is transferred easily
A sound wave travels through a medium in alternating areas of compression and rarefaction. In compression, particles are close together, while in rarefaction, particles are spread farther apart. This alternation creates the oscillating pattern that transmits sound energy.
These waves are called sound waves. Sound waves are mechanical waves that travel through a medium, such as air or water, in the form of compressions (areas where particles are close together) and rarefactions (areas where particles are spread apart).
Sound travels through particles by creating a series of compressions and rarefactions as the sound wave moves through the medium. In a diagram, you would see particles close together during compression, where the pressure is higher, and particles further apart during rarefaction, where the pressure is lower. This movement of particles transmitting energy from one particle to the next allows sound to propagate through a medium.
This question is misguided. It is not the sound waves which are apart, but the particles of the medium. A place where the particles are further apart is called a rarefaction. Where they are crowded together is called a compression.
In a sound wave, particles are closer together in the regions of compression, where the pressure is higher due to the vibration of the medium. These compressed regions are followed by rarefaction, where particles are further apart. This alternating pattern of compression and rarefaction creates the characteristic oscillating motion of a sound wave.
Sound is a mechanical wave. It requires a medium for propagation. Since the particles in a solid are close together, the sound energy is propagated way faster in solids rather than liquids and gases whose particles are not as close.
In a sound wave, compression refers to the region where air particles are close together, creating a high pressure area. Rarefaction, on the other hand, is the region where air particles are spread apart, creating a low pressure area. These compressions and rarefactions propagate through the medium, carrying the sound wave energy.