yes
The amplitude of a sound wave is a measure of the distance between the rest position and the maximum displacement of the particle from its rest position. It is equal to half the total displacement of a vibrating particle.
Sound travels faster through iron because iron is more dense than air, which means the particles in iron are bunched closer together. When a sound occurs, the vibrations bounce against the particles and then all the particles bounce against each other until the sound eventually bounces into your ear. It takes a shorter time for sound to travel through iron because the sound can bounce from particle to particle more quickly as there is a smaller distance between each one, whereas it takes longer through air as the distance between each particle is much larger. That's why if you are in space and talk (without a space helmet or anything) you wouldn't hear anything because there are no particles for the sound vibrations to bounce against. Hope this was helpful! :)
No, it will eventually be absorbed.No, it will eventually be absorbed.No, it will eventually be absorbed.No, it will eventually be absorbed.
Something = Vacuum
Usually, people are asking as if there is just "the" amplitude in sound waves in air. The loudness perception of a sound is determined by the amplitude of the sound waves − the higher the amplitude, the louder the sound. Which amplitude of sound (sound amplitude) do you mean? There are: amplitude of particle displacement ξ, or displacement amplitude amplitude of sound pressure p or pressure amplitude amplitude of sound particle velocity v, or particle velocity amplitude amplitude of pressure gradient Δ p, or pressure gradient amplitude. Furthermore, think of the amplitude of the oscillation of a string. The maximum magnitude of the deflection of a wave is called amplitude. Look at link: "What is an amplitude?"
They pass from particle to particle by vibrating the particle. When the particle touches another particle, it transfers the sound energy to that particle. Hence the Sound Wave.
They pass from particle to particle by vibrating the particle. When the particle touches another particle, it transfers the sound energy to that particle. Hence the Sound Wave.
The transduction of energy for receptor response depends on the energy being captured. In English, Eyes respond to light, Ears respond to sound.
wave
what are particle that show comparasons of the speed at wich sound will move throught matirials ? what are particle that show comparasons of the speed at wich sound will move throught matirials ?
Sound is a series of vibrations. In a solid they travel in waves from particle to particle, causing the solid to make a noise.
A receptor is generally a recognition molecule situated on the surface of a cell. A receptor is a molecule that is sensitive to a particular signal and is also able to transmit information to the nucleus in order to control gene regulation. In order for a receptor to function, it must first be activated. The binding of a ligand to the receptor places the receptor in the activated state. Once the receptor is activated, it is now able to transmit signal to the interior of the cell.
There is not only "one" amplitude. There is an amplitude of particle displacement ξ, or displacement amplitude, an amplitude of sound pressure p or pressure amplitude, an amplitude of sound particle velocity v, or particle velocity amplitude, an amplitude of pressure gradient Δ p, or pressure gradient amplitude. If the "sound" inceases, the "amplitude" also increases.
Sound wave's transmit energy and not matter because sound travels from particle to particle transferring only energy. That is why when sound travels only the energy travels and the particles just collide with each other but stay in their positions.
The amplitude of a sound wave is a measure of the distance between the rest position and the maximum displacement of the particle from its rest position. It is equal to half the total displacement of a vibrating particle.
Particle velocityparticle displacementpolarizationpressureplasmas
The cocheal contains receptor cells that convert sound vibrations into impulses that are sent to the brain.