Yes for both, but it does attenuate significantly on entering gas.
Yes, a P-wave can travel through gas. P-waves are seismic waves that are the fastest and can travel through solids, liquids, and gases. They compress and expand the material they travel through, which allows them to propagate through gases as well.
The molecules must be close enough to touch. They can travel through solids, liguids, and gases.
Sound waves travel slower through gases than they do through solids. This is due to the lower density and elastic properties of gases compared to solids, which affects the speed of sound propagation through the medium.
pressure waves longitudinal waves
Sound waves travel slower through gases than through solids due to the lower density and larger spacing between particles in gases, which results in reduced collision frequency and slower propagation of the wave.
Sound waves travel slower through gases than through solids. This is because gases have lower density and stiffness compared to solids, which affects the speed of sound waves traveling through them.
Seismic waves travel faster through solids than through gases. This is because solids have a higher density and greater intermolecular forces, allowing the waves to propagate more efficiently.
No. S-waves (also known as secondary waves) can only travel through solids, not liquids or gases unlike the P-waves.
Seismic waves, such as primary (P-waves) and secondary (S-waves), travel faster through solids than through gases. This is because solids have a higher density and rigidity, allowing the waves to propagate more quickly.
Sound waves travel slower through gases compared to through liquids and solids because gases have lower density and less stiffness, which hinders the transfer of mechanical energy.
Solids because in solids the velocity of sound is not unique, for example a shear wave will travel at a different velocity (higher) than a pure compression wave. As a matter of fact flexural waves do not have a well defined velocity as they are dispersive ... the frequency of the wave changes with displacement. Furthermore in two and three dimensional waves in solids the propagation area changes with distance so that a characteristic impedance cannot be defined and the wavelelength (but not the frequency) change during propagation. Therefore you will need to define the type of wave in solid before you can ask if a faster wave is possible.
Yes