yes, but their properties differ with binding strength and density
yes they do, and through gases too
yes
yup
s waves
electric current through your nerves and/or muscles, especially through your heart
P-waves are also known as seismic waves. One of the characteristics of P-waves are a that they can travel through a continuum made up of gases, liquids and solids such as the Earth. Another characteristic of P-waves are that they can shake the ground in the same direction in which the wave is moving and it can also shake the earth in the opposite direction of the moving wave.
when you get zapped in the supermarket by your trolley it sends a little bit of energy through the metal in the trolley to your body, and if you get shocked by lightning you get a big shock of energy. but with a metal door handle it is exactly like the shopping trolley and it will send a shock of energy through the metal to your body. i hope this helped as i am only 13 :)
Earthquakes produce "seismic" waves. These can be split into two main types: Body Waves and Surface Waves. Body waves consist of P-waves (compression or longitudinal waves) and S-waves (shear or transverse waves). P-waves can go through solid, liquid, and gas forms but S waves can only travel through solids. The P waves reach seismic stations quicker than S waves as they travel at a greater speed. Surface waves travel more slowly than Body waves and there are two main types: The Rayleigh and Love wave.
a after shock is what happens after a earthquake
Waves can travel through many media, depending on their nature. Sound waves can go through solids, liquids and gases. Transverse shock waves can only travel through solids. Electromagnetic waves can go through some solids, liquids or gases, or through a vacuum.
Generally applies to gases, reducing the volume by doing work on the gas raises its pressure. Elastic solids can be compressed, but liquids are usually not compressible.
2 examples of compression are a child's pogo stick and a cars shock absorber .
R. A. Graham has written: 'High Pressure Explosive Processing of Ceramics (Materials Science Surveys, No 4)' 'An introduction to the genealogy of the descendants of William Graham' -- subject(s): Family, Genealogy 'Solids under high pressure shock compression' -- subject(s): Materials at high pressures, Shock (Mechanics)
L. W. Davison has written: 'Fundamentals of shock wave propagation in solids' -- subject(s): Shock (Mechanics), Solids, Continuum mechanics 'Patagonia austral' -- subject(s): Description and travel
Compression waves, like a shock front.
Pressure is transmitted through liquids in the form of longitudinal waves of partial compression. In extreme cases, this takes the form of a shock front that pushes the liquid in front of it as energy propagates in the direction of the shock front's motion.
Rebound.
Actually, rubber is not a good shock absorber, for it is an elastic material and does not store or dissipate much energy. Air or other gas is the useful principle in car shock absorbers, where the lossy characteristics of air compression are used to absorb energy. Forcing oil through a small hole is also used for the same purpose.
The speed of sound is constant in solids, liquids and gases. If something happens in such a medium the mechanical energy of it can propagate only at the speed of sound. If something is traveling through the medium faster than the speed of sound then it is pumping energy into a wave that contains more energy than what the simple passage of the object contains. This is the sonic boom hear by passing jet aircraft.
Reynold A. Shunk has written: 'Shock formation from strong compression waves'
Yibin Fu has written: 'Propagation of weak shock waves in nonlinear solids'