Mass and energy always have locations in both time and space; the amount of space that they take up depends upon their density, but they do take up some. Since energy is often associated with matter (heat, kinetic energy etc.) it would be the matter that takes up the space. The energy would be in the same space as the matter. But energy can also exist independently of matter (such as a photon of light travelling in space) and in that case, the energy takes up space.
To "transport" energy means to take the energy from one place to another. Waves are capable of doing that.
To, find the energy that the first wave carries. This is given by: 2(A^2), where A is the amplitude of the function. Your first wave is: 2(0.5)^2 = 2(.25) = 0.5, so its energy is 1/2. Compare that to the energy of A=1 m: 2(1)^2 = 2(1) = 2 The energy increased by a factor of 2^2 (that is, 4), so we take the difference: dE = E[final] - E[initial] dE = 2 - 0.5 = 1.5 Energy of the 2nd wave (probably sinusoidal as a guess) is greater by 1.5 J.
It does, in the form of matter. E = m*c2
Yes, but not all particles have to have mass. remember that those particles (photons... etc) aren't matter at all but gauge bosons. Gauge bosons occupy a single zero-dimentional point (except for when it's a wave; see particle-wave duality), because they have no mass, and thus don't take up space.
Energy takes up no space, at all.
Mass and energy always have locations in both time and space; the amount of space that they take up depends upon their density, but they do take up some. Since energy is often associated with matter (heat, kinetic energy etc.) it would be the matter that takes up the space. The energy would be in the same space as the matter. But energy can also exist independently of matter (such as a photon of light travelling in space) and in that case, the energy takes up space.
Matter does not take up less space when energy is added to it. This is because energy is not a physical unity and therefore it does not interfere with the occupancy of space by matter.
Energy
chemical energy
Anything that has mass and takes up space is matter. Energy is not matter because it does not have mass nor does it take up space. Pretty much everything else is matter.
A wave moving over a reef is a good example. If you can sit on a jetty and take the visual position that the wave ie the water comprising the wave, isn't moving to any great extent, an energy wave is moving through the water away from its source. The energy is causing the water molecules to be pushed closer together in a given horizontal space. The water is limited in where it can move by the sea floor and/or the water pressure at deeper depths, the pressure wave from the direction of source and gravity. The combined effect propogates the wave in a specific direction at a specific speed and height according to Newton's Laws.
Anything that has mass and takes up space is matter. Energy is not matter because it does not have mass nor does it take up space. Pretty much everything else is matter.
To "transport" energy means to take the energy from one place to another. Waves are capable of doing that.
No. Matter is anything that has mass and takes up space (has volume). Energy has no mass and does not take up space, therefore it is not matter.
No. Matter is anything that has mass and takes up space (has volume). Energy has no mass and does not take up space, therefore it is not matter.
lots