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It depends upon the mass of the particles also. Assuming equal mass, then the slower moving particle gains some energy, and the faster moving particle loses energy. However, if the slower moving particle had greater mass, it could transfer energy to the faster moving particle.
The heaviestis the alpha particle.
In thermal equilibrium each degree of freedom of a physical system (like position x) has an expectation value for its energy of <E>=1/2 kB T, where kB is Boltzmann's constant and T is temperature. If you now measure the energy of the Brownian motion (e.g. <E>=1/2 k <x^2>, if it is a particle connected to a spring k with only degree of freedom x), you can calculate the temperature T=2<E>/k or T=k <x^2>/kB. In other words, the temperature can be determined from the Brownian motion x of the particle if the potential in which the particle is moving is well known. You could call this Brownian motion thermometry.
5. A particle is moving along the x-axis. The line graph shows the velocity of the particle over time. When is the instantaneous acceleration of the particle equal to 0?
An alpha particle is also considered a ray. It is a fast moving particle containing two protons and two neutrons.
The air particle with the greater force moves the other air particle in the general direction it was moving
In order for heat to be conducted, there have to be collisions between atoms or molecules, in which energy is transferred from a faster moving particle to a slower moving particle. In a vacuum there are no particles, hence, no particle collisions and no heat conduction.
Sure, like any moving and charged particle.
A wave is a a moving oscillation that transfers energy through a medium. A particle is an object.
electrons
Why the partical is not moving toward negative x-direction?
It can be hotter (and so be moving faster) F=ma