Why do accelerated electrons radiate energy, i.e., in particle accelerators, and do they lose their effective mass as a result?

There are two methods to explain physics questions: the energy method and the force method. Although the force method is intuitive and simple, it is difficult mathematically when there are many particles. Due to the scalar nature energy, which is more detailed than the vector nature forces, the energy method can be used to perform large numbers of interactions.

The force method is the best way to find out the answer. Because of the infinite range of electric force, you can move one electron. This affects all electrons around you. Accelerating something is impossible, so acceleration=change of velocity is part and parcel of the process. You can alter the velocity by changing its magnitude or direction, since velocity and forces are vectors. For example, electrons radiate from a circular particle accelerator even though their velocity is constant because of the continuous change in direction. The magnitude of the velocity change due to forward and backward accelerations or oscillations causes electrons in an antenna, cavity or other structures to radiate.

Two non-moving electrons feel the electrostatic force. They experience the magnetic force when they move at a constant velocity. The magnetic force is an electrostatic force that has been modified by the motions of the particles. It also takes into account the fact that all forces travel at the same speed in vacuum, and not at any instant. The electric and magnetic forces decrease as the inverse square of the distance between two particles. However, the magnetic force is proportional to the relative velocity and normal it. Acceleration is produced when the motion is not constant. This modifies the forces further, creating the radiation force. This decreases as the velocity or acceleration changes and is proportional to the distance between them. Motion and delay in propagation of forces are responsible for all this.

It is clear that the forces between electrons are always there. They can change from static to magnet to radiative depending upon whether the velocity is constant, changing with time, or zero. Radiation does not change the electron’s mass. Because the electron is pushed into the first place by another, it changes its position. This energy provides the energy to radiate (or’magnitate) other electrons and cause them to move. An antenna’s electrons, for instance, get their energy from an electric generator or the driving electronics.

Apart from one small problem, the explanation above is easy to understand and follow. What is the reason that electrons move in a delayed manner? This can be a problem because the delay can last thousands of years, just like the light from distant galaxies. This is why we use the energy method to explain it. We refer to radiation as evaporated matter, and matter as condensed radioactive radiation. Radiation travels in empty space just like other matter. It has the maximum speed c and is always at rest. We can’t catch up with radiation to see it at rest. Radiation is made up of three perpendicular vectors: electric force, magnet force and momentum (force). Radiation is the only form of energy, and all other forms of energy are just radiation. Every mass is condensed radiation. Radiation or energy is therefore the only substance in our universe.

When we accelerate an electron, we just inject it with radiation through the electronic circuit. The radiation causes it to move due to the increase in momentum. The electron simply loses any radiation it has absorbed before it decelerates. Although the electron is (condensed radiation by itself), it is still tightly bound and loses only the radiation it absorbed previously. However, if you can destroy an element by placing a positron near it, then the result is pure radiation. This process can be repeated infinitely without any losses.


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