A proton is heavier than an electron, but, how much heavier is a proton than an electron. It’s possible to calculate the mass of a proton by examining how it behaves in an atom. The number of protons found in the nucleus of an atom determines what type of element it is, while the number of electrons orbiting the nucleus reveals its chemical properties.
How much heavier is a proton than an electron
A proton’s mass is 1,836 times that of an electron. While this may seem like a huge difference, their charges are equal in magnitude, so they have the same weight when considering them on atomic level.
It is estimated that the mass of an electron is 9.1093837015 * 10-31 kg, which is only 1/1,836 the mass of a proton. Furthermore, the mass of an electron is 1,836 times the mass of a proton, as it is 1.67262 10-27 kg. The mass of a proton is estimated to be 1.67262 10-27 kg.
Strong nuclear force and electromagnetism are the two fundamental forces of the universe, which operate on smaller scales than we can see. Defending the nuclei from breaking apart is the responsibility of the Strong Nuclear Force (also known as the Strong Force). The strong nuclear force within a nucleus signifies only that it works on the strong nuclear force between protons and neutrons, meaning that there is no other effect on other materials.
Gluons, which are magnetically bound quarks, are a component of the Strong Nuclear Force, and they are these quarks that carry the energy. As the carrier of electromagnetic forces, photons are thought to be similar to gluons, which are thought to be similar in nature to gluons. Gluons are unlike photons in that they are not capable of traveling at the speed of light; they can only move at a speed that is comparable to the speed of other quarks within a nucleus.
Electrons are one of the most important particles in physics. They are so small that even an electron microscope cannot provide a clear picture of them….
In order to keep nuclei together, the strongest force and that acts on the electromagnetic force is called the strong nuclear force. Nuclei are the only objects that are affected by the electromagnetic force; there are no objects outside of them.
Although they are much simpler than photons, gluons have a great deal of complexity to them. In general, gluons are thought of as powerful nuclear force carriers because they carry the strong nuclear force. There is no electromagnetic force that interacts with other types of matter; the electromagnetic force acts purely on the quarks inside an atom. This nuclear force is responsible for the decay of nuclei (also referred to as the Weak Nuclear Force). W bosons mediate this force, which is acted upon by all matter.
Nuclei can only be affected by the weak nuclear force within them; they cannot be affected by it in the surrounding environment. Unlike the atomic force, which acts solely within a nucleus, the electromagnetic force does not reveal its effect outside the nucleus. In addition to contributing to the decay of nuclei, the weak nuclear force utilizes the forces between quarks to hold them together. https://youtu.be/6mkbLsFMNeY
Mr. Jahangir Alam is an Electrical & Electronics Engineer with a wide range of experience in several fields of Engineering. He finds engineering articles to be very interesting, and that is why he likes to write them. To know more about him, please click here.