Electrons and protons do interact with each other in that the electrons are pulled towards the positively charged nucleus of the atom (positive attracts negative). Because of the force generated from this interaction, energy is required to remove an electron from an atom (ionization energy).
The electrons of an atom are arranged into shells of varying energy around the nucleus and can interact with electrons in other elements to form bonds that can be covalent or ionic.
A particle will annihilate with its antiparticle. An antiparticle is the opposite of the particle in all respects - not just the electric charge. The antiparticle of an electron is an anti-electron, also known as positron; the antiparticle of a proton is called an anti-proton.
Normally, atomic particles are kept separated by their repulsion of each other. Still, electrons (negative charge) and protons (positive charge) are ATTRACTED to each other. So they would, in effect, try to get closer to each other.
However, sub-atomic particles are NOT like little ball bearings -- when they get close to each other they do NOT collide. For these two particles, they actually don't do anything at all when they get close. Leptons (electrons, neutrinos) simply do not interact with hadrons (protons, neutrons) in our Universe, other than the electro-magnetic interaction. In our Universe, an electron within the electric field of a nucleus will go into one of a few permitted energy states, and stay there until some interaction causes it to go into another permitted state. If, while in this permitted state, it gets close to the nucleus, it simply exists there for a short time -- with no interaction with the nucleons there -- and then heads to another location.
1st answer:
Because in an atom, the number of electrons equals the number of protons, so positive and negative charge are equal so they cancel out each others effect and attain equilibrium.
2nd answer:
The above might apply to other electrons which come in addition to the electrons of the the neutral atom. But the questions concerns the latter. These are indeed attracted by the protons(!) of the nucleus. That's why they stay there and don't "go away".
In the "classical" Rutherford-Bohr model, the attraction is compensated by the centrifugal force arising from orbital motion around the nucleus.
But this model is not realistic. In reality, to explain subatomic phenomena correctly, equations of quantum mechanics have to be used. Point-like electrons are to be replaced with probability distributions, which are found as solutions from Schrödinger equations. The probability to find an electron is indeed growing as the distance from the nucleus decreases.
Electrons in an atom are similar to Earth in our solar system. The electrons are moving fast enough to not be pulled in by the protons, but slow enough that they can't escape from the atom. Creating elliptical patterns similar to planets.
In short: The question is ill posed, since they areattracted.
For more detailed discussions, see the existing answers to
no electrons not attract protons because the spin of electrons is very fast around the nucleus
They may stick if require conditions are available for example the formation of a neutron star.
They do attract, but they will not collide because the probability of finding an electron in the nucleus approaches zero as the distance from the nucleus approaches zero.
Protons and electrons cannot be disintegrated.
the protons are positively charged that's how you know if it is a proton or an electron because a electron has a negative charge
16 protons and 18 electrons
16 protons and 18 electron
electrons are in orbits protons are in nucleus an electron keeps revolving in the orbit because of force of attraction but this electron cannot come into the nucleus where proton and neutron reside.
LHC will collide protons into protons at a center of mass energy of about 14 TeV
They do attract, but they will not collide because the probability of finding an electron in the nucleus approaches zero as the distance from the nucleus approaches zero.
no lo c ponte a leer y haci lo sacas
The electromagnetic force (protons are positive and electrons are negative, so they attract), which is manifested into Coulomb's force of attraction. The reason that electrons will not fall into the nucleus is due to the electron's energy; it is moving fast enough to not collide with the nucleus.
The energy of a vibrating electron that does not collide with neighboring atoms has energy that is emitted as light. The energy will be radiated away.
Protons and electrons cannot be disintegrated.
Electron's have a negative charge, Protons have a positive charge.
A proton is positive and an electron is negative Protons are approximately 1,835 times the mass of the electron. Protons are in the nucleus. Electrons are in the 'shells'.
Leptons (such as electrons) and hadrons (such as protons) have almost no interactions between themselves beyond the electro-magnetic force. No matter how close an electron got to a hadron, nothing would happen. They definitely would NOT destroy each other.
the protons are positively charged that's how you know if it is a proton or an electron because a electron has a negative charge
The Weak Force is stronger than the Electromagnetic Force at the range of an atom, and therefore they do not collide.