The process which describes the splitting of a large unstable atom into two intermediate size atoms and extra neutrons is called nuclear fission. Nuclear fission is a nuclear reaction or a radioactive decay process.
Nuclear Fission
Nuclear fission
The strong nuclear force doesn't balance the electrostatic force.
the absorption of a free-moving neutron by the atom's nucleus
Neutrons!
Radioactive elements are ones that have too many or two few protons and/or neutrons to achieve stability. For any normally stable isotope, adding or removing neutrons will make a different isotope, and can easily result in an unstable nucleus.
An element undergoing radioactive decay could expel an alpha particle from its nucleus. An alpha particle is made up of 2 protons and 2 neutrons. This could make it more stable by changing the ratio of protons to neutrons in its nucleus. Generally speaking, if the ratio of protons to neutrons is greater than 1:2.5, the nucleus is unstable, and you're probably dealing with a radionuclide.
Nuclear fission
Fission to be more specific its nuclear fission...
An unstable ratio of protons and neutrons.
An isotope with too many neutrons can be unstable for example Hydrogen-3 is unstable while hydrogen-1 and 2 are stable. But so can one with too few neutrons, for example lead-204 is unstable while lead-206, 207, and 208 are stable.
Hydrogen-1 (protium):1 proton, 0 neutrons (stable) Helium-2 (diproton): 2 protons, 0 neutrons (unstable - short half-life) Helium-3: 2 protons, 1 neutron (stable) Lithium-4: 3 protons, 1 neutron (unstable - extremely short half-life) Lithium-5: 3 protons, 2 neutrons (unstable - extremely short half-life) Beryllium-5: 4 protons, 1 neutron (mostly theoretical, unstable, extremely short half-life if formed) Beryllium-5: 4 protons, 2 neutron (unstable - extremely short half-life) Beryllium-5: 4 protons, 3 neutron (unstable - extremely short half-life) Boron-6: 5 protons, 1 neutron (mostly theoretical, extremely short half-life if formed) Boron-7: 5 protons, 2 neutron (unstable - extremely short half-life) Boron-8: 5 protons, 3 neutron (unstable - short half-life) Boron-9: 5 protons, 4 neutron (unstable - extremely short half-life) Carbon-8: 6 protons, 2 neutrons (unstable - extremely short half-life) Carbon-9: 6 protons, 3 neutrons (unstable - short half-life) Carbon-10: 6 protons, 4 neutrons (unstable - short half-life) Carbon-11: 6 protons, 5 neutrons (unstable - short half-life) Nitrogen-10: 7 protons, 3 neutrons (unstable - extremely short half-life) Nitrogen-11: 7 protons, 4 neutrons (unstable - extremely short half-life) Nitrogen-12: 7 protons, 5 neutrons (unstable - short half-life) Nitrogen-13: 7 protons, 6 neutrons (unstable - short half-life) Oxygen-12: 8 protons, 4 neutrons (unstable - extremely short half-life) Oxygen-13: 8 protons, 5 neutrons (unstable - extremely short half-life) Oxygen-14: 8 protons, 6 neutrons (unstable - short half-life) Oxygen-15: 8 protons, 7 neutrons (unstable - short half-life) Fluorine-14: 9 protons, 5 neutrons (unstable - extremely short half-life) Fluorine-15: 9 protons, 6 neutrons (unstable - extremely short half-life) Fluorine-16: 9 protons, 7 neutrons (unstable - extremely short half-life) Fluorine-17: 9 protons, 8 neutrons (unstable - short half-life) Neon-16: 10 protons, 6 neutrons (unstable - extremely short half-life) Neon-17: 10 protons, 7 neutrons (unstable - extremely short half-life) Neon-18: 10 protons, 8 neutrons (unstable - short half-life) Neon-19: 10 protons, 9 neutrons (unstable - short half-life) ... and the list goes on
The strong nuclear force doesn't balance the electrostatic force.
I, too, also had this questions. After SEVERAL minutes of surfing the world wide web, I found that it is the number of neutrons that determine whether a nucleus is stable or unstable. I hope this helps you! ;)
Increasing the ratio neutrons/protons in the nucleus the atom become unstable.
The nucleus would become unstable because you need a certain amount of neutrons, electrons, and protons for it to be stable.
an unstable structure formed during the process of reactiom and is later converted to products
strong force
yes