No , because the neutrons have the same particles as the nucleus.
No , because the neutrons have the same particles as the nucleus.
No, it cannot exist because without any neutrons, the protons will repel each other since the nucleus would have multiple positive charges.
Proton therapy uses protons, which are positively charged subatomic particles found in the nucleus of an atom. Hydrogen atoms, which consist of a single proton in their nucleus, are commonly used as the source of protons in proton therapy.
neutrons
The process of removing an electron from a stable nucleus is called electron capture. In this process, an electron is absorbed by a proton in the nucleus, converting the proton into a neutron and releasing a neutrino. This results in a more stable arrangement of particles in the nucleus.
Adding a proton to a gold nucleus would result in a more highly charged and thus more highly valued atom. This would change the element from gold to a different element with a higher atomic number, potentially leading to different chemical and physical properties.
Proton-rich nuclei typically undergo decay through processes such as beta-plus (β+) decay, where a proton is transformed into a neutron, emitting a positron and a neutrino. This decay reduces the proton-to-neutron ratio, helping the nucleus move toward a more stable configuration. In some cases, proton-rich nuclei may also undergo proton emission, where an excess proton is ejected from the nucleus. These decay processes help stabilize the nucleus by balancing the forces within it.
Such a nucleus would be unstable due to the Pauli Exclusion Principle requiring the protons to have anti-aligned spins and thus a negative binding energy which would force the protons apart. There has been some recent (2008) experimental evidence that suggests a Diproton, or Helium-2 nucleus, may exist for a fraction of a billionth of a second under certain conditions and may have a role to play in the creation of elements inside stars.
When a positron is emitted from a nucleus, a proton is converted into a neutron, which decreases the number of protons and increases the number of neutrons. As a result, the neutron-to-proton ratio increases. This process, known as beta plus decay, effectively transforms the nucleus into a more stable configuration by reducing the repulsive forces between protons.
It is in beta plus decay that we see the positron emitted from the nucleus. (An electron is emitted in beta minus decay.) Within the nucleus of an unstable atom, a proton transforms into a neutron, and a positron is ejected from the nucleus (along with a neutrino). As the nucleus now has one more proton than it did before, its atomic number just went up by one; it is another element.
This particle is the proton.
The nucleus is the densest region in an atom. Within the nucleus a neutron is more dense than a proton IF they have the same measures, which is not easily to tell.