yes but only in cases when the other variable equals the same.
No more than 10, as there are only five d suborbitals and each one can only hold two electrons at once.
The nucleus of an atom contains only protons and neutrons. Electrons orbit the nucleus.
yes
775 is the only number in all of math that equals 775.
i pretty sure there's only 1 pair of electrons on XeF6
there are two electons in the s sublevel. It is the number of electrons that fit in the first orbital around an atom.
1st orbit - 2 2nd orbit - 8 3rd orbit - 8 all together all three orbits can hold up to 18 electrons.
Because Helium, as the atom number 2, has only 2 protons in the nucleus, so the element He can 'hold' only 2 electrons in its prime K-orbit. However they should not be referred as 'valence' electrons, because they don't participate in valency (= capable of bonding): the K-orbit is stable and filled up and can NEITHER collect more electrons from NOR it will provide its own pair of electrons to other elements thus making it inert (Helium is a 'nobel' gas)
Because the shell can only hold eight electrons. check
hydrogen (H) and helium (He)
Helium has only two electrons, and they share one orbital (forming a complementary pair).
Each inner energy level of an atom can hold a maximum number of electrons. Electrons orbit around the nucleus of an atom in shells. Each shell has a set maximum number of electrons it can hold, and the shell has to be completely filled before electrons can start filling up the next shell.
The outermost ring of hydrogen, or the first energy level, can only hold a maximum of 2 electrons.
The first shell of Neon, known as the K shell, can only hold two electrons. The first shell of any chemical element can only hold two electrons.
Yes a single orbital in the 3d level can hold 2 electrons.
In a chemical reaction only electrons are removed because they are in the outer orbit rather than the nucleus and so it is more energetically favorable for them to be removed.
This particle is the electron moving in it's orbital " around " the nucleus.