Yes, the electron configuration of all noble gases (except Helium), Neon, Argon, Krypton, Xenon, and Radon ends in s^2 p^6 because all of those elements (except Helium) have 8 valence electrons, which entirely fills up the outer shell. They are stable elements and don't react too much in general. The superscripts in the configuration add up to the total amount of electrons in a neutral atom the element (equal to the amount of protons, the atomic number), so to find the number of electrons in the outer shell, which are the valence electrons, you add the superscripts from the highest principal quantum level (1, 2, 3, 4, and so on) only in the s and p sublevels. For example, the configuration of Neon is 1s^2 2s^2 2p^6, and if you add the 2 and the 6 superscripts from the highest principal quantum level (2), you get 8 valence electrons.
All group 18 noble gases have a completely filled outer electron shell, which gives them stability and inertness. Their electron configurations end in s2p6, meaning they have a full s orbital and a full p orbital in their outermost shell.
Except for helium, whose valence configuration is 1s2, the valence configuration for the rest of the noble gases consists of the highest energy level s2p6 configuration, for a total of 8 valence electrons. The highest energy level corresponds to the row number on the periodic table. So, radon, at the end of row six, has a valence configuration of 6s26p6.
When an electron is acquired by a neutral atom, the energy change is called electron affinity. Neutral atoms with an s2p6 electron configuration in the highest energy level are best classified as gases.
All noble gases have the electron configuration s2p6.
Noble gas envy is a fun term used to explain how all the elements on the periodic table want to "look like" the Noble gases. Why? Because noble gases have an outer electron configuration of s2p6 - their outer s and P subshells are full with 8 electrons. This is a stable state. The other elements will either lose, gain or share electrons with other elements to attain 8 outer electrons. Example element 9 is fluorine with 9 total electrons, but it's outer shell only has 7. It will gain an extra electron to "look like" Neon, which has 8 outer electrons. Fluorine is still fluorine, but now it has a -1 charge and is a fluorine ion. Metal elements will lose electrons until they have only 8 outer shell electron and become positively charged.
All group 18 noble gases have a completely filled outer electron shell, which gives them stability and inertness. Their electron configurations end in s2p6, meaning they have a full s orbital and a full p orbital in their outermost shell.
8 outer electrons s2p6
Except for helium, whose valence configuration is 1s2, the valence configuration for the rest of the noble gases consists of the highest energy level s2p6 configuration, for a total of 8 valence electrons. The highest energy level corresponds to the row number on the periodic table. So, radon, at the end of row six, has a valence configuration of 6s26p6.
When an electron is acquired by a neutral atom, the energy change is called electron affinity. Neutral atoms with an s2p6 electron configuration in the highest energy level are best classified as gases.
All noble gases have the electron configuration s2p6.
Noble gas envy is a fun term used to explain how all the elements on the periodic table want to "look like" the Noble gases. Why? Because noble gases have an outer electron configuration of s2p6 - their outer s and P subshells are full with 8 electrons. This is a stable state. The other elements will either lose, gain or share electrons with other elements to attain 8 outer electrons. Example element 9 is fluorine with 9 total electrons, but it's outer shell only has 7. It will gain an extra electron to "look like" Neon, which has 8 outer electrons. Fluorine is still fluorine, but now it has a -1 charge and is a fluorine ion. Metal elements will lose electrons until they have only 8 outer shell electron and become positively charged.
Noble gases or inert gases have electron configurations that are very stable. Helium 1s2 Neon [He] 2s2 2p6 Argon [Ne] 3s2 3p6 Krypton [Ar] 3d10 4s2 4p6 Xenon [Kr] 5s2 4d10 5p6 Radon [Xe] 4f14 5d10 6s2 6p6 Helium has a full energy shell, as does neon. The rest have partially filled outer shells but with the s2p6 configuration seen in neon (the "octet") What this tells you is that He, Ne should be really stable but that the others may be persuaded form compounds, if you tried hard enough. Compounds of xenon were the first to be made in the 1960s, the xenon fluorides. Compounds for Krypton are known and very recently some really unstable compounds of Argon.
Atoms that have a full outer shell do not bond easily with other substances.This question could be changed into "What are some of the elements that form bonds easily because it does not have a full outer shell", in which case the answer would be iron, copper, hydrogen, ect. The other possible question is "What are some of the elements that don't form bonds easily because it has a full outer shell". In that case, the answer is helium, argon, krypton, neon, and a few others.group 18 is the noble gases and cotains all gaseous elements such as:helium(He), Neon(Ne), Argon(Ar), an krypton(Kr), among others. these elements are considered non_reactive elements because they have a full outer shell of electrons making their atomic structure very stable
A valence electron is an electron in the outer shell (or cloud or orbital as it is sometimes referred) farthest away from the nucleus. These are the electrons that are transferred or shared in chemical bonding. (A "full" outer shell refers to atoms with (usually) 8 electrons in its outer shell.)
Half-filled orbitals are quite stable because of the electrons' spins being aligned; they resonate and so are stabilised. The same occurs in completely filled shells, except the spins are balanced and negated by the equal numbers spinning in opposite directions; there is no unbalance, and so the orbital is even more stable.