The atoms together must have a total of 8 electrons; there are exceptions, such as helium only needing two.
octet rule
yes, with either ionic bonds or covalent bonds
The octet rule in the study of chemistry states that atoms combine in such a way as they each have eight electrons in their valance. The electrons shared by two atoms in a covalent bond are counted twice.
Yes, because all atoms must have 8 electrons around it. (Full valence orbital)
The elements can be described by dot structure. Metals combine with other elements to make its octet complete.
octet rule
The octet rule is a simple chemical rule of thumb that states that atoms tend to combine in such a way that they each have eight...
they enjoy making love to oxygen atoms
yes, with either ionic bonds or covalent bonds
The octet rule. I have the same worksheet.
The ocect rule deals with Lewis dot structures. Once you have drawn a correct Lewis dot structure, the central atom should have 8 electrons around it including the bonds with the other atoms.
Any atoms in groups 1-3 will bond ionically by giving up its outer shell electrons and becoming a cation. Atoms in groups 15-17 will receive these electrons and become anions. Noble gasses already have a complete outer shell, and semi-conductors/metalloids are usually reluctant to become ions.
The octet rule is a simple rule of thumb that states that atoms tend to combine in such a way that they each have eight electrons in their valence shells, giving them the same electron configuration as a noble gas. The rule is applicable to the main-group elements. In simple terms, molecules or ions tend to be most stable when the outermost electron shells of their constituent atoms contain eight electrons
The octet rule in the study of chemistry states that atoms combine in such a way as they each have eight electrons in their valance. The electrons shared by two atoms in a covalent bond are counted twice.
It does follow the octet rule!
It shows they are Christians
Yes, because all atoms must have 8 electrons around it. (Full valence orbital)