The Question will be broken down into small pieces for those who don't have a strong chemistry background.
Definitions:Valence electron: is the number of electrons on the outer shell of an element.Electron Configuration: is the arrangement of electrons in an atom, molecule, or other physical structure.
To Determine the Number of Valence Electrons: we look at the Periodic Table(see Periodic Table) to get a general idea. Elements that contain:
1 valence electron falls under Group 1
2 valence electrons falls under Group 2
3 valence electrons falls under Group 13
4 valence electrons falls under Group 14
5 valence electrons falls under Group 15
6 valence electrons falls under Group 16
7 valence electrons falls under Group 17
8 valence electrons falls under Group 18
Note: Elements from Group 3-12 fall under a special category
To Determine Electron configuration: We go back to the Periodic table but instead look at the Electron configuration(see Electron Configuration) We noticed that each element falls under a "block". The blocks consists of either a: S block, P block, D block, and F block. This is used to help determine the electron notation of a particular element. An example of a notation for He(Helium) is as follows:
1S2
Where....
The coefficient( the number before the letter): is the sub-block of the four main "spdf" blocks. Each sub-block is considered a different "shell"
The "spdf" block(the letter): is which of the four main "blocks" of the Periodic table
The Subscript(the number below the letter): is the place within the "shell".
The order of which we write the configuration depends on where that block appears in the periodic table. We follow the Atomic number starting from 1 and working your way up till the element you wanted the notation for. Once a shells (the Subscript) is filled(S's fill with 2, P's is 6, D's are 10, and F's with 14) then you shift to the next shell.
Example: Beryllium (Be)
1S2 2S1
When you go to another shell you still add the previous shells and continue to the next one. The order of which the shells fill up is as follows: 1S, 2S, 2P, 3S, 3P, 4S, 3D, 4P, 5S, 4D, 5P, 6S, 5D1, 4F, 5D2-10, 6P, 7S, 6D1, 5F, 6D2-10.
Now that the order is established now we can determine the relationship between the two.
As the valence electrons fills the outer shell, it also fills the subsequent shells in the electron configuration. Each Valence electron helps to fill up the Electron configuration shells and the valence electrons helps to determine which shell to fill up. There's a more scientific term that i don't know about but if anyone can add on to this that would be great since I'm just starting in Chemisrty.
I found out that electron dot diagrams can be helpful because, what if you want to have an easier way to represent the atoms and the electrons in the outer energy level then electron dot diagrams are much easier to use.
Yes, electron dot diagrams depict the valence electrons of atoms involved in a covalent bond. Each dot represents a valence electron, with shared pairs of electrons shown as a dash between the atoms. This visual representation helps illustrate how atoms share electrons to form covalent bonds.
Lewis dot diagrams represent the bonds between the atoms of a molecule, as well as any lone pair of electrons. For instance, in the O2 molecule, there is a double bond between the two oxygen atoms, but there are also two lone pairs of electrons per oxygen atom.
Atoms achieve noble gas configurations in single covalent bonds by sharing electrons between them, forming a stable electron configuration similar to a noble gas. This sharing allows both atoms to attain a full outer shell of electrons, satisfying the octet rule.
An element's electron configuration determines its chemical properties, which in turn influence its placement on the periodic table. Elements with similar electron configurations tend to exhibit similar chemical behavior and are grouped together on the periodic table in columns (groups). The periodic table is organized based on similarities in electron configurations to help predict an element's properties based on its location.
The counting & tracking of electrons during reaction mechanisms using electron configurations & orbital diagrams for example. Following the movement of electrons within & between chemical species.
protons
I found out that electron dot diagrams can be helpful because, what if you want to have an easier way to represent the atoms and the electrons in the outer energy level then electron dot diagrams are much easier to use.
The relation between electron affinity and atomic radius is inversely proportional.
Lewis structures are diagrams that show the bonding between atoms of a molecule and the lone pairs of electrons that may exist in the molecule. They are also called Lewis dot diagrams, electron dot diagrams, and electron dot structures. See the link below for Lewis structure.
The relation between 1 electron volt and 1 joule will really depend on the scattering that takes place.
Metalloids typically have electron configurations that show characteristics of both metals and nonmetals. They often have an outer shell electron configuration that is intermediate between metals and nonmetals, with some similarities to both groups. For example, metalloids like silicon and germanium have electron configurations that show both metallic properties (conductivity) and nonmetallic properties (brittleness).
I suppose that a relation doesn't exist.
1 electron volt (eV) is equal to the amount of energy gained by an electron when it is accelerated through a potential difference of 1 volt. This energy amount is approximately equal to 1.6 x 10^-19 joules.
Yes, electron dot diagrams depict the valence electrons of atoms involved in a covalent bond. Each dot represents a valence electron, with shared pairs of electrons shown as a dash between the atoms. This visual representation helps illustrate how atoms share electrons to form covalent bonds.
Lewis dot diagrams represent the bonds between the atoms of a molecule, as well as any lone pair of electrons. For instance, in the O2 molecule, there is a double bond between the two oxygen atoms, but there are also two lone pairs of electrons per oxygen atom.
Atoms achieve noble gas configurations in single covalent bonds by sharing electrons between them, forming a stable electron configuration similar to a noble gas. This sharing allows both atoms to attain a full outer shell of electrons, satisfying the octet rule.