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Tetravalency of Carbon

The element that is capable of bonding with other atoms of elements or with the atoms of other monovalent elements is known as the tetravalent state of an atom with four electrons available for covalent chemical bonding in its valence.

The capability of carbon to establish bonds with other atoms by participating its valence electrons is known as tetravalency. This principally means that carbon has four valence electrons ( external electrons that are available for forming bonds with other titles), carbon is called tetravalent. A tetravalent element is an essential with four electrons available to form bonds with other atoms.

Tetravalency of Carbon

As carbon possesses atomic number 6, it means that carbon grain has a total of 6 electrons. . Carbon obeys the sextet rule and forms 4 covalent bonds with other particles to get a stable electronic configuration. Thus, carbon is tetravalent (It means valency of carbon is 4.) and can form 4 covalent bonds with not only other particles but other carbon particles as well. This is called tetravalency of carbon. It’s a unique property of carbon as it forms truly strong covalent bonds which makes carbon mixes exceptionally stable in nature. The capability of carbon to form covalent bonds with other carbon particles is called concatenation. Due to this property carbon can form long straight, banged and cyclic chains. Carbon can form single, double and triple covalent bonds with other carbon particles. Still, 2S2, 2P2 .

Electronic Configuration and Excited State in Carbon

If you see the electronic configuration of carbon grain in detail also you will find that the electronic configuration of carbon at ground state is 1s2 2s2 2p2.Above electronic configuration of carbon shows that carbon has only 2 unmatched electrons. We know that carbon has 4 covalent bonds. Also the generality of the excited state comes. When carbon grain gets agitated it shows following electronic configuration  1s2, 2s1, 2p3

Size of a carbon snippet

Although there’s no specific description, the composites in solid, liquid or gassy state which contain covalently clicked carbon titles in their motes are known as organic composites.

Hybridization of Carbon

Hybridized orbitals are helpful in describing the shape of molecular orbitals piecemeal from being a major part of valence bond proposition. For illustration, in methane whose chemical formula is CH4, a set of sp3 orbitals develops by combining one s-orbital and three p-orbitals on the carbon snippet. These orbitals direct towards the four hydrogen titles placed at the vertices of a regular tetrahedron.

Tetravalence of Carbon

As carbon possesses atomic number 6, it means that the carbon atom has a total of 6 electrons. In simple ways, its electronic configuration can be written as 2,4. It means it has 4 electrons in the outermost shell. Carbon obeys the octet rule and forms 4 covalent bonds with other atoms to get a stable electronic configuration. Thus, carbon is tetravalent (It means the valency of carbon is 4.) and can form 4 covalent bonds with not only other atoms but other carbon atoms as well. This is called tetravalency of carbon. It is a unique property of carbon as it forms very strong covalent bonds which makes carbon compounds exceptionally stable in nature. The ability of carbon to form covalent bonds with other carbon atoms is called catenation. Due to this property carbon can form long straight, branched, and cyclic chains. Carbon can form single, double, and triple covalent bonds with other carbon atoms.

Conclusion

From the below explanation we can fluently conclude that carbon shares its four valence electrons with other titles and forms four single covalent bonds to get the nearest noble gas conformation. This is known as tetravalency. Then  Carbon shows that it has tetravalency in all hydrocarbons. A carbon snippet possesses the following parcels which make it the most protean element in the periodic table- Consecution, Tetravalency, and Isomerism. Each of these parcels is responsible for why carbon titles can form such a huge quantum of composites. Compared to the organic composites, the number of inorganic composites is important lower, as they don’t form any bonds.