Organic Chemistry

Organic chemistry is a branch of chemistry that examines the structure, characteristics, and interactions of organic molecules that have covalent bonds with carbon.

• Organic chemistry is a large field due to a critical feature of the element carbon known as carbon catenation. Carbon has a remarkable ability to make extremely stable bonds with other carbon atoms, allowing it to construct stable molecules with relatively complex structures. Catenation is an element’s ability to create bonds with atoms of the same type. As a result, this characteristic of carbon can be used to explain the complexity of organic chemistry.
• More than a million carbon compounds are known due to their ability in creating covalent bonds. Many are hydrocarbons, which are made up of simply carbon and hydrogen. The majority of hydrocarbons are derived from petroleum.
• Jöns Jakob Berzelius, a Swedish scientist, used the term “organic” in 1807 to describe chemicals produced by living organisms. Organic molecules were once thought to be impossible to manufacture artificially because they carried a mystical essence of life known as “vital force.”
• Friedrich Wöhler synthesized the organic chemical urea from inorganic starting materials in 1828, demonstrating that a compound synthesized by living cells could be synthesized in the laboratory without the use of biological starting materials, thus contradicting a basic tenet of vitalism.
• The synthesis of urea represented the beginning of a new era in organic chemistry, not only redefining the term organic but also rerouting organic chemistry into a wholly new scientific subject.
• The modern definition of organic is carbon-containing substances, which is now the scientific manner of characterizing the term. However, organic compounds have remained important to every known lifeform over the years, as an abundance of organic molecules comprise all living species.
• Organic compounds are the foundation of all life on Earth and account for the vast majority of known substances. The variety of organic compounds is structurally complex, and their range of uses is extensive because of the bonding patterns of carbon, which has a valence of four and formal single, double, and triple bonds as well as structures with delocalized electrons.
• Organic chemistry studies carbon-containing molecules’ structure, characteristics, content, reactions, and production. Most organic molecules comprise carbon and hydrogen but can also contain nitrogen, oxygen, halogens, phosphorus, silicon, and sulfur.
• Organic chemistry is significant because organic compounds are the majority of the vital biological molecules in living systems. Almost all common polymers are made from organic molecules.
• They are the foundation or ingredients of many commercial items, including pharmaceuticals, petrochemicals, and agrichemicals, as well as products made from them, such as lubricants, solvents, plastics, fuels, and explosives.
• Organometallic chemistry, which studies carbon-based molecules including metals, and bioorganic chemistry, which integrates organic chemistry with biochemistry, are two new disciplines of organic chemistry.
• Organic chemistry methods are applied in pharmaceutical chemistry, natural product chemistry, and materials science. Organic chemists in industry work in both discovery chemistry (creating new chemicals) and process optimization (developing better synthetic methods for large-scale production).