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The 16 pages that link to Carbon–carbon bond, each with the reason it gives.

• Organic chemistryBroader topic: Carbon–carbon bonds let organic molecules form chains, branches, and rings.

• Saturated fatRelated: Saturation distinguishes chains with only single carbon–carbon bonds from unsaturated chains.

• Bond dissociation energyBroader topic: Substitution and radical stabilization make its dissociation energy strongly context-dependent.

• ButaneRelated: The arrangement of carbon–carbon bonds distinguishes butane’s isomers.

• DecarboxylationRelated: Removing a carboxyl group breaks a bond between its carbon and the molecular residue.

• Ethyl groupRelated: The ethyl group’s two-carbon backbone contains one carbon–carbon single bond.

• CyclobutaneRelated: Four carbon–carbon single bonds close the ring and constrain its geometry.

• Newman projectionRelated: The projection is defined by looking directly along this bond.

• Saturated compoundBroader topic: Saturation is defined by whether carbon–carbon bonds include multiple bonds.

• Akira SuzukiNarrower topic: The method’s lasting impact comes from making this fundamental bond easier to construct.

• NeopentaneBroader topic: Its carbon framework is built from carbon–carbon single bonds.

• Myristic acidRelated: Its chain is built from carbon atoms joined by these bonds.

• PentadecaneRelated: Fourteen carbon–carbon bonds connect pentadecane’s fifteen-carbon backbone.

• UndecaneRelated: Single carbon–carbon bonds connect undecane’s eleven atoms in a chain.

• Behenic acidBroader topic: Its carbon chain consists of carbon–carbon single bonds.

• PolyyneRelated: Polyyne structure alternates single and triple carbon–carbon bonds.