Linked from

The 19 pages that link to Bond dissociation energy, each with the reason it gives.

• Covalent bondRelated: It quantifies the energy cost of breaking a covalent bond.

• Activation energyCompared with: Breaking a bond can contribute to a barrier, but its dissociation energy is not the reaction’s activation energy.

• Leaving groupRelated: It describes bond strength, though heterolytic leaving-group ability also depends on product stability.

• Ionization energyCompared with: Breaking a bond differs from removing an electron from a whole gaseous species.

• Free radicalRelated: It helps determine whether a bond can split to form radicals.

• Bond orderRelated: Bond order often tracks bond strength, though bond energy also depends on the atoms and molecular environment.

• Carbon–carbon bondRelated: It quantifies the energy needed to split a carbon–carbon bond.

• HyperconjugationRelated: Hyperconjugation can stabilize the radical formed after cleavage and lower the required energy.

• Bond lengthCompared with: It measures bond-breaking energy, not the distance between nuclei.

• Bent's ruleRelated: Changes in bond-orbital character can help explain trends in bond strengths.

• Diatomic moleculeRelated: It quantifies how much energy is needed to separate a diatomic molecule's atoms.

• Carbon–fluorine bondRelated: Its high value helps explain the resistance of many C–F bonds to homolytic cleavage.

• Single bondRelated: It quantifies the energy needed to separate atoms joined by a single bond.

• Chemical energyCompared with: Breaking bonds costs energy; net reaction energy depends on both bonds broken and bonds formed.

• Hydrogen halideRelated: Its trend across the series helps explain differences in bond stability and acid strength.

• Triple bondRelated: It quantifies the energy needed to separate atoms joined by a triple bond.

• Radical polymerizationRelated: Thermal initiators form radicals when susceptible bonds break homolytically.

• Sulfur monoxideRelated: It quantifies the energy needed to separate SO into sulfur and oxygen atoms.

• DiacetyleneRelated: Bond energies help explain why diacetylene’s unsaturated framework is reactive.