Linked from

The 15 pages that link to Catalytic cycle, each with the reason it gives.

• CatalysisBroader topic: It tracks how catalyst participation and regeneration occur across individual reaction steps.

• Ozone depletionNarrower topic: Chlorine and bromine emerge unchanged from reaction cycles, allowing each atom to destroy many ozone molecules.

• ChlorofluorocarbonRelated: Chlorine is regenerated during ozone destruction, allowing one atom to destroy many ozone molecules.

• Heterogeneous catalysisRelated: Surface intermediates must form and release products while leaving active sites available.

• Acid catalysisRelated: The acid must regain its proton for the catalytic process to continue.

• Asymmetric catalysisNarrower topic: Asymmetric induction occurs within a catalyst's repeated reaction sequence.

• HydroformylationNarrower topic: The cycle connects alkene binding, carbonyl insertion, aldehyde release, and catalyst regeneration.

• Reaction intermediateRelated: Catalytic cycles contain successive catalyst-bound intermediates rather than consuming the catalyst overall.

• Cross-coupling reactionNarrower topic: Cross-couplings are commonly explained as repeating cycles of catalyst activation, bond formation, and product release.

• F. Sherwood RowlandRelated: Chlorine atoms released from CFCs destroy ozone through cycles that leave the chlorine available for further reactions.

• Mario MolinaNarrower topic: Chlorine radicals destroy many ozone molecules because the reactions regenerate the chlorine catalyst.

• CatalystBroader topic: It shows how a catalyst can participate in intermediate steps yet be restored overall.

• 18-electron ruleRelated: Electron counts help track ligand association and dissociation during organometallic catalysis.

• Paul J. CrutzenNarrower topic: Ozone depletion occurs through cycles in which reactive species destroy ozone without being consumed.

• TrichlorofluoromethaneRelated: Chlorine atoms released from CFC-11 destroy many ozone molecules before removal.