Linked from

The 68 pages that link to Catalysis, each with the reason it gives.

• Chemical bondRelated: Catalysts alter the pathways and energetic costs of breaking and forming bonds.

• Chemical kineticsRelated: Catalysts change reaction pathways and lower kinetic barriers without changing equilibrium.

• Thermal decompositionCompared with: A catalyst can lower the energy barrier, while heat is the defining trigger here.

• Chemical reactionRelated: Catalysts provide alternative pathways with lower activation barriers.

• Transition stateRelated: Catalysts accelerate reactions by providing pathways with lower-energy transition states.

• Organic synthesisRelated: Catalysts can improve reaction rates, selectivity, and resource efficiency.

• Transition metalRelated: Transition metals can bind reactants and access changing oxidation states along reaction pathways.

• Organic chemistryRelated: Catalysts make many organic reactions faster, more selective, or possible under milder conditions.

• Activation energyRelated: Catalysts provide pathways with lower activation barriers.

• Green chemistryRelated: Catalysts can improve selectivity and reduce reagent, energy, and waste demands.

• Density functional theoryRelated: Surface calculations use density functional theory to compare catalytic reaction steps and binding energies.

• Le Chatelier's principleCompared with: A common misconception: catalysts speed both directions equally and never shift an equilibrium.

• Heterogeneous catalysisNarrower topic: Heterogeneous catalysis is one broad mode of the general catalytic phenomenon.

• Reaction mechanismRelated: A catalyst changes the available mechanism by providing a pathway with a lower activation barrier.

• AbiogenesisRelated: Catalysts could make prebiotic reaction networks fast and selective enough to persist.

• NickelNarrower topic: Nickel surfaces catalyze hydrogenation and other reactions by binding and activating reactants.

• BASFRelated: BASF makes catalysts for chemical manufacturing and emissions control.

• Jöns Jacob BerzeliusRelated: Berzelius coined the term for the action he called catalytic force.

• ChemoselectivityNarrower topic: Catalysts can alter relative reaction rates and redirect chemoselectivity.

• Surface scienceNarrower topic: Surface science supplies molecular explanations for how solid catalysts bind and transform reactants.

• Chemical industryRelated: Catalysts make many industrial reactions faster, more selective, and less energy-intensive.

• Chemical reactivityRelated: Catalysts change reaction pathways and rates without changing the reactants’ identities.

• Chemical recyclingRelated: Catalysts can steer breakdown reactions toward chosen products and milder conditions.

• Asymmetric catalysisNarrower topic: Asymmetric catalysis is a selective form of this broader process.

• Manganese dioxideNarrower topic: Manganese dioxide catalyzes reactions including hydrogen peroxide decomposition and oxidation.

• Contact processNarrower topic: The process depends on a catalyst to make sulfur dioxide oxidation practical.

• PeroxidesRelated: Metal ions and enzymes can accelerate peroxide decomposition or redirect its reactions.

• Surface-area-to-volume ratioRelated: Porous catalysts expose large active surface areas relative to the amount of material.

• Wilhelm OstwaldRelated: Ostwald investigated catalysts and helped give catalysis a quantitative foundation.

• Chemical decompositionRelated: Catalysts can accelerate decomposition without being consumed in the overall reaction.

• Chemical inertnessRelated: Catalysts can make reactions proceed even when uncatalyzed pathways are too slow to detect.

• ChemistryRelated: Catalysts change reaction pathways and rates without being consumed overall.

• IsomerizationNarrower topic: Catalysts lower barriers for many isomerizations without changing their equilibrium.

• RhodiumNarrower topic: Rhodium surfaces and complexes speed reactions by providing alternative pathways.

• AcrylonitrileNarrower topic: Catalysts enable selective, efficient conversion of propylene into acrylonitrile.

• Atom economyRelated: Catalysis can enable pathways with fewer unwanted products and improved material efficiency.

• Collision theoryNarrower topic: Catalysts provide pathways with lower energy barriers, making more collisions effective.

• d-blockNarrower topic: Accessible oxidation states and binding sites make many d-block elements effective catalysts.

• ChemisorptionRelated: Chemisorption can bind reactants to catalytic surfaces and alter reaction rates.

• PhysisorptionRelated: Catalytic surface reactions often involve chemisorption, unlike adsorption that remains purely physical.

• Rate-determining stepRelated: Catalysts change pathway barriers and can shift which step controls turnover.

• Noble metalRelated: Gold, platinum, and palladium catalyze reactions while resisting destructive chemical change.

• Organic reactionRelated: Catalysts offer alternative pathways that can change rates and product selectivity.

• Reversible reactionRelated: A catalyst speeds both directions and does not change the equilibrium composition.

• Wacker processNarrower topic: Palladium and copper are regenerated through linked catalytic cycles.

• Carborane acidNarrower topic: Strong, minimally coordinating proton donors can initiate or promote acid-catalyzed transformations.

• Karl ZieglerNarrower topic: Metal-containing catalysts enabled Ziegler’s selective polymer-forming reactions.

• Paul SabatierNarrower topic: Sabatier’s work helped make catalytic methods central to modern chemical synthesis.

• Group 10 elementRelated: Nickel, palladium, and platinum surfaces and compounds catalyze many industrial reactions.

• NanostructuresRelated: Nanostructures can expose many reactive surface sites per unit mass.