Linked from

The 203 pages that link to Redox, each with the reason it gives.

• QuinoneNarrower topic: Quinone chemistry is organized around reversible electron-accepting and electron-donating reactions.

• RiboflavinNarrower topic: FMN and FAD perform their metabolic roles by accepting and donating electrons.

• Roasting (metallurgy)Narrower topic: Oxidation during roasting changes the chemical form and oxidation state of ore constituents.

• UbiquinoneNarrower topic: Ubiquinone’s carrier function depends on alternating between oxidized and reduced states.

• Water chemistryRelated: Redox conditions determine the forms of metals, nutrients, and contaminants.

• Etching (chemical machining)Related: Many metal etchants dissolve surfaces through coupled oxidation and reduction.

• Hydride transferNarrower topic: Hydride transfer is a common two-electron pathway for redox transformations.

• Metal oxideRelated: Many oxide-forming and oxide-consuming reactions transfer oxygen through redox chemistry.

• Nicotinamide adenine dinucleotide phosphateNarrower topic: NADP functions by reversibly accepting and donating electrons in redox reactions.

• Oxidation zoneRelated: Oxidation of sulfide minerals releases dissolved metals and sulfate.

• Phosphorous acidNarrower topic: Its reducing action is a case of phosphorus changing oxidation state during reaction.

• Povidone-iodineNarrower topic: Iodine’s oxidizing reactions help explain its broad damage to microbial components.

• Primary cellRelated: Electron transfer at the cell’s electrodes generates its electrical current.

• Rechargeable batteryRelated: Electron transfer at the electrodes underlies both charging and discharging.

• Succinate dehydrogenaseNarrower topic: The enzyme couples succinate oxidation to reduction of its flavin and downstream carriers.

• Dihydrofolate reductaseNarrower topic: The enzyme couples NADPH oxidation to dihydrofolate reduction.

• DisproportionationNarrower topic: Disproportionation is a distinctive case of oxidation and reduction within one reactant species.

• Native copperNarrower topic: Electron transfer is the chemical basis for converting copper ions into native metal.

• Potassium dichromateNarrower topic: Dichromate oxidizes other substances by accepting electrons and being reduced.

• Sodium dichromateNarrower topic: Sodium dichromate oxidizes other substances by accepting electrons in redox reactions.

• Addition reactionRelated: Many additions change oxidation states, but addition describes connectivity rather than electron balance.

• AnodizingNarrower topic: Anodizing couples metal oxidation at the surface with reduction at the counterelectrode.

• AnthraquinoneNarrower topic: Anthraquinone derivatives can accept and release electrons during reversible reduction.

• Chloric acidRelated: Chloric acid’s oxidizing behavior consists of chlorine gaining electrons from reducing agents.

• Concentration cellNarrower topic: Electrode oxidation and reduction convert the chemical driving force into electrical current.

• Electric batteryBroader topic: Electron transfer at the electrodes releases the chemical energy that drives battery current.

• Manganese noduleRelated: Redox reactions govern the changing forms and precipitation of manganese and iron.

• Microbial metabolismRelated: Electron transfer powers many microbial energy-conserving pathways.

• Noble metalNarrower topic: Nobility describes a metal’s behavior within oxidation–reduction reactions.

• Osmium tetroxideNarrower topic: Osmium tetroxide acts as an oxidant by accepting electrons during substrate oxidation.

• Oxygen fugacityRelated: Oxygen fugacity sets conditions that favor oxidation or reduction.

• Phosphorus oxidation stateRelated: A change in phosphorus oxidation state tracks its oxidation or reduction.

• Redox indicatorNarrower topic: The indicator reports the progress of this broader class of electron-transfer reactions.

• VoltammetryRelated: Electrode-driven redox reactions produce the currents recorded in voltammetry.

• Aqua regiaNarrower topic: Aqua regia oxidizes metal atoms while chloride ions bind the resulting metal ions.

• Chlorous acidNarrower topic: Chlorous acid participates in oxidation-reduction reactions as an oxidizing or reducing species.

• Copper(I) oxideRelated: Copper(I) oxide forms and reacts through changes in copper’s oxidation state.

• CystineNarrower topic: Cystine formation oxidizes cysteine, while bond reduction restores it.

• Gallic acidRelated: Gallic acid’s phenolic groups can donate electrons as they oxidize.

• HydrazineNarrower topic: Hydrazine acts as a strong reducing agent by donating electrons to other substances.

• Hypophosphorous acidNarrower topic: Hypophosphorous acid acts as a reducing agent by donating electrons in redox reactions.

• Iron(III) sulfateRelated: Iron(III) can be reduced to iron(II) by suitable reducing agents.

• John B. GoodenoughRelated: Cathode voltage arises as transition-metal ions change oxidation state during lithium removal and return.

• Native element mineralRelated: Low oxygen availability or reducing conditions can favor elemental forms over oxidized compounds.

• Potassium ferricyanideNarrower topic: Ferricyanide oxidizes other compounds through electron transfer.

• PyrolusiteRelated: Pyrolusite acts as an oxidant when manganese(IV) is reduced.

• Sodium bisulfiteNarrower topic: Sodium bisulfite reduces other substances as sulfur in bisulfite is oxidized.

• Sodium dithioniteNarrower topic: Dithionite reduces other compounds by transferring electrons and is itself oxidized.

• Sodium metabisulfiteNarrower topic: Sodium metabisulfite acts as a reducing agent by donating electrons to oxidizing substances.

• Sodium sulfiteNarrower topic: Sulfite donates electrons as it is oxidized, enabling its reducing action.