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

• Oxidation stateRelated: Changes in assigned oxidation states identify which species are oxidized and reduced.

• OxygenNarrower topic: Oxygen often accepts electrons as other substances are oxidized.

• OxidationNarrower topic: It describes the complete electron-transfer process that oxidation alone cannot capture.

• Acid–base reactionCompared with: Redox reactions transfer electrons between species, unlike Lewis reactions that share an electron pair.

• CorrosionNarrower topic: Corrosion of metals commonly couples metal oxidation with reduction of another species.

• Oxidizing agentNarrower topic: Oxidizing agents participate in redox reactions by accepting electrons.

• Reactive oxygen speciesNarrower topic: Reactive oxygen species form and act through electron-transfer chemistry.

• ElectrolysisNarrower topic: Every electrolytic reaction couples oxidation at one electrode with reduction at the other.

• Oxidative stressNarrower topic: Oxidative stress arises from disrupted control of electron-transfer chemistry in cells.

• Chemical reactionBroader topic: It powers batteries, corrosion, respiration, and many industrial processes.

• Nernst equationRelated: Its balanced electron stoichiometry sets the equation’s charge factor.

• Oxidative phosphorylationNarrower topic: Electron transfers release energy that respiratory complexes harness for proton pumping.

• Electrochemical cellNarrower topic: Every electrochemical cell couples oxidation to reduction at separate or shared electrodes.

• MetabolismRelated: Electron transfers let metabolic pathways capture energy and move chemical power between molecules.

• Conjugate acid–base pairCompared with: Redox pairs track electron transfer, whereas conjugate acid–base pairs differ by a proton.

• Planetary habitabilityRelated: Redox gradients can supply usable energy to life even where sunlight is unavailable.

• Fuel cellNarrower topic: Fuel-cell electricity arises from separating the electron-transfer steps of a redox reaction.

• ElectroplatingNarrower topic: Metal ions are reduced to atoms as the plating reaction proceeds.

• Anaerobic respirationNarrower topic: Respiration conserves energy through a sequence of redox reactions.

• AntioxidantNarrower topic: Antioxidant activity is one outcome of electron-transfer chemistry.

• Alcoholic fermentationNarrower topic: Ethanol formation transfers reducing power from NADH to acetaldehyde.

• IodineRelated: Iodine readily interconverts between elemental iodine, iodide, and other oxidation states.

• Galvanic cellNarrower topic: A spontaneous redox reaction supplies the chemical energy converted by the cell.

• Disulfide bondRelated: Disulfide formation is an oxidation, while bond cleavage is a reduction.

• Redox potentialNarrower topic: Redox potential quantifies the electron-transfer tendency that drives these reactions.

• Standard electrode potentialNarrower topic: Each electrode potential describes one side of an electron-transfer reaction.

• ElectrochemistryNarrower topic: Electron transfer is the shared chemical basis of electrochemical reactions.

• Electrode potentialNarrower topic: Electrode potential expresses the tendency of a redox half-reaction to proceed.

• Iron oxideNarrower topic: Iron oxidation and oxygen reduction drive the formation of many iron oxides.

• ChemosynthesisNarrower topic: Electron transfer in redox reactions releases the energy chemosynthetic metabolism captures.

• Electron transport chainNarrower topic: Each carrier passes electrons by alternating between oxidized and reduced states.

• Faraday's laws of electrolysisRelated: Electrode products form through electron-transfer reactions whose stoichiometry sets the charge required.

• HemeRelated: Heme proteins can transfer electrons by changing the oxidation state of their iron.

• Lactate dehydrogenaseNarrower topic: The enzyme catalyzes coupled oxidation and reduction of pyruvate, lactate, NADH, and NAD⁺.

• AnodeNarrower topic: Anodic oxidation is one half of a coupled redox reaction.

• GeochemistryRelated: Redox conditions control the forms and mobility of many elements in Earth materials.

• HalogenRelated: Halogen reactions commonly involve gaining electrons while another substance is oxidized.

• Chemical oxygen demandNarrower topic: COD depends on electron transfer from oxidizable substances to a chemical oxidant.

• Conjugate acidCompared with: Redox reactions transfer electrons rather than the protons that create conjugate acids.

• NADPHNarrower topic: NADPH's central role is to donate electrons in cellular redox reactions.

• Ore depositRelated: Changes in oxidation state can make dissolved metals precipitate as ore minerals.

• ReductionNarrower topic: Reduction is one half of every redox reaction.

• CathodeNarrower topic: Cathodic reduction is one half of the coupled redox chemistry in a cell.

• Electrochemical seriesNarrower topic: Each entry represents the reduction direction of a redox reaction and its reverse oxidation.

• Flavin adenine dinucleotideNarrower topic: FAD’s coenzyme role is to accept or donate electrons in these reactions.

• Aerobic respirationNarrower topic: Respiration releases fuel energy through linked electron-transfer reactions.

• Ascorbic acidNarrower topic: Ascorbic acid acts as an electron donor in reactions that maintain cellular redox balance.

• CysteineRelated: Forming a disulfide oxidizes cysteine thiols; breaking it reduces them.

• BloomeryNarrower topic: Iron reduction and carbon oxidation are coupled reactions within the furnace.

• Chlorine dioxideNarrower topic: Its reactions with microbes and dyes are electron-transfer processes.