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The 40 pages that link to Conjugate acid–base pair, each with the reason it gives.

• pHRelated: Conjugate pairs determine how acids and bases establish solution equilibria.

• Acid dissociation constantRelated: Each dissociation equilibrium connects an acid to its conjugate base.

• Acid–base equilibriumRelated: Each proton-transfer equilibrium links an acid to its conjugate base.

• NeutralizationRelated: Neutralization transfers a proton between acid and base, producing their conjugate partners.

• Carboxyl groupRelated: A carboxyl group and its deprotonated form make such a pair.

• pKaRelated: The equilibrium behind pKa converts an acid into its conjugate base.

• Proton transferRelated: Each transfer converts a donor and acceptor into their conjugate partners.

• Conjugate baseRelated: The pair places a conjugate base alongside the acid from which it formed.

• Polyatomic ionRelated: Polyatomic ions such as sulfate and bisulfate form conjugate pairs by gaining or losing a proton.

• Acid catalysisRelated: Each proton donation creates a conjugate base that can be regenerated.

• OxoacidRelated: An oxoacid and its deprotonated oxyanion form such a pair.

• CarboxylateRelated: A carboxylic acid and its carboxylate form a conjugate acid–base pair.

• Strong acidRelated: Dissociation produces the acid’s conjugate base and transfers a proton to a base.

• Weak acidRelated: Dissociation converts a weak acid into its conjugate base.

• AmphoterismRelated: An amphoteric species can belong to different conjugate pairs in different reactions.

• Brønsted–Lowry acidRelated: After donation, the acid becomes its conjugate base.

• DeprotonationRelated: Removing a proton converts an acid into its conjugate base.

• Nitrous acidRelated: HNO₂ and NO₂⁻ form such a pair.

• Brønsted–Lowry baseRelated: The base and the species it becomes form one such pair.

• Acid strengthRelated: An acid’s proton donation produces its conjugate base, whose stability influences the equilibrium.

• Sulfurous acidRelated: H₂SO₃, HSO₃⁻, and SO₃²⁻ are conventionally arranged in successive pairs.

• Universal indicatorRelated: The differently colored indicator forms commonly constitute such a pair.

• pH indicatorRelated: An indicator commonly switches between conjugate forms with different properties.

• Weak baseRelated: Every proton-accepting weak base has a corresponding conjugate acid.

• ZwitterionRelated: Linked protonation states explain how zwitterionic forms arise.

• Mineral acidRelated: Each proton donation by a mineral acid produces its conjugate base.

• Potassium bisulfateRelated: Hydrogen sulfate and sulfate form one such pair.

• Sodium amideRelated: Amide ion and ammonia form the conjugate base–acid pair underlying its basicity.

• Iodic acidRelated: Iodic acid and iodate differ by loss of one proton.

• Monosodium citrateRelated: Citrate species exchange protons, enabling the buffer action of citrate mixtures.

• Selenic acidRelated: Selenic acid, hydrogen selenate, and selenate form successive acid–base partners.

• ThiophenolRelated: Thiophenol and thiophenolate form such a pair.