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The 18 pages that link to Conjugate base, each with the reason it gives.

• Inductive effectRelated: Its stability often explains how inductive effects alter acid strength.

• Citric acidRelated: Loss of protons from citric acid produces citrate ions.

• SuperacidRelated: Weakly coordinating conjugate bases help sustain extreme proton-donating power.

• Brønsted–Lowry acidRelated: This is the direct product of the acid's defining donation.

• Malonic acidRelated: Malonic acid loses protons to form hydrogen malonate and malonate ions.

• Phosphorous acidRelated: Stepwise deprotonation forms hydrogen phosphite and then phosphite.

• Chloric acidRelated: Chlorate is the conjugate base formed when chloric acid loses H⁺.

• Fluorosulfuric acidRelated: Proton loss from fluorosulfuric acid produces the fluorosulfate ion.

• Trichloroacetic acidRelated: Trichloroacetate is the conjugate base formed when trichloroacetic acid loses H⁺.

• Carborane acidRelated: The carborane anion is the conjugate base whose weak coordination enables unusual reactivity.

• Organic acidRelated: Its stability helps determine how readily an organic acid releases its proton.

• Trifluoroacetic acidRelated: Deprotonation forms trifluoroacetate, whose stability supports the acid’s strength.

• Acid saltRelated: An acid-salt anion is a partially deprotonated form of its parent acid.

• E1cB elimination reactionRelated: The substrate becomes its conjugate base when the proton is removed.