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The 53 pages that link to Sulfuric acid, each with the reason it gives.

• SulfurBroader topic: Sulfur is converted into sulfuric acid, the element’s largest-volume industrial product.

• Hydrochloric acidCompared with: It is another major industrial mineral acid, but can donate two protons and has distinct dehydrating properties.

• Sulfur dioxideBroader topic: The contact process converts SO₂ into sulfuric acid, one of its largest industrial products.

• SulfateRelated: Losing both acidic protons produces the sulfate ion.

• Nitric acidCompared with: It is another major industrial acid, with different acid-base and dehydrating properties.

• Lead–acid batteryRelated: Its concentration changes as the cell discharges, making it a useful indicator of charge state.

• AcidBroader topic: It is a major industrial acid used in fertilizer production and chemical processing.

• Phosphoric acidRelated: It reacts with phosphate rock to release phosphoric acid in the wet process.

• PyriteRelated: Roasting pyrite releases sulfur dioxide, historically used to make sulfuric acid.

• Sulfur cycleRelated: Atmospheric sulfur dioxide can ultimately form sulfuric acid, driving acid deposition.

• OxoacidBroader topic: Its two ionizable protons illustrate staged dissociation in a familiar oxoacid.

• Perchloric acidCompared with: Both are strong mineral acids, but sulfuric acid donates two protons and has different hazards.

• SuperacidRelated: Pure sulfuric acid supplies the conventional reference point for superacid strength.

• Hydrofluoric acidCompared with: It causes severe corrosive burns but does not share hydrofluoric acid’s systemic fluoride effects.

• Strong acidBroader topic: Its first proton makes sulfuric acid a strong acid in aqueous solution.

• Contact processNarrower topic: The process is the principal industrial route to this widely used acid.

• SeleniumRelated: Selenium was discovered in residues from sulfuric acid production.

• VanadiumRelated: Vanadium pentoxide catalyzes the industrial conversion of sulfur dioxide during sulfuric acid production.

• ChalcogenBroader topic: Its manufacture consumes sulfur and supports fertilizers, refining, and chemical production.

• Copper smeltingRelated: Captured smelter sulfur dioxide can be converted into sulfuric acid instead of released.

• Permanganate titrationRelated: It supplies the acid needed for permanganate to reduce mainly to Mn²⁺.

• Roasting (metallurgy)Related: Captured sulfur dioxide from sulfide roasting can be converted into sulfuric acid.

• SulfonationRelated: Concentrated acid supplies sulfur trioxide and can also promote sulfonation directly.

• Sulfur trioxideRelated: Adding water to SO₃ produces this acid, often with intense heat and mist formation.

• Iron(II) sulfateRelated: Iron(II) sulfate is made in processes that react iron or iron oxides with sulfuric acid.

• Sodium sulfateRelated: It supplies sulfate in one established route for manufacturing sodium sulfate.

• Sulfonic acidCompared with: Replacing one hydroxyl hydrogen with an organic group distinguishes sulfonic acids from sulfuric acid.

• Sulfurous acidCompared with: Its stable, isolable acid contrasts with the conventional and unstable sulfurous-acid representation.

• Antimony pentafluorideCompared with: Ordinary strong aqueous acids contrast with SbF₅-based superacid systems, which can protonate far weaker bases.

• Chloric acidCompared with: It contrasts chloric acid’s monoprotic formula with a widely used polyprotic oxoacid.

• Fluoroantimonic acidCompared with: It is the conventional benchmark that superacids are defined as stronger than.

• Fluorosulfuric acidCompared with: Replacing one hydroxyl group of sulfuric acid with fluorine gives fluorosulfuric acid.

• Magic acidCompared with: It provides the familiar reference point exceeded by superacids such as magic acid.

• Phosphorus oxyacidsCompared with: Its proton-transfer behavior contrasts with the generally weaker, often polyprotic phosphorus oxyacids.

• Trichloroacetic acidCompared with: It illustrates a powerful inorganic acid used in analysis, unlike this chlorinated organic acid.

• Vanadium(V) oxideRelated: V₂O₅ helps manufacture sulfuric acid by catalyzing sulfur dioxide oxidation.

• Acid anhydrideRelated: Sulfur trioxide, an acid anhydride, is hydrated to make this acid.

• Atmosphere of VenusRelated: Droplets of it compose the planet’s persistent cloud layers.

• Carborane acidCompared with: It anchors the conventional superacid definition that carborane acids greatly exceed.

• NonmetalRelated: Sulfur is a nonmetal central to producing this widely used industrial chemical.

• AluniteRelated: Sulfuric acid generated by oxidation of volcanic sulfur can drive alunite-forming alteration.

• Mineral acidBroader topic: It is a major industrial mineral acid used in fertilizer production and chemical processing.

• Potassium bisulfateRelated: Potassium bisulfate is formed by replacing one of sulfuric acid’s two acidic hydrogens with potassium.

• Sodium bisulfateRelated: Sodium bisulfate is produced by partially neutralizing this acid with a sodium base.

• Triflic acidCompared with: Triflic acid can be stronger while avoiding sulfuric acid’s characteristic dehydrating behavior.

• Thiosulfuric acidCompared with: Replacing one of its oxygen atoms with sulfur gives the structural relationship used to define thiosulfuric acid.

• Ammonium metavanadateRelated: Vanadium pentoxide prepared from this salt catalyzes sulfur dioxide oxidation in sulfuric acid production.

• Chlorosulfuric acidCompared with: Replacing one hydroxyl group of sulfuric acid with chlorine gives chlorosulfuric acid.

• Manganese heptoxideRelated: Concentrated sulfuric acid helps liberate permanganic acid from permanganate salts.

• OctasulfurRelated: Burning elemental sulfur, commonly sourced from S₈, produces sulfur dioxide for acid manufacture.