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The 108 pages that link to Hydrolysis, each with the reason it gives.

• Calcium sulfideRelated: Moisture can convert calcium sulfide into calcium-containing products while releasing hydrogen sulfide.

• Ellagic acidRelated: Hydrolysis of ellagitannins can release ellagic acid from plant material.

• FormamideRelated: Acidic or basic hydrolysis converts formamide into formic acid or formate and ammonia or ammonium.

• Gold(III) chlorideRelated: Water converts AuCl₃ into hydrolyzed gold species and can produce hydrochloric acid.

• Isocyanic acidRelated: Water converts HNCO into products including ammonia and carbon dioxide.

• Lithium hydrideRelated: Water reacts with LiH to produce lithium hydroxide and hydrogen gas.

• Methyl acetateRelated: Water can split methyl acetate into methanol and acetic acid.

• Methyl formateRelated: Water can split methyl formate into methanol and formic acid.

• Methyl isocyanateRelated: Water can react with methyl isocyanate, affecting its fate in spills and biological tissues.

• Tin(II) chlorideRelated: Water can hydrolyze tin(II) chloride, producing basic tin salts unless the solution is acidified.

• Titanium tetrachlorideRelated: Moisture rapidly hydrolyzes TiCl₄, releasing hydrogen chloride and forming hydrated titanium oxides.

• Antimony trichlorideRelated: Water hydrolyzes SbCl₃, producing antimony oxychloride and hydrogen chloride.

• Beryllium chlorideRelated: Water reacts readily with BeCl₂, making the compound moisture-sensitive.

• Beryllium hydroxideRelated: Beryllium ions interact strongly with water, influencing aqueous acidity and speciation.

• Iron(III) nitrateRelated: Hydrated Fe³⁺ ions acidify water through hydrolysis.

• Oxygen difluorideRelated: Water rapidly consumes OF₂, forming hydrogen fluoride and oxygen.

• Potassium alumRelated: Aluminum ions hydrolyze in water, producing species involved in particle removal.

• Silicon tetrachlorideRelated: Moisture rapidly converts SiCl₄ into silica and hydrogen chloride.

• Sodium sulfideRelated: Sulfide ions react with water, making sodium sulfide solutions strongly alkaline.

• Tin(IV) chlorideRelated: Water converts tin(IV) chloride into hydrolyzed tin species and hydrogen chloride.

• Aluminium carbideRelated: Water decomposes aluminium carbide, forming methane and aluminium hydroxide.

• Aluminium nitrateRelated: Hydrated Al³⁺ acidifies aqueous solutions by transferring protons to water.

• Aluminium phosphideRelated: Moisture hydrolyzes aluminium phosphide and produces phosphine.

• Aluminium triacetateRelated: Aluminium ions react with water, affecting the salt’s aqueous speciation and acidity.

• Ammonium acetateRelated: Ammonium and acetate can each react with water after dissolution.

• Carbonyl sulfideRelated: Reaction with water converts carbonyl sulfide into hydrogen sulfide and carbon dioxide.

• Chlorosulfuric acidRelated: Moisture rapidly hydrolyzes chlorosulfuric acid, releasing heat and corrosive products.

• Dichlorine monoxideRelated: Water converts Cl₂O into hypochlorous acid, linking the oxide to aqueous chlorine chemistry.

• DiphosphaneRelated: Hydrolysis of phosphide materials is one route by which diphosphane-containing mixtures arise.

• Lithium borohydrideRelated: Water reacts with LiBH₄, consuming the salt and generating hydrogen-containing products.

• Magnesium sulfideRelated: MgS reacts with water to produce magnesium hydroxide and hydrogen sulfide.

• Sodium metaborateRelated: Borate species in aqueous solution exchange protons with water and establish pH-dependent equilibria.

• Sodium metasilicateRelated: Dissolved metasilicate forms alkaline solutions through reactions involving water.

• Sulfur dichlorideRelated: Moisture rapidly reacts with sulfur dichloride, producing sulfur-containing and hydrogen chloride products.

• ThermolabileRelated: Heat can accelerate hydrolysis, one route by which susceptible substances are altered.