Linked from

The 39 pages that link to Acid rain, each with the reason it gives.

• Acid–base reactionRelated: Acid–base reactions in air and water determine how these pollutants alter acidity.

• Nitrogen cycleRelated: Nitrogen oxides formed during combustion can return to land and water as acidic deposition.

• WeatheringRelated: Acidic water can accelerate chemical alteration of minerals and stone.

• NitrogenRelated: Nitrogen oxides from combustion contribute to acid deposition.

• Volcanic gasRelated: Volcanic sulfur dioxide can oxidize and dissolve in water, producing acidic deposition.

• SulfurRelated: Sulfur dioxide emissions can oxidize in air and contribute to acidifying rain.

• Sulfur dioxideRelated: SO₂ oxidation produces sulfuric acid that can return to Earth in precipitation.

• CoalRelated: Sulfur dioxide from coal burning can contribute to acid deposition.

• SulfateRelated: Sulfur emissions can oxidize into sulfuric acid and sulfate in precipitation.

• Nitric acidRelated: Nitrogen oxides from nitric acid production and combustion can contribute to acid deposition.

• Fossil fuelRelated: Sulfur and nitrogen emissions from fuel burning help create these acids.

• AcidRelated: It shows how acid-forming emissions alter soils, waters, and built materials.

• Atmospheric chemistryRelated: Atmospheric oxidation converts sulfur dioxide and nitrogen oxides into acids that reach Earth's surface.

• MarbleRelated: Its acids dissolve marble surfaces and erode carved details.

• Nitrogen oxidesRelated: Atmospheric oxidation of nitrogen oxides produces nitric acid that acidifies rain.

• Nitrogen dioxideRelated: NO₂ oxidation produces nitric acid, one contributor to acidic deposition.

• SmeltingRelated: Sulfur dioxide from smelters can form acids that damage ecosystems and structures.

• Sulfur cycleRelated: Atmospheric sulfur oxidation can return as acidic deposition, affecting soils and waters.

• Flue-gas desulfurizationRelated: Removing sulfur dioxide limits the atmospheric precursor of sulfuric acid deposition.

• NorilskRelated: Sulfur emissions from Norilsk’s metallurgical plants contribute to acidifying pollution.

• Selective catalytic reductionRelated: Reducing NOx emissions helps limit nitrogen-derived acid deposition.

• TroposphereRelated: Reactions and transport in the troposphere produce acids that return to the surface in precipitation.

• Air pollution controlRelated: Reducing these precursor emissions helped limit acid deposition.

• Copper smeltingRelated: Uncaptured sulfur dioxide from smelters can form acids in the atmosphere.

• Roasting (metallurgy)Related: Sulfur dioxide released by roasting can form acids in the atmosphere.

• Eastern deciduous forestsRelated: Acid deposition damaged soils and trees in parts of the eastern forest region.

• Sulfur trioxideRelated: Atmospheric SO₃ reacts with water and contributes to sulfuric acid formation in acidic aerosols and precipitation.

• SmogRelated: Some emissions that produce sulfurous smog also form acids deposited from the atmosphere.

• Sulfurous acidRelated: Dissolved sulfur dioxide forms acidic species that contribute to sulfur-driven atmospheric acidity.

• Acid anhydrideRelated: Acidic oxides released to air can form acids in atmospheric water.

• By-productRelated: These emissions can be by-products of burning fuels and industrial activity.

• Picea rubensRelated: Acid deposition and associated calcium loss damaged red spruce at high elevations during the twentieth century.

• Alpine lakeRelated: Low-buffering alpine waters can be especially vulnerable to acid deposition.