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This deck focuses on Acid Rain, giving you a quick way to review the definitions, rules, and examples that matter most for AP Environmental Science.
Study Acid Rain in AP Environmental Science with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
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What role do trees play in the acid rain cycle?
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Trees absorb and store acidic water, affecting soil and habitats. Forest canopy intercepts acidic precipitation, concentrating effects.
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This deck focuses on Acid Rain, giving you a quick way to review the definitions, rules, and examples that matter most for AP Environmental Science.
Work through these flashcards in short sessions. Try to answer each prompt before flipping the card, then revisit any cards you miss until the explanation feels automatic.
Answer: Trees absorb and store acidic water, affecting soil and habitats. Forest canopy intercepts acidic precipitation, concentrating effects.
Answer: Acidic rain, fog, and snow. Direct delivery of acids through precipitation events.
Answer: Contributes to natural acidity of rainwater. Forms when atmospheric CO₂ dissolves in water droplets.
Answer: Fish and amphibians. These species have limited ability to regulate internal pH.
Answer: Lowers the soil pH, making it more acidic. Cumulative acid inputs gradually reduce soil alkalinity.
Answer: Contaminates water supplies with heavy metals leached from soil. Acids mobilize toxic metals from soil into groundwater.
Answer: Lowers the soil pH, making it more acidic. Cumulative acid inputs gradually reduce soil alkalinity.
Answer: Lime addition or liming. Lime raises pH by neutralizing acidic water chemistry.
Answer: The Clean Air Act. Established emission standards to control acid rain precursors.
Answer: Contaminates water supplies with heavy metals leached from soil. Acids mobilize toxic metals from soil into groundwater.
Answer: Reduces visibility due to sulfate and nitrate particles. Fine acidic particles scatter light, creating haze conditions.
Answer: Damage to fisheries and agriculture. Reduced productivity and infrastructure damage cost billions annually.
Answer: Causes damage and reduces photosynthesis. Direct contact burns leaf tissue and blocks stomata.
Answer: Automobile exhaust. Internal combustion engines produce significant NOₓ emissions.
Answer: Soils low in calcium and magnesium. These soils lack buffering capacity to neutralize acids.
Answer: Install scrubbers in industrial smokestacks. Scrubbers remove sulfur compounds before gases are released.
Answer: Automobile exhaust. Internal combustion engines produce significant NOₓ emissions.
Answer: Forests and aquatic ecosystems. These ecosystems are particularly sensitive to pH changes.
Answer: Sulfuric acid. Strong acid that aggressively attacks building materials.
Answer: Sulfur dioxide (SO₂). Main precursor gas that forms sulfuric acid in atmosphere.
Answer: The settling of acid or acid-forming pollutants from the atmosphere. Includes both wet and dry forms of acidic pollution fallout.
Answer: Granite. Dense crystalline structure resists chemical weathering by acids.
Answer: Respiratory issues due to inhalation of fine particles. Acid rain precursors form harmful particulate matter in air.
Answer: It corrodes buildings and monuments, especially limestone. Acids react with calcium carbonate in stone, causing deterioration.
Answer: Acidic gases and particles settling out of the atmosphere. Acidic compounds fall to earth without precipitation involvement.
Answer: The Gothenburg Protocol. European agreement to reduce sulfur and nitrogen emissions.
Answer: The Gothenburg Protocol. European agreement to reduce sulfur and nitrogen emissions.
Answer: Acidic rain, fog, and snow. Direct delivery of acids through precipitation events.
Answer: Causes damage and reduces photosynthesis. Direct contact burns leaf tissue and blocks stomata.
Answer: Ammonia can neutralize some acids in the atmosphere. Acts as a natural base to counteract atmospheric acidity.
Answer: Lime addition or liming. Lime raises pH by neutralizing acidic water chemistry.
Answer: Promote renewable energy sources. Clean energy reduces fossil fuel combustion and emissions.
Answer: Ammonia can neutralize some acids in the atmosphere. Acts as a natural base to counteract atmospheric acidity.
Answer: It corrodes buildings and monuments, especially limestone. Acids react with calcium carbonate in stone, causing deterioration.
Answer: Sulfur dioxide (SO₂). Main precursor gas that forms sulfuric acid in atmosphere.
Answer: Catalytic converters in vehicles. These devices reduce NOₓ emissions from vehicle exhaust.
Answer: Contributes to natural acidity of rainwater. Forms when atmospheric CO₂ dissolves in water droplets.
Answer: Acidic gases and particles settling out of the atmosphere. Acidic compounds fall to earth without precipitation involvement.
Answer: Collecting and analyzing precipitation samples. Regular pH testing tracks acidification trends over time.
Answer: NOₓ + H₂O → HNO₃. Nitrogen oxides react with water to produce nitric acid.
Answer: pH 7. Neither acidic nor basic on the pH scale.
Answer: Granite. Dense crystalline structure resists chemical weathering by acids.
Answer: The Clean Air Act. Established emission standards to control acid rain precursors.
Answer: Volcanic eruptions releasing sulfur dioxide. Natural volcanic emissions contribute significant atmospheric sulfur.
Answer: Trees absorb and store acidic water, affecting soil and habitats. Forest canopy intercepts acidic precipitation, concentrating effects.
Answer: A pH value below 5.6. Normal rainwater is pH 5.6 due to natural carbonic acid formation.
Answer: Respiratory issues due to inhalation of fine particles. Acid rain precursors form harmful particulate matter in air.
Answer: Sulfur dioxide (SO₂) and nitrogen oxides (NOₓ). These gases react with water vapor to form acids in the atmosphere.
Answer: Forests and aquatic ecosystems. These ecosystems are particularly sensitive to pH changes.
Answer: Install scrubbers in industrial smokestacks. Scrubbers remove sulfur compounds before gases are released.
Answer: Soils low in calcium and magnesium. These soils lack buffering capacity to neutralize acids.
Answer: Lower pH levels can harm or kill aquatic organisms. Acidic water disrupts fish reproduction and survival rates.
Answer: Leaches essential nutrients like calcium and magnesium. Acid mobilizes nutrients, making them unavailable to plants.
Answer: United Nations Economic Commission for Europe (UNECE). European organization managing cross-border pollution agreements.
Answer: Catalytic converters in vehicles. These devices reduce NOₓ emissions from vehicle exhaust.
Answer: pH 7. Neither acidic nor basic on the pH scale.
Answer: Precipitation with a pH less than 5.6. Normal rain is slightly acidic at pH 5.6 due to dissolved CO₂.
Answer: Promote renewable energy sources. Clean energy reduces fossil fuel combustion and emissions.
Answer: Burning fossil fuels. Coal and oil combustion releases large amounts of sulfur compounds.
Answer: Volcanic eruptions releasing sulfur dioxide. Natural volcanic emissions contribute significant atmospheric sulfur.
Answer: Collecting and analyzing precipitation samples. Regular pH testing tracks acidification trends over time.
Answer: Damage to fisheries and agriculture. Reduced productivity and infrastructure damage cost billions annually.
Answer: Lower pH levels can harm or kill aquatic organisms. Acidic water disrupts fish reproduction and survival rates.
Answer: United Nations Economic Commission for Europe (UNECE). European organization managing cross-border pollution agreements.
Answer: A pH value below 5.6. Normal rainwater is pH 5.6 due to natural carbonic acid formation.
Answer: Calcium carbonate in limestone. This mineral neutralizes acids through chemical reactions.
Answer: Fish and amphibians. These species have limited ability to regulate internal pH.
Answer: Calcium carbonate in limestone. This mineral neutralizes acids through chemical reactions.
Answer: Sulfuric acid. Strong acid that aggressively attacks building materials.
Answer: Reduces visibility due to sulfate and nitrate particles. Fine acidic particles scatter light, creating haze conditions.
Answer: Burning fossil fuels. Coal and oil combustion releases large amounts of sulfur compounds.
Answer: The settling of acid or acid-forming pollutants from the atmosphere. Includes both wet and dry forms of acidic pollution fallout.
Answer: NOₓ + H₂O → HNO₃. Nitrogen oxides react with water to produce nitric acid.
Answer: Leaches essential nutrients like calcium and magnesium. Acid mobilizes nutrients, making them unavailable to plants.
Answer: Precipitation with a pH less than 5.6. Normal rain is slightly acidic at pH 5.6 due to dissolved CO₂.
Answer: Sulfur dioxide (SO₂) and nitrogen oxides (NOₓ). These gases react with water vapor to form acids in the atmosphere.