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This deck focuses on The Green Revolution, giving you a quick way to review the definitions, rules, and examples that matter most for AP Environmental Science.
Study The Green Revolution 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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Identify a health issue associated with the Green Revolution.
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Pesticide exposure. Chemical use led to poisoning and chronic health problems.
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This deck focuses on The Green Revolution, 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: Pesticide exposure. Chemical use led to poisoning and chronic health problems.
Answer: Chemical fertilizers. Synthetic nutrients essential for supporting high-yield crop varieties.
Answer: Displacement due to mechanization. Machines reduced need for manual labor, affecting employment.
Answer: A period of agricultural transformation with increased crop yields. Began in the 1940s-60s using improved seeds, fertilizers, and irrigation.
Answer: Mechanization. Machines replaced manual labor, increasing efficiency and scale.
Answer: Expansion of irrigation networks. Canals, pumps, and dams built to support water-intensive agriculture.
Answer: Water table depletion. Intensive irrigation led to groundwater overuse and aquifer depletion.
Answer: Dependency on chemical inputs. Farmers became reliant on expensive external inputs for production.
Answer: Southeast Asia. IR8 rice and other varieties revolutionized food production in the region.
Answer: Soil degradation. Heavy chemical use damaged soil structure and fertility over time.
Answer: Drip irrigation. Efficient water delivery system reduced waste and increased yields.
Answer: Government investment in agriculture. Public funding supported research, infrastructure, and farmer training programs.
Answer: Rice. IR8 and other high-yield rice varieties transformed Asian agriculture.
Answer: Soil degradation. Heavy chemical use damaged soil structure and fertility over time.
Answer: Government investment in agriculture. Public funding supported research, infrastructure, and farmer training programs.
Answer: Loss of crop genetic diversity. Monocultures replaced traditional diverse farming systems.
Answer: Loss of crop genetic diversity. Monocultures replaced traditional diverse farming systems.
Answer: Mechanization. Machines replaced manual labor, increasing efficiency and scale.
Answer: Reduction in hunger. Dramatically increased food availability in developing countries.
Answer: Water for irrigation. High-yield varieties required consistent water supply for optimal growth.
Answer: Mexico. Borlaug's wheat research began in Mexico in the 1940s.
Answer: Dwarf wheat varieties. Short-stemmed varieties that resisted lodging and produced higher yields.
Answer: Southeast Asia. IR8 rice and other varieties revolutionized food production in the region.
Answer: Yield improvement. Scientists developed varieties that produced more grain per plant.
Answer: Dependency on chemical inputs. Farmers became reliant on expensive external inputs for production.
Answer: Use of synthetic fertilizers. Chemical fertilizers provided essential nutrients for high-yield crops.
Answer: High-yield variety seeds. Genetically improved seeds produced much higher yields than traditional varieties.
Answer: Intensive farming. High-input, high-output systems replaced traditional extensive methods.
Answer: Sustainability of practices. Long-term viability questioned due to environmental and economic costs.
Answer: Crop rotation. Focus shifted to continuous monoculture for maximum yields.
Answer: Improved irrigation systems. Better water management enabled cultivation in previously unsuitable areas.
Answer: Crop rotation. Focus shifted to continuous monoculture for maximum yields.
Answer: Adoption of chemical pesticides. Farmers switched to chemical pest control methods for protection.
Answer: Wheat. Borlaug's dwarf wheat varieties dramatically increased yields in Mexico.
Answer: Increased pesticide use. Chemicals caused water pollution, soil contamination, and health risks.
Answer: Mexico. Borlaug's wheat research began in Mexico in the 1940s.
Answer: Nitrogen. Essential macronutrient for plant growth and protein synthesis.
Answer: Increased vulnerability to pests. Genetic uniformity made crops more susceptible to disease outbreaks.
Answer: Water table depletion. Intensive irrigation led to groundwater overuse and aquifer depletion.
Answer: Food security concerns. Growing populations needed increased food production to prevent famine.
Answer: Lower food prices. Increased supply reduced market prices for staple foods.
Answer: Nitrogen. Essential macronutrient for plant growth and protein synthesis.
Answer: Disease resistance. Bred to withstand common plant diseases and environmental stresses.
Answer: Dwarf wheat varieties. Short-stemmed varieties that resisted lodging and produced higher yields.
Answer: Displacement due to mechanization. Machines reduced need for manual labor, affecting employment.
Answer: Chemical fertilizers. Synthetic nutrients essential for supporting high-yield crop varieties.
Answer: Norman Borlaug. Won the Nobel Peace Prize for developing high-yield wheat varieties.
Answer: Rice. IR8 and other high-yield rice varieties transformed Asian agriculture.
Answer: Increased vulnerability to pests. Genetic uniformity made crops more susceptible to disease outbreaks.
Answer: Yield improvement. Scientists developed varieties that produced more grain per plant.
Answer: Increased agricultural exports. Surplus production allowed countries to sell crops internationally.
Answer: Increased income inequality. Wealthy farmers benefited more than small-scale farmers.
Answer: Norman Borlaug. Won the Nobel Peace Prize for developing high-yield wheat varieties.
Answer: India. Transformed from food importer to major agricultural exporter.
Answer: Expansion of irrigation networks. Canals, pumps, and dams built to support water-intensive agriculture.
Answer: Reduction in hunger. Dramatically increased food availability in developing countries.
Answer: Drip irrigation. Efficient water delivery system reduced waste and increased yields.
Answer: Adoption of chemical pesticides. Farmers switched to chemical pest control methods for protection.
Answer: Increased income inequality. Wealthy farmers benefited more than small-scale farmers.
Answer: Increase food production. Aimed to combat world hunger through agricultural modernization.
Answer: Food security concerns. Growing populations needed increased food production to prevent famine.
Answer: Increased rural income. Higher crop yields led to greater profits for farmers.
Answer: Intensive farming. High-input, high-output systems replaced traditional extensive methods.
Answer: Use of synthetic fertilizers. Chemical fertilizers provided essential nutrients for high-yield crops.
Answer: Sustainability of practices. Long-term viability questioned due to environmental and economic costs.
Answer: The Rockefeller Foundation. Funded agricultural research and development programs worldwide.