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This deck focuses on Plate Tectonics, giving you a quick way to review the definitions, rules, and examples that matter most for AP Environmental Science.
Study Plate Tectonics 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 is the significance of the Mid-Atlantic Ridge?
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It is a divergent boundary where new oceanic crust forms. Demonstrates active seafloor spreading in the Atlantic.
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This deck focuses on Plate Tectonics, 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: It is a divergent boundary where new oceanic crust forms. Demonstrates active seafloor spreading in the Atlantic.
Answer: Subduction. Oceanic plates are recycled into the mantle at trenches.
Answer: Mountain ranges. Continental collision creates folded and uplifted terrain.
Answer: Radioactive decay in Earth's interior. Uranium, thorium, and potassium decay provides internal energy.
Answer: Alfred Wegener. German meteorologist who first proposed continental movement.
Answer: Convergent, divergent, and transform boundaries. The three ways plates can interact at their edges.
Answer: Movement along faults at plate boundaries. Sudden release of stress accumulated along plate boundaries.
Answer: Plates move apart, forming new crust at mid-ocean ridges. Separation allows magma to rise and solidify into new seafloor.
Answer: Several centimeters per year. Similar to fingernail growth rate, measurable by GPS.
Answer: Plates move apart, forming new crust at mid-ocean ridges. Separation allows magma to rise and solidify into new seafloor.
Answer: The process where one plate moves under another into the mantle. Denser oceanic plates sink beneath less dense continental plates.
Answer: A force exerted by a sinking plate during subduction. Gravitational force from dense subducting slabs pulls plates down.
Answer: By forming diverse habitats through geological activity. Mountain building and volcanism create varied environments for life.
Answer: It records the history of Earth's magnetic field and supports seafloor spreading. Ancient magnetic patterns preserved in rocks show plate motion.
Answer: A semi-fluid layer of the mantle on which tectonic plates move. The plastic layer beneath plates that allows movement.
Answer: A deep valley formed as tectonic plates move apart. Continental divergence creates elongated depressions.
Answer: They form above subducting plates and indicate active convergence. Curved volcanic chains mark active subduction zones.
Answer: A rigid segment of the lithosphere that moves over the asthenosphere. Large pieces of lithosphere that act as single units.
Answer: A force exerted by cooling, sinking lithosphere at mid-ocean ridges. Cooling lithosphere at ridges slides down and pushes plates.
Answer: An area with frequent earthquakes and volcanic eruptions around the Pacific Ocean. Results from numerous subduction zones around the Pacific.
Answer: Oceanic crust. Higher density causes oceanic crust to subduct beneath continental.
Answer: Subduction. Oceanic plates sink back into mantle, completing the cycle.
Answer: The process where one plate moves under another into the mantle. Denser oceanic plates sink beneath less dense continental plates.
Answer: The hypothesis that continents move across Earth's surface over time. Early theory explaining why continents fit together like puzzle pieces.
Answer: It records the history of Earth's magnetic field and supports seafloor spreading. Ancient magnetic patterns preserved in rocks show plate motion.
Answer: Volcanic mountain ranges. Oceanic plate subduction creates coastal volcanic chains.
Answer: Magnetic striping and age differences of rocks. Patterns show symmetric spreading from mid-ocean ridges.
Answer: A transform boundary. California's major fault where plates slide horizontally.
Answer: Fossil distribution, rock formations, and seafloor spreading. Multiple lines of evidence confirm plate movement theory.
Answer: By subduction of oceanic plates beneath continental or other oceanic plates. Subduction creates deep depressions in the ocean floor.
Answer: Convection currents in the mantle. Heat-driven circulation in the mantle pushes plates around.
Answer: A transform boundary. California's major fault where plates slide horizontally.
Answer: Mountain ranges. Continental collision creates folded and uplifted terrain.
Answer: Alfred Wegener. German meteorologist who first proposed continental movement.
Answer: Plates slide past one another, causing earthquakes. Lateral motion creates friction and sudden release of energy.
Answer: Convergent, divergent, and transform boundaries. The three ways plates can interact at their edges.
Answer: A semi-fluid layer of the mantle on which tectonic plates move. The plastic layer beneath plates that allows movement.
Answer: A force exerted by a sinking plate during subduction. Gravitational force from dense subducting slabs pulls plates down.
Answer: The lithosphere. The rigid outer shell that breaks into moving plates.
Answer: Plates collide, leading to mountain formation or subduction. Collision creates compression and vertical crustal movement.
Answer: Subduction. Oceanic plates are recycled into the mantle at trenches.
Answer: Radioactive decay in Earth's interior. Uranium, thorium, and potassium decay provides internal energy.
Answer: By subduction of oceanic plates beneath continental or other oceanic plates. Subduction creates deep depressions in the ocean floor.
Answer: Earth's lithosphere is divided into plates that move on the asthenosphere. The fundamental principle describing how Earth's surface moves and changes.
Answer: By altering ocean and atmospheric circulation patterns. Continental positions affect global weather and ocean currents.
Answer: A deep valley formed as tectonic plates move apart. Continental divergence creates elongated depressions.
Answer: A location where magma rises to Earth's surface independent of plate boundaries. Fixed volcanic source creates island chains as plates move.
Answer: Convection currents in the mantle. Heat-driven circulation in the mantle pushes plates around.
Answer: Fault lines. Fractures where plates slide past each other horizontally.
Answer: Oceanic crust. Higher density causes oceanic crust to subduct beneath continental.
Answer: Island arcs. Chains of volcanoes form when oceanic plates converge.
Answer: A force exerted by cooling, sinking lithosphere at mid-ocean ridges. Cooling lithosphere at ridges slides down and pushes plates.
Answer: The rigid outer layer of Earth, comprising the crust and upper mantle. Earth's strong outer layer that forms tectonic plates.
Answer: They create hotspots and volcanic activity. Rising columns of hot rock create volcanic activity.
Answer: The rigid outer layer of Earth, comprising the crust and upper mantle. Earth's strong outer layer that forms tectonic plates.
Answer: A rigid segment of the lithosphere that moves over the asthenosphere. Large pieces of lithosphere that act as single units.
Answer: It is a divergent boundary where new oceanic crust forms. Demonstrates active seafloor spreading in the Atlantic.
Answer: Several centimeters per year. Similar to fingernail growth rate, measurable by GPS.