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This deck focuses on Cellular Energy, giving you a quick way to review the definitions, rules, and examples that matter most for AP Biology.
Study Cellular Energy in AP Biology 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 the process that generates ATP using a proton gradient.
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Chemiosmosis. Uses proton gradient to drive ATP formation.
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This deck focuses on Cellular Energy, giving you a quick way to review the definitions, rules, and examples that matter most for AP Biology.
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: Chemiosmosis. Uses proton gradient to drive ATP formation.
Answer: Blue and red wavelengths. Green light is reflected, not absorbed.
Answer: Water (H2O). Split by light to provide electrons and protons.
Answer: Glycolysis/Krebs cycle and oxidative phosphorylation. Electrons from metabolism power ATP synthesis.
Answer: Process where Rubisco adds O2 instead of CO2 to RuBP. Wasteful process that reduces photosynthetic efficiency.
Answer: Mitochondrion. Known as the powerhouse of the cell.
Answer: NADP+. Similar to NADH but used in photosynthetic reactions.
Answer: RuBP (Ribulose bisphosphate). Five-carbon sugar that accepts CO2 in carbon fixation.
Answer: C4 plants. Spatial separation prevents photorespiration in hot climates.
Answer: Photosystem II. First photosystem that oxidizes water molecules.
Answer: NADP+. Similar to NADH but used in photosynthetic reactions.
Answer: Direct transfer of a phosphate group to ADP to form ATP. ATP formed directly from substrate without electron transport.
Answer: Approximately 30-32 ATP. Complete oxidation yields maximum ATP from glucose.
Answer: ATP synthase. Uses proton gradient to drive ATP production.
Answer: Approximately 30-32 ATP. Complete oxidation yields maximum ATP from glucose.
Answer: C6H12O6+6O2→6CO2+6H2O+Energy (ATP). Glucose and oxygen react to produce carbon dioxide, water, and ATP.
Answer: Catalyzes the fixation of CO2. Key enzyme that combines CO2 with RuBP.
Answer: Blue and red wavelengths. Green light is reflected, not absorbed.
Answer: Stomata open at night to minimize water loss. Temporal separation conserves water in dry environments.
Answer: Pyruvate. Three-carbon molecule produced when glucose splits in half.
Answer: Ethanol. Produced by yeast during anaerobic fermentation.
Answer: 6CO2+6H2O+light energy→C6H12O6+6O2. Overall equation showing reactants and products of photosynthesis.
Answer: Glycolysis/Krebs cycle and oxidative phosphorylation. Electrons from metabolism power ATP synthesis.
Answer: Regenerate NAD+ for glycolysis. Allows glycolysis to continue when oxygen is unavailable.
Answer: C4 plants. Spatial separation prevents photorespiration in hot climates.
Answer: RuBP (Ribulose bisphosphate). Five-carbon sugar that accepts CO2 in carbon fixation.
Answer: Stroma of the chloroplast. Fluid-filled space surrounding thylakoid membranes.
Answer: Oxygen. Accepts electrons at the end of the transport chain.
Answer: Thylakoid membranes. Contains chlorophyll and photosystems for light capture.
Answer: Mitochondrial matrix. Innermost compartment of mitochondria where citric acid cycle occurs.
Answer: Chemiosmosis. Uses proton gradient to drive ATP formation.
Answer: Movement of ions across a semipermeable membrane, down their electrochemical gradient. Drives ATP synthesis using proton concentration differences.
Answer: Glycolysis. First stage breaks down glucose without oxygen.
Answer: 2 ATP. Four ATP produced minus two ATP invested equals net gain.
Answer: Electron carrier. Transfers high-energy electrons to the electron transport chain.
Answer: Oxidative phosphorylation. Generates about 28-30 ATP molecules through electron transport.
Answer: 2 ATP. Four ATP produced minus two ATP invested equals net gain.
Answer: Stomata open at night to minimize water loss. Temporal separation conserves water in dry environments.
Answer: Pyruvate. Three-carbon molecule produced when glucose splits in half.
Answer: To produce ATP and NADPH. Energy carriers needed for the Calvin cycle.
Answer: Photosystem II. First photosystem that oxidizes water molecules.
Answer: Mitochondrial matrix. Innermost compartment of mitochondria where citric acid cycle occurs.
Answer: Process where Rubisco adds O2 instead of CO2 to RuBP. Wasteful process that reduces photosynthetic efficiency.
Answer: Oxygen. Accepts electrons at the end of the transport chain.
Answer: Transfer electrons to create a proton gradient for ATP synthesis. Creates proton gradient that powers ATP synthase.
Answer: 6CO2+6H2O+light energy→C6H12O6+6O2. Overall equation showing reactants and products of photosynthesis.
Answer: Stroma of the chloroplast. Fluid-filled space surrounding thylakoid membranes.
Answer: Regenerate NAD+ for glycolysis. Allows glycolysis to continue when oxygen is unavailable.
Answer: To produce ATP and NADPH. Energy carriers needed for the Calvin cycle.
Answer: C6H12O6+6O2→6CO2+6H2O+Energy (ATP). Glucose and oxygen react to produce carbon dioxide, water, and ATP.
Answer: ATP, NADPH, and O2. Light reactions produce energy carriers and release oxygen.
Answer: ATP, NADPH, and O2. Light reactions produce energy carriers and release oxygen.
Answer: Water (H2O). Split by light to provide electrons and protons.
Answer: Chlorophyll. Green pigment that absorbs light energy.
Answer: Mitochondrion. Known as the powerhouse of the cell.
Answer: ATP synthase. Uses proton gradient to drive ATP production.
Answer: Acetyl-CoA. Two-carbon unit that enters the citric acid cycle.
Answer: To convert CO2 into glucose. Light-independent reactions that fix carbon dioxide.
Answer: Krebs cycle. Carbon atoms are removed as CO2 during this cycle.
Answer: Catalyzes the fixation of CO2. Key enzyme that combines CO2 with RuBP.
Answer: Photosynthesis. Plants capture sunlight to make glucose.
Answer: Transfers acetyl group to Krebs cycle. Carries acetyl groups from pyruvate to Krebs cycle.
Answer: Thylakoid membranes. Contains chlorophyll and photosystems for light capture.
Answer: To convert CO2 into glucose. Light-independent reactions that fix carbon dioxide.
Answer: Oxidative phosphorylation. Generates about 28-30 ATP molecules through electron transport.
Answer: Transfer electrons to create a proton gradient for ATP synthesis. Creates proton gradient that powers ATP synthase.
Answer: Lactic acid fermentation. Occurs during intense exercise when oxygen is limited.
Answer: Glycolysis. First stage breaks down glucose without oxygen.
Answer: Electron carrier. Transfers high-energy electrons to the electron transport chain.
Answer: ATP (Adenosine Triphosphate). Stores and releases energy through phosphate bonds.
Answer: Krebs cycle. Carbon atoms are removed as CO2 during this cycle.
Answer: Lactic acid fermentation. Occurs during intense exercise when oxygen is limited.
Answer: Acetyl-CoA. Two-carbon unit that enters the citric acid cycle.
Answer: Ethanol. Produced by yeast during anaerobic fermentation.
Answer: ATP (Adenosine Triphosphate). Stores and releases energy through phosphate bonds.
Answer: Photosynthesis. Plants capture sunlight to make glucose.