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This deck focuses on Model Matter And Energy Cycling, giving you a quick way to review the definitions, rules, and examples that matter most for Biology.
Study Model Matter And Energy Cycling in 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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Which process is occurring if a cell consumes O2 and releases CO2 while making ATP?
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Aerobic cellular respiration. These are the characteristic inputs and outputs of cellular respiration.
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This deck focuses on Model Matter And Energy Cycling, giving you a quick way to review the definitions, rules, and examples that matter most for 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: Aerobic cellular respiration. These are the characteristic inputs and outputs of cellular respiration.
Answer: Inner mitochondrial membrane. This membrane contains the protein complexes that transport electrons.
Answer: To make ATP by breaking down organic molecules. This process extracts stored chemical energy for cellular work.
Answer: ATP. Glucose is broken down to transfer energy into this readily usable form.
Answer: CO2, H2O, and ATP (energy). These are the waste products and energy released from glucose breakdown.
Answer: C6H12O6+6O2→6CO2+6H2O+ATP. Breaks down glucose with oxygen to produce carbon dioxide, water, and ATP.
Answer: Photosynthesis. This equation shows light energy converting CO2 and water into glucose.
Answer: H2O. Oxygen combines with electrons and protons to form this molecule.
Answer: Stroma. This fluid-filled space contains the enzymes for carbon fixation.
Answer: Inner mitochondrial membrane. This membrane contains the protein complexes that transport electrons.
Answer: Endergonic (requires energy input). This process requires energy input to build glucose from smaller molecules.
Answer: Photosynthesis produces O2; respiration consumes O2. These processes cycle oxygen in opposite directions between organisms and atmosphere.
Answer: 6. Balance requires 6 carbon atoms on each side of the equation.
Answer: Photosynthesis produces O2; respiration consumes O2. These processes cycle oxygen in opposite directions between organisms and atmosphere.
Answer: 6CO2+6H2O+light→C6H12O6+6O2. Converts 6 carbon dioxide and 6 water molecules into glucose and oxygen using light.
Answer: Sugar (ultimately glucose, C6H12O6). The Calvin cycle produces this organic molecule from CO2 fixation.
Answer: Cellular respiration. This process breaks chemical bonds to release stored energy.
Answer: CO2. Plants absorb this gas from air to build glucose molecules.
Answer: C6H12O6 and O2. These molecules are consumed to release energy during cellular respiration.
Answer: Atoms in CO2, H2O, glucose, and O2 are rearranged and reused. Matter is conserved and recycled between these complementary processes.
Answer: Energy enters as light and leaves as heat; it does not cycle. Energy flows one-way through ecosystems and is ultimately lost as heat.
Answer: Exergonic (releases energy). This process releases energy by breaking down glucose molecules.
Answer: Respiration produces CO2; photosynthesis consumes CO2. These processes cycle carbon dioxide in opposite directions.
Answer: ATP and NADPH. These energy carriers power the Calvin cycle reactions.
Answer: Both autotrophs and heterotrophs. All living cells need ATP for energy, regardless of their feeding strategy.
Answer: Respiration produces CO2; photosynthesis consumes CO2. These processes cycle carbon dioxide in opposite directions.
Answer: Cellular respiration. This process breaks chemical bonds to release stored energy.
Answer: Light-dependent reactions. This stage captures light energy to produce ATP and electron carriers.
Answer: Photosynthesis. This equation shows light energy converting CO2 and water into glucose.
Answer: Endergonic (requires energy input). This process requires energy input to build glucose from smaller molecules.
Answer: 6. Balance requires 6 oxygen molecules to produce 6 CO2 molecules.
Answer: Calvin cycle (light-independent reactions). This stage uses ATP and NADPH to convert CO2 into sugar.
Answer: Aerobic cellular respiration. This equation shows glucose being oxidized to release energy as ATP.
Answer: 6. Balance requires 6 oxygen molecules to produce 6 CO2 molecules.
Answer: ATP and NADPH. These energy carriers power the Calvin cycle reactions.
Answer: Atoms in CO2, H2O, glucose, and O2 are rearranged and reused. Matter is conserved and recycled between these complementary processes.
Answer: Mitochondrial matrix. This inner compartment houses the enzymes for the citric acid cycle.
Answer: Light (radiant) energy from the Sun. Solar energy provides the power to drive photosynthetic reactions.
Answer: Covalent bonds of glucose (chemical energy). Light energy gets stored in the molecular bonds between carbon, hydrogen, and oxygen atoms.
Answer: C6H12O6 and O2. These are the molecules created during photosynthesis from the reactants.
Answer: C6H12O6 and O2. These molecules are consumed to release energy during cellular respiration.
Answer: C6H12O6 and O2. These are the molecules created during photosynthesis from the reactants.
Answer: Light-dependent reactions. This stage captures light energy to produce ATP and electron carriers.
Answer: Sugar (ultimately glucose, C6H12O6). The Calvin cycle produces this organic molecule from CO2 fixation.
Answer: Aerobic cellular respiration. This equation shows glucose being oxidized to release energy as ATP.
Answer: To produce sugars (chemical energy) from CO2 and H2O. This process converts inorganic molecules into organic energy-storing compounds.
Answer: Light (radiant) energy from the Sun. Solar energy provides the power to drive photosynthetic reactions.
Answer: O2. This molecule receives electrons at the end of the transport chain.
Answer: O2. This gas accepts electrons at the end of the electron transport chain.
Answer: Thylakoid membranes. These flattened sacs contain the pigments that capture light energy.
Answer: Chloroplast. This organelle contains chlorophyll and specialized membrane systems for photosynthesis.
Answer: CO2. This gas is produced when glucose carbon atoms are completely oxidized.
Answer: Photosynthesis. This process uses energy to assemble glucose from carbon dioxide.
Answer: Chloroplast. This organelle contains chlorophyll and specialized membrane systems for photosynthesis.
Answer: To produce sugars (chemical energy) from CO2 and H2O. This process converts inorganic molecules into organic energy-storing compounds.
Answer: Exergonic (releases energy). This process releases energy by breaking down glucose molecules.
Answer: H2O. Water molecules are split to provide electrons, releasing oxygen gas.
Answer: Krebs cycle (citric acid cycle). This cyclical pathway completely oxidizes acetyl groups to CO2.
Answer: Covalent bonds of glucose (chemical energy). Light energy gets stored in the molecular bonds between carbon, hydrogen, and oxygen atoms.
Answer: CO2. Plants absorb this gas from air to build glucose molecules.
Answer: Photosynthesis (carbon fixation in the Calvin cycle). This process incorporates atmospheric carbon into organic compounds.
Answer: Cellular respiration. This process releases carbon from organic molecules back to the atmosphere.
Answer: Glycolysis. This pathway breaks glucose into two pyruvate molecules.
Answer: CO2. This gas is produced when glucose carbon atoms are completely oxidized.
Answer: Mitochondrion. This organelle has the enzymes and structures needed for glucose breakdown.
Answer: Oxidative phosphorylation (electron transport chain + chemiosmosis). This process uses electron flow to pump protons and synthesize ATP.
Answer: CO2 and H2O (with light energy). These are the input molecules needed to build glucose during photosynthesis.
Answer: Chloroplast: makes sugars; mitochondrion: makes ATP from sugars. Each organelle has a distinct role in energy conversion processes.
Answer: CO2, H2O, and ATP (energy). These are the waste products and energy released from glucose breakdown.
Answer: O2. This gas is released as a byproduct when water molecules are split.
Answer: O2. This gas is released as a byproduct when water molecules are split.
Answer: Photosynthesis (carbon fixation in the Calvin cycle). This process incorporates atmospheric carbon into organic compounds.
Answer: CO2 and H2O (with light energy). These are the input molecules needed to build glucose during photosynthesis.
Answer: Oxidative phosphorylation (electron transport chain + chemiosmosis). This process uses electron flow to pump protons and synthesize ATP.
Answer: Chloroplast: makes sugars; mitochondrion: makes ATP from sugars. Each organelle has a distinct role in energy conversion processes.
Answer: H2O. Water molecules are split to provide electrons, releasing oxygen gas.
Answer: C6H12O6+6O2→6CO2+6H2O+ATP. Breaks down glucose with oxygen to produce carbon dioxide, water, and ATP.
Answer: H2O. Oxygen combines with electrons and protons to form this molecule.
Answer: ATP. Glucose is broken down to transfer energy into this readily usable form.
Answer: Calvin cycle (light-independent reactions). This stage uses ATP and NADPH to convert CO2 into sugar.
Answer: 6CO2+6H2O+light→C6H12O6+6O2. Converts 6 carbon dioxide and 6 water molecules into glucose and oxygen using light.
Answer: Photosynthesis. This process uses energy to assemble glucose from carbon dioxide.
Answer: Cellular respiration. This process releases carbon from organic molecules back to the atmosphere.
Answer: Mitochondrion. This organelle has the enzymes and structures needed for glucose breakdown.
Answer: Energy enters as light and leaves as heat; it does not cycle. Energy flows one-way through ecosystems and is ultimately lost as heat.
Answer: Both autotrophs and heterotrophs. All living cells need ATP for energy, regardless of their feeding strategy.
Answer: Thylakoid membranes. These flattened sacs contain the pigments that capture light energy.
Answer: Aerobic cellular respiration. These are the characteristic inputs and outputs of cellular respiration.
Answer: To make ATP by breaking down organic molecules. This process extracts stored chemical energy for cellular work.
Answer: O2. This molecule receives electrons at the end of the transport chain.
Answer: Mitochondrial matrix. This inner compartment houses the enzymes for the citric acid cycle.
Answer: 6. Balance requires 6 carbon atoms on each side of the equation.
Answer: Krebs cycle (citric acid cycle). This cyclical pathway completely oxidizes acetyl groups to CO2.
Answer: Stroma. This fluid-filled space contains the enzymes for carbon fixation.
Answer: O2. This gas accepts electrons at the end of the electron transport chain.
Answer: Autotrophs. These organisms can make their own food through photosynthesis.
Answer: Glycolysis. This pathway breaks glucose into two pyruvate molecules.
Answer: Cytoplasm (cytosol). This cellular compartment is where glucose is initially broken down.
Answer: Cytoplasm (cytosol). This cellular compartment is where glucose is initially broken down.
Answer: Autotrophs. These organisms can make their own food through photosynthesis.