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This deck focuses on Membrane Transport, giving you a quick way to review the definitions, rules, and examples that matter most for AP Biology.
Study Membrane Transport 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 effect of a hypertonic solution on a cell.
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The cell will lose water and shrink. Higher solute concentration outside causes water loss.
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This deck focuses on Membrane Transport, 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: The cell will lose water and shrink. Higher solute concentration outside causes water loss.
Answer: Phospholipid bilayer. Forms the basic structural framework of membranes.
Answer: To provide cellular recognition. Sugar chains help identify cell types and functions.
Answer: A model describing the cell membrane's structure. Phospholipids form fluid matrix with embedded proteins.
Answer: Higher temperature increases diffusion rate. Increased kinetic energy accelerates molecular movement.
Answer: The cell will lose water and shrink. Higher solute concentration outside causes water loss.
Answer: Transport of two substances in opposite directions. Exchange transport using the same carrier protein.
Answer: Ion channel transport. Protein channels allow selective ion passage.
Answer: To assist in the transport of substances across the membrane. Bind and transport specific molecules across membranes.
Answer: Facilitated diffusion. Passive transport requiring specific membrane proteins.
Answer: To transport substances and act as receptors. Span membrane providing transport and signaling functions.
Answer: To regulate the passage of substances into and out of the cell. Controls what enters/exits to maintain cellular homeostasis.
Answer: Diffusion. Net movement occurs until equilibrium is reached.
Answer: To support cell shape and function in signaling. Attached to membrane surface providing structural support.
Answer: To provide cellular recognition. Sugar chains help identify cell types and functions.
Answer: Bulk transport. Moves large quantities of materials using membrane vesicles.
Answer: To maintain membrane fluidity and stability. Regulates membrane flexibility at different temperatures.
Answer: Cotransport. Uses sodium gradient to transport glucose simultaneously.
Answer: The water concentration gradient. Water moves from high to low water concentration.
Answer: Exocytosis. Vesicle fusion releases contents to external environment.
Answer: Specific uptake of molecules. Targets specific molecules using receptor binding.
Answer: ATP (adenosine triphosphate). Energy currency that powers cellular work processes.
Answer: Symport. Coupled transport utilizing same carrier protein.
Answer: Exocytosis. Removes cellular waste and secretes products outside.
Answer: To maintain membrane fluidity and stability. Regulates membrane flexibility at different temperatures.
Answer: Active transport. Moves substances against gradients using cellular energy.
Answer: To transport substances and act as receptors. Span membrane providing transport and signaling functions.
Answer: Concentration gradient. Difference in solute concentration creates driving force.
Answer: Pinocytosis. Cell drinking process for nutrient uptake.
Answer: Passive transport. Movement follows natural concentration differences.
Answer: Endocytosis. Bulk transport bringing materials into the cell.
Answer: Cotransport. Uses sodium gradient to transport glucose simultaneously.
Answer: Receptor proteins. Detect and respond to external chemical signals.
Answer: Passive transport. No energy required as molecules move naturally down gradients.
Answer: Lipid composition. Fatty acid saturation determines membrane flexibility.
Answer: The water concentration gradient. Water moves from high to low water concentration.
Answer: Concentration gradient. Difference in solute concentration creates driving force.
Answer: The cell will gain water and swell. Lower solute concentration outside causes water influx.
Answer: To facilitate water transport across membranes. Specialized water channels for rapid water movement.
Answer: The diffusion of water across a selectively permeable membrane. Specific type of diffusion involving only water molecules.
Answer: Facilitated diffusion. Passive transport requiring specific membrane proteins.
Answer: Phospholipid bilayer. Hydrophobic core prevents charged particle passage.
Answer: A model describing the cell membrane's structure. Phospholipids form fluid matrix with embedded proteins.
Answer: Semi-permeable. Allows some substances through while blocking others.
Answer: Exocytosis. Vesicle fusion releases contents to external environment.
Answer: Semi-permeable. Allows some substances through while blocking others.
Answer: To facilitate cell-cell recognition and signaling. Carbohydrate-protein complexes enable cellular communication.
Answer: Bulk transport. Moves large quantities of materials using membrane vesicles.
Answer: The cell will gain water and swell. Lower solute concentration outside causes water influx.
Answer: Active transport. Moves substances against gradients using cellular energy.
Answer: Exocytosis. Removes cellular waste and secretes products outside.
Answer: Passive transport. Movement follows natural concentration differences.
Answer: Symport. Coupled transport utilizing same carrier protein.
Answer: To facilitate water transport across membranes. Specialized water channels for rapid water movement.
Answer: Higher temperature increases diffusion rate. Increased kinetic energy accelerates molecular movement.
Answer: Ion channel transport. Protein channels allow selective ion passage.
Answer: The diffusion of water across a selectively permeable membrane. Specific type of diffusion involving only water molecules.
Answer: Lipid composition. Fatty acid saturation determines membrane flexibility.
Answer: Osmotic pressure. Force created by water's tendency to move.
Answer: Phospholipid bilayer. Hydrophobic core prevents charged particle passage.
Answer: Facilitated diffusion. Large polar molecule requires protein assistance to cross.
Answer: A solution where solute concentration is equal inside and outside the cell. No net water movement occurs in balanced conditions.
Answer: Osmotic pressure. Force created by water's tendency to move.
Answer: A solution where solute concentration is equal inside and outside the cell. No net water movement occurs in balanced conditions.
Answer: To support cell shape and function in signaling. Attached to membrane surface providing structural support.
Answer: ATP (adenosine triphosphate). Energy currency that powers cellular work processes.
Answer: Endocytosis. Bulk transport bringing materials into the cell.
Answer: Specific uptake of molecules. Targets specific molecules using receptor binding.
Answer: To facilitate cell-cell recognition and signaling. Carbohydrate-protein complexes enable cellular communication.
Answer: Passive transport. No energy required as molecules move naturally down gradients.
Answer: Pinocytosis. Cell drinking process for nutrient uptake.
Answer: To assist in the transport of substances across the membrane. Bind and transport specific molecules across membranes.
Answer: Facilitated diffusion. Large polar molecule requires protein assistance to cross.
Answer: Receptor proteins. Detect and respond to external chemical signals.
Answer: Diffusion. Net movement occurs until equilibrium is reached.