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This deck focuses on Structure Of Water And Hydrogen Bonding, giving you a quick way to review the definitions, rules, and examples that matter most for AP Biology.
Study Structure Of Water And Hydrogen Bonding 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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Which type of bond holds the hydrogen and oxygen atoms together in a water molecule?
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Covalent bond. Electrons are shared between atoms within the molecule.
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This deck focuses on Structure Of Water And Hydrogen Bonding, 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: Covalent bond. Electrons are shared between atoms within the molecule.
Answer: Adhesion. Water molecules attract to glass surfaces more than to each other.
Answer: Hydrogen bonding. Intermolecular forces between water molecules.
Answer: Bent or V-shaped. Lone pairs on oxygen create angular geometry.
Answer: 104.5 degrees. The bent molecular geometry creates this specific bond angle.
Answer: Cohesion. Intermolecular attraction pulls molecules into spherical shapes.
Answer: Cohesion. Intermolecular attraction pulls molecules into spherical shapes.
Answer: Adhesion. Attraction between water and polar cell wall components.
Answer: It stabilizes temperatures in aquatic environments. Prevents harmful temperature swings in aquatic habitats.
Answer: It stabilizes temperatures in aquatic environments. Prevents harmful temperature swings in aquatic habitats.
Answer: High heat capacity. Prevents rapid temperature changes that could harm cells.
Answer: Polar molecule. Unequal electron distribution creates positive and negative ends.
Answer: Bent or V-shaped. Lone pairs on oxygen create angular geometry.
Answer: High heat of vaporization. Large energy requirement for evaporation removes body heat effectively.
Answer: Hydrogen bonds form a lattice in ice. Rigid crystal structure creates spaces, reducing density.
Answer: Solvent properties. Dissolves reactants and facilitates molecular interactions.
Answer: Due to hydrogen bonding. Energy required to break bonds during melting phase transition.
Answer: Cohesion due to hydrogen bonding. Intermolecular attraction creates resistance at the surface.
Answer: H₂O. Contains two hydrogen atoms and one oxygen atom.
Answer: Hydrogen bonding. Energy required to break multiple hydrogen bonds during vaporization.
Answer: Polar molecule. Unequal electron distribution creates positive and negative ends.
Answer: Due to hydrogen bonding. Energy required to break bonds during melting phase transition.
Answer: 104.5 degrees. The bent molecular geometry creates this specific bond angle.
Answer: Oxygen is partially negative; hydrogen is partially positive. Oxygen pulls electrons more strongly, creating polarity.
Answer: Surface tension. Cohesive forces create a strong interface between water and air.
Answer: They absorb heat when breaking and release heat when forming. Energy storage in bond formation/breaking moderates temperature change.
Answer: High heat capacity. Hydrogen bonds absorb energy during temperature fluctuations.
Answer: High heat of vaporization. Large energy requirement for evaporation removes body heat effectively.
Answer: H₂O. Contains two hydrogen atoms and one oxygen atom.
Answer: Thermal stability. High heat capacity prevents rapid temperature fluctuations.
Answer: Hydrogen bonding. Intermolecular forces between water molecules.
Answer: They absorb heat when breaking and release heat when forming. Energy storage in bond formation/breaking moderates temperature change.
Answer: Hydrogen bond. Forms between the partial positive H and partial negative O of adjacent molecules.
Answer: Adhesion. Water molecules attract to different polar or charged surfaces.
Answer: Universal solvent. Polarity allows it to dissolve ionic and polar substances.
Answer: Ice is less dense due to hydrogen bonding. Crystal structure in ice creates less dense arrangement than liquid.
Answer: Covalent bond. Electrons are shared between atoms within the molecule.
Answer: Unequal sharing of electrons between oxygen and hydrogen. Oxygen's higher electronegativity creates charge separation.
Answer: Cohesion. Attraction between water molecules creates surface resistance.
Answer: Oxygen is partially negative; hydrogen is partially positive. Oxygen pulls electrons more strongly, creating polarity.
Answer: Polar, with partial negative on oxygen and partial positive on hydrogens. Electronegativity difference creates dipole moment.
Answer: Universal solvent. Polarity allows it to dissolve ionic and polar substances.
Answer: Solvent properties. Polarity allows dissolution and transport of nutrients.
Answer: Adhesion. Water molecules attract to glass surfaces more than to each other.
Answer: Cohesion due to hydrogen bonding. Intermolecular attraction creates resistance at the surface.
Answer: Solvent properties. Dissolves reactants and facilitates molecular interactions.
Answer: Hydrogen bond. Forms between the partial positive H and partial negative O of adjacent molecules.
Answer: Surface tension. Cohesive forces create a strong interface between water and air.
Answer: Adhesion. Attraction between water and polar cell wall components.
Answer: Four hydrogen bonds. Two from hydrogens and two from lone pairs on oxygen.
Answer: Thermal stability. High heat capacity prevents rapid temperature fluctuations.
Answer: High heat capacity. Hydrogen bonds absorb energy during temperature fluctuations.
Answer: Cohesion. Attraction between water molecules creates surface resistance.
Answer: Solvent properties. Polarity allows dissolution and transport of nutrients.
Answer: Unequal sharing of electrons between oxygen and hydrogen. Oxygen's higher electronegativity creates charge separation.
Answer: Polar, with partial negative on oxygen and partial positive on hydrogens. Electronegativity difference creates dipole moment.
Answer: High heat capacity. Prevents rapid temperature changes that could harm cells.
Answer: Hydrogen bonds form a lattice in ice. Rigid crystal structure creates spaces, reducing density.
Answer: Hydrogen bonding. Energy required to break multiple hydrogen bonds during vaporization.
Answer: Four hydrogen bonds. Two from hydrogens and two from lone pairs on oxygen.
Answer: Adhesion. Water molecules attract to different polar or charged surfaces.