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This deck focuses on Introduction To Macromolecules, giving you a quick way to review the definitions, rules, and examples that matter most for AP Biology.
Study Introduction To Macromolecules 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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What is the main component of plant cell walls?
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Cellulose. Strong glucose polymer provides structural support and rigidity to plants.
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This deck focuses on Introduction To Macromolecules, 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: Cellulose. Strong glucose polymer provides structural support and rigidity to plants.
Answer: Lipids. Contains mostly nonpolar carbon-hydrogen bonds that repel water.
Answer: Provide energy. Glucose and other sugars are broken down to release ATP for cellular processes.
Answer: Peptide bond. Forms when the carboxyl group of one amino acid bonds to the amino group of another.
Answer: Polynucleotide. Long chain of nucleotides linked by phosphodiester bonds.
Answer: Cellulose. Strong glucose polymer provides structural support and rigidity to plants.
Answer: Store genetic information. Contains hereditary instructions passed from parents to offspring.
Answer: Energy storage. Fats store more energy per gram than carbohydrates or proteins.
Answer: Amino group. Contains nitrogen and gives amino acids their basic properties.
Answer: A-U, C-G. RNA uses uracil instead of thymine for complementary base pairing.
Answer: Glycosidic bond. Covalent bond formed between sugar molecules during dehydration synthesis.
Answer: Glycogen. Highly branched glucose polymer stored in liver and muscle cells.
Answer: Carbohydrates. Glucose is the preferred fuel molecule for cellular respiration.
Answer: Glucose. Simple sugar monomers connected by glycosidic bonds form this structural polymer.
Answer: Proteins, carbohydrates, lipids, nucleic acids. These are the essential large biological molecules found in all living organisms.
Answer: Glycosidic bond. Covalent bond formed between sugar molecules during dehydration synthesis.
Answer: Triglycerides. Energy storage lipids consisting of three fatty acid chains bonded to glycerol.
Answer: No double bonds in fatty acids. All carbon atoms in fatty acid chains have maximum hydrogen atoms.
Answer: Lipids. Contains mostly nonpolar carbon-hydrogen bonds that repel water.
Answer: Proteins, carbohydrates, lipids, nucleic acids. These are the essential large biological molecules found in all living organisms.
Answer: Proteins and lipids. Chemical messengers that regulate physiology and behavior.
Answer: DNA and RNA. These polynucleotides store and transmit genetic information in cells.
Answer: Polynucleotide. Long chain of nucleotides linked by phosphodiester bonds.
Answer: Proteins and lipids. Chemical messengers that regulate physiology and behavior.
Answer: Amino acids. Small organic compounds with amino and carboxyl groups that link to form proteins.
Answer: Nucleotides. Composed of a sugar, phosphate group, and nitrogenous base.
Answer: Carbohydrates. Glucose is the preferred fuel molecule for cellular respiration.
Answer: Triglycerides. Energy storage lipids consisting of three fatty acid chains bonded to glycerol.
Answer: Provide energy. Glucose and other sugars are broken down to release ATP for cellular processes.
Answer: Polypeptide. Linear sequence of amino acids connected by peptide bonds.
Answer: Steroid. Cholesterol and hormones like testosterone share this rigid carbon ring framework.
Answer: Nucleotides. Composed of a sugar, phosphate group, and nitrogenous base.
Answer: Tertiary structure. Overall folding pattern determines protein function and activity.
Answer: Lipid. Steroid molecule important for membrane fluidity and hormone synthesis.
Answer: Catalyze chemical reactions. Protein catalysts lower activation energy to speed up biochemical reactions.
Answer: Nucleic acids. DNA and RNA contain the instructions for life and heredity.
Answer: Deoxyribose. Five-carbon sugar lacking one hydroxyl group compared to ribose.
Answer: Protein synthesis. Carries genetic instructions from DNA to ribosomes for protein production.
Answer: Form cell membranes. Create selective barriers that control what enters and exits cells.
Answer: Proteins. Their diverse shapes allow them to catalyze biochemical reactions.
Answer: Amino acids. Small organic compounds with amino and carboxyl groups that link to form proteins.
Answer: Dehydration synthesis. Removes water molecules to join monomers together into polymers.
Answer: A-U, C-G. RNA uses uracil instead of thymine for complementary base pairing.
Answer: One or more double bonds in fatty acids. Creates kinks in fatty acid chains, affecting membrane fluidity.
Answer: Store genetic information. Contains hereditary instructions passed from parents to offspring.
Answer: Ester bond. Linkage formed during triglyceride synthesis via dehydration reaction.
Answer: Chitin. Modified cellulose polymer containing nitrogen that strengthens exoskeletons.
Answer: Amino group. Contains nitrogen and gives amino acids their basic properties.
Answer: Deoxyribose. Five-carbon sugar lacking one hydroxyl group compared to ribose.
Answer: Chitin. Modified cellulose polymer containing nitrogen that strengthens exoskeletons.
Answer: Tertiary structure. Overall folding pattern determines protein function and activity.
Answer: Protein synthesis. Carries genetic instructions from DNA to ribosomes for protein production.
Answer: No double bonds in fatty acids. All carbon atoms in fatty acid chains have maximum hydrogen atoms.
Answer: Proteins. Their diverse shapes allow them to catalyze biochemical reactions.
Answer: Glucose. Simple sugar monomers connected by glycosidic bonds form this structural polymer.
Answer: Ester bond. Linkage formed during triglyceride synthesis via dehydration reaction.
Answer: Steroid. Cholesterol and hormones like testosterone share this rigid carbon ring framework.
Answer: Phospholipids. Amphipathic molecules with hydrophilic heads and hydrophobic tails form bilayers.
Answer: Phospholipids. Amphipathic molecules with hydrophilic heads and hydrophobic tails form bilayers.
Answer: Glycogen. Highly branched glucose polymer stored in liver and muscle cells.
Answer: Ribose. Five-carbon sugar that forms the backbone of RNA nucleotides.
Answer: Polypeptide. Linear sequence of amino acids connected by peptide bonds.
Answer: Energy storage. Fats store more energy per gram than carbohydrates or proteins.
Answer: Lipid. Steroid molecule important for membrane fluidity and hormone synthesis.
Answer: A-T, C-G. Complementary base pairing rules for DNA double helix formation.
Answer: A-T, C-G. Complementary base pairing rules for DNA double helix formation.
Answer: Catalyze chemical reactions. Protein catalysts lower activation energy to speed up biochemical reactions.
Answer: Dehydration synthesis. Removes water molecules to join monomers together into polymers.
Answer: Hydrolysis. Adds water molecules to break bonds between monomers in polymers.
Answer: Hydrolysis. Adds water molecules to break bonds between monomers in polymers.
Answer: Form cell membranes. Create selective barriers that control what enters and exits cells.