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This deck focuses on Explain Atom Rearrangement In Synthesis, giving you a quick way to review the definitions, rules, and examples that matter most for Biology.
Study Explain Atom Rearrangement In Synthesis 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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What is meant by "atoms are rearranged" during macromolecule synthesis?
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Atoms are conserved but recombined into new covalent bonds. Existing atoms form new molecular arrangements and bonds.
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This deck focuses on Explain Atom Rearrangement In Synthesis, 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: Atoms are conserved but recombined into new covalent bonds. Existing atoms form new molecular arrangements and bonds.
Answer: Ester bond (ester linkage). Forms between glycerol hydroxyl and fatty acid carboxyl.
Answer: Synthases or polymerases (depending on the polymer type). Catalyze dehydration synthesis to build polymers.
Answer: Lipids (for example, triglycerides and phospholipids). Glycerol backbone connects to fatty acid chains.
Answer: Glycosidic bond. Forms between sugar carbons via dehydration synthesis.
Answer: Phosphodiester bond. Breaks the sugar-phosphate backbone connections.
Answer: Dehydration synthesis (polymerization). Links monomers through dehydration synthesis reactions.
Answer: Both reactions are enzyme-catalyzed in cells. Enzymes catalyze both synthesis and breakdown reactions.
Answer: A triglyceride (triacylglycerol). Three ester bonds link glycerol to fatty acids.
Answer: Hydrolases (digestive enzymes). Catalyze hydrolysis to break down polymers.
Answer: Dehydration synthesis forming a glycosidic bond. Links two sugar molecules removing water.
Answer: Synthases or polymerases (depending on the polymer type). Catalyze dehydration synthesis to build polymers.
Answer: Conservation of mass (matter). Atoms cannot be created or destroyed in reactions.
Answer: Nitrogen (N). Essential for amino groups in amino acid structure.
Answer: Dehydration synthesis (condensation reaction). Removes H2O between monomers to form covalent bonds.
Answer: Conservation of mass (matter). Atoms cannot be created or destroyed in reactions.
Answer: Phosphate of one nucleotide to sugar of the next. Creates the continuous sugar-phosphate backbone chain.
Answer: Phospholipids have a phosphate group replacing one fatty acid. Creates amphipathic molecules for membranes.
Answer: Peptide bond. Links amino and carboxyl groups of adjacent amino acids.
Answer: Atoms are conserved but recombined into new covalent bonds. Existing atoms form new molecular arrangements and bonds.
Answer: Water (H2O). Formed when H from one monomer joins OH from another.
Answer: Reverse. Opposite processes that build and break polymers.
Answer: Hydroxyl group and carboxyl group. Glycerol OH reacts with fatty acid COOH group.
Answer: Phospholipids have a phosphate group replacing one fatty acid. Creates amphipathic molecules for membranes.
Answer: Phosphorus (P). Required for phosphate groups in nucleotide structure.
Answer: Hydrolysis breaking a glycosidic bond. Adds water to separate the sugar molecules.
Answer: Hydroxyl group and carboxyl group. Glycerol OH reacts with fatty acid COOH group.
Answer: A triglyceride (triacylglycerol). Three ester bonds link glycerol to fatty acids.
Answer: Dehydration synthesis (condensation reaction). Removes H2O between monomers to form covalent bonds.
Answer: Amino group and carboxyl group. The amino nitrogen bonds to the carboxyl carbon.
Answer: Carbohydrates. Simple sugars link to form complex carbohydrates.
Answer: Polynucleotide (nucleic acid strand). Chain of nucleotides forming DNA or RNA.
Answer: Polypeptide (protein when folded and functional). Amino acid chain that folds into functional protein.
Answer: Lipids (for example, triglycerides and phospholipids). Glycerol backbone connects to fatty acid chains.
Answer: Cellulose. Provides rigid structure to plant cell walls.
Answer: Phosphodiester bond. Connects phosphate to sugar creating the DNA/RNA backbone.
Answer: Cellulose. Provides rigid structure to plant cell walls.
Answer: Glycosidic bond. Hydrolysis breaks sugar linkages in carbohydrates.
Answer: Carbon, hydrogen, and oxygen (C, H, O). Primary elements in energy storage and structural molecules.
Answer: Hydrolysis. Breaks down food polymers into absorbable monomers.
Answer: Ester bond (ester linkage). Forms between glycerol hydroxyl and fatty acid carboxyl.
Answer: Two smaller molecules (monomers) are produced. Hydrolysis breaks polymer bonds using water.
Answer: The side chain (R group). Determines protein function and chemical properties.
Answer: Proteins (polypeptides). Amino acids join via peptide bonds to form chains.
Answer: Carbohydrates, lipids, proteins, nucleic acids. The main polymer categories in living organisms.
Answer: Glycogen (a polysaccharide). Animal energy storage polymer with branched structure.
Answer: Peptide bond. Links amino and carboxyl groups of adjacent amino acids.
Answer: Reverse. Opposite processes that build and break polymers.
Answer: Water (H2O). Formed when H from one monomer joins OH from another.
Answer: Polynucleotide (nucleic acid strand). Chain of nucleotides forming DNA or RNA.
Answer: Hydrolysis. Breaks down food polymers into absorbable monomers.
Answer: Dehydration synthesis (polymerization). Links monomers through dehydration synthesis reactions.
Answer: A small subunit that can covalently bond to form a polymer. Basic building blocks that join through covalent bonding.
Answer: Atoms share electrons to create stable covalent bonds. Electron sharing creates stable molecular bonds.
Answer: Phosphodiester bond. Breaks the sugar-phosphate backbone connections.
Answer: Atoms share electrons to create stable covalent bonds. Electron sharing creates stable molecular bonds.
Answer: Water (H2O). Water splits to provide H and OH to break the bond.
Answer: Peptide bond. Hydrolysis breaks the bonds linking amino acids.
Answer: Peptide bond. Hydrolysis breaks the bonds linking amino acids.
Answer: Phosphate of one nucleotide to sugar of the next. Creates the continuous sugar-phosphate backbone chain.
Answer: Carbon, hydrogen, and oxygen (C, H, O). Primary elements in energy storage and structural molecules.
Answer: The repeating N–C backbone (amino and carboxyl groups). Forms the repeating structural framework of proteins.
Answer: Two smaller molecules (monomers) are produced. Hydrolysis breaks polymer bonds using water.
Answer: Hydrolysis. Adds H2O to break bonds between monomers.
Answer: The side chain (R group). Determines protein function and chemical properties.
Answer: Dehydration synthesis forming a glycosidic bond. Links two sugar molecules removing water.
Answer: Hydrolases (digestive enzymes). Catalyze hydrolysis to break down polymers.
Answer: A large molecule made of many covalently linked monomers. Formed when many monomers link via covalent bonds.
Answer: Glycosidic bond. Hydrolysis breaks sugar linkages in carbohydrates.
Answer: 5′ to 3′ directionality. Direction based on carbon numbering in sugar ring.
Answer: Phosphorus (P). Required for phosphate groups in nucleotide structure.
Answer: Hydrolysis breaking a glycosidic bond. Adds water to separate the sugar molecules.
Answer: Hydrolysis. Breaks glycosidic bonds to release glucose units.
Answer: Both reactions are enzyme-catalyzed in cells. Enzymes catalyze both synthesis and breakdown reactions.
Answer: Monomers in polymers are primarily linked by covalent bonds. Covalent bonds provide stability to polymer structure.
Answer: Phosphate group, 5-carbon sugar, nitrogenous base. The basic structural units of DNA and RNA.
Answer: Nucleic acids (DNA and RNA). Nucleotides link through phosphodiester bonds.
Answer: Water (H2O) is produced. Dehydration synthesis removes water during polymer formation.
Answer: Nitrogen (N). Essential for amino groups in amino acid structure.
Answer: Carbohydrates, lipids, proteins, nucleic acids. The main polymer categories in living organisms.
Answer: A small subunit that can covalently bond to form a polymer. Basic building blocks that join through covalent bonding.
Answer: Polypeptide (protein when folded and functional). Amino acid chain that folds into functional protein.
Answer: Dehydration synthesis. Builds larger molecules from smaller subunits.
Answer: Glycosidic bond. Forms between sugar carbons via dehydration synthesis.
Answer: Starch (a polysaccharide). Plant energy storage polymer made from glucose.
Answer: Amino group and carboxyl group. The amino nitrogen bonds to the carboxyl carbon.
Answer: Hydrolysis. Breaks glycosidic bonds to release glucose units.
Answer: Phosphate group, 5-carbon sugar, nitrogenous base. The basic structural units of DNA and RNA.
Answer: Carbohydrates. Simple sugars link to form complex carbohydrates.
Answer: Proteins (polypeptides). Amino acids join via peptide bonds to form chains.
Answer: Hydrolysis. Adds H2O to break bonds between monomers.
Answer: Starch (a polysaccharide). Plant energy storage polymer made from glucose.
Answer: The repeating N–C backbone (amino and carboxyl groups). Forms the repeating structural framework of proteins.
Answer: 5′ to 3′ directionality. Direction based on carbon numbering in sugar ring.
Answer: Nucleic acids (DNA and RNA). Nucleotides link through phosphodiester bonds.
Answer: Water (H2O) is produced. Dehydration synthesis removes water during polymer formation.
Answer: Monomers in polymers are primarily linked by covalent bonds. Covalent bonds provide stability to polymer structure.