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This deck focuses on Types Of Chemical Bonds, giving you a quick way to review the definitions, rules, and examples that matter most for AP Chemistry.
Study Types Of Chemical Bonds in AP Chemistry with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
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Why do ionic compounds form crystal lattices?
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To maximize attraction and minimize repulsion between ions. Optimizes electrostatic interactions in three dimensions.
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This deck focuses on Types Of Chemical Bonds, giving you a quick way to review the definitions, rules, and examples that matter most for AP Chemistry.
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: To maximize attraction and minimize repulsion between ions. Optimizes electrostatic interactions in three dimensions.
Answer: Covalent bond. Carbon shares electrons equally with four hydrogen atoms.
Answer: Polar covalent bond. Nitrogen is more electronegative than hydrogen.
Answer: Covalent bond. Oxygen and hydrogen share electrons to form the molecule.
Answer: Covalent bond. Weaker intermolecular forces require less energy to overcome.
Answer: 120∘. Three atoms arranged in a flat triangle around a central atom.
Answer: 180∘. Two atoms bonded in a straight line configuration.
Answer: 109.5∘. Four atoms arranged around a central atom in 3D space.
Answer: 180∘. Two atoms bonded in a straight line configuration.
Answer: The energy required to separate a mole of an ionic solid into gaseous ions. Higher lattice energy indicates stronger ionic bonding.
Answer: Larger differences typically lead to ionic bonds; smaller to covalent. Generally, differences >1.7 are ionic, <0.4 are nonpolar covalent.
Answer: A covalent bond with equal sharing of electrons between atoms. Occurs when atoms have identical or very similar electronegativity.
Answer: Covalent bond. Oxygen and hydrogen share electrons to form the molecule.
Answer: Hydrogen and Helium achieve stability with 2 valence electrons. Applies because they only need to fill the 1s orbital.
Answer: Atoms tend to form bonds until they are surrounded by 8 valence electrons. Applies to most main group elements except hydrogen and helium.
Answer: Electrostatic attraction. Opposite charges attract according to Coulomb's law.
Answer: Hydrogen and Helium achieve stability with 2 valence electrons. Applies because they only need to fill the 1s orbital.
Answer: Methane (CH₄). Carbon and hydrogen have similar electronegativity values.
Answer: Atoms tend to form bonds until they are surrounded by 8 valence electrons. Applies to most main group elements except hydrogen and helium.
Answer: 120∘. Three atoms arranged in a flat triangle around a central atom.
Answer: Ionic bond. K+ and Br− ions form through electron transfer.
Answer: Attraction between free electrons and metal ions. Enables electrical conductivity in metals.
Answer: Ionic bond. Na+ and Cl− ions are held together by electrostatic forces.
Answer: Covalent bond. Oxygen and hydrogen share electrons to form the molecule.
Answer: Water (H₂O). Oxygen is more electronegative than hydrogen.
Answer: Metallic bond. Iron atoms share electrons in a metallic lattice.
Answer: 109.5∘. Four atoms arranged around a central atom in 3D space.
Answer: Triple covalent bond. More electron pairs shared means stronger attraction.
Answer: A covalent bond with equal sharing of electrons between atoms. Occurs when atoms have identical or very similar electronegativity.
Answer: A bond involving the sharing of electron pairs between atoms. Occurs when atoms have similar electronegativity values.
Answer: 180∘. Two atoms bonded in a straight line configuration.
Answer: Hydrogen and Helium achieve stability with 2 valence electrons. Applies because they only need to fill the 1s orbital.
Answer: A bond involving the sharing of electron pairs between atoms. Occurs when atoms have similar electronegativity values.
Answer: Polar covalent bond. Nitrogen is more electronegative than hydrogen.
Answer: Methane (CH₄). Carbon and hydrogen have similar electronegativity values.
Answer: Single covalent bond. Fewer electron pairs allow atoms to be farther apart.
Answer: Metallic bond. Mobile electrons can carry electric current.
Answer: The energy required to separate a mole of an ionic solid into gaseous ions. Higher lattice energy indicates stronger ionic bonding.
Answer: The average distance between nuclei of two bonded atoms. Represents the equilibrium distance between attractive and repulsive forces.
Answer: Ionic bond. Strong electrostatic forces require more energy to break.
Answer: The energy required to break one mole of bonds in gaseous molecules. Also called bond dissociation energy.
Answer: Ionic bond. Strong ionic attractions require high temperatures to overcome.
Answer: Metallic bond. Iron atoms share electrons in a metallic lattice.
Answer: The average distance between nuclei of two bonded atoms. Represents the equilibrium distance between attractive and repulsive forces.
Answer: Nonpolar covalent bond. Two identical chlorine atoms share electrons equally.
Answer: Ionic bond. Dissociated ions can move and conduct electricity in solution.
Answer: Ionic bond. Strong ionic attractions require high temperatures to overcome.
Answer: Covalent bond. Weaker intermolecular forces require less energy to overcome.
Answer: Covalent bond. Carbon shares electrons equally with four hydrogen atoms.
Answer: Metallic bond. Mobile electrons enable current flow in the solid state.
Answer: The average distance between nuclei of two bonded atoms. Represents the equilibrium distance between attractive and repulsive forces.
Answer: Metallic bond. Mobile electrons can carry electric current.
Answer: Metallic bond. Mobile electrons can carry electric current.
Answer: Metallic bond. Iron atoms share electrons in a metallic lattice.
Answer: Metallic bond. Allows metals to conduct electricity and be malleable.
Answer: Single covalent bond. Fewer electron pairs allow atoms to be farther apart.
Answer: A covalent bond where both electrons come from the same atom. Also called a dative bond, common in complex ions.
Answer: Sharing of electron pairs. Allows atoms to achieve stable electron configurations.
Answer: Attraction between free electrons and metal ions. Enables electrical conductivity in metals.
Answer: Ionic bond. K+ and Br− ions form through electron transfer.
Answer: A bond involving the sharing of electron pairs between atoms. Occurs when atoms have similar electronegativity values.
Answer: 109.5∘. Four atoms arranged around a central atom in 3D space.
Answer: Ionic bond. Strong electrostatic forces require more energy to break.
Answer: The energy required to break one mole of bonds in gaseous molecules. Also called bond dissociation energy.
Answer: Metallic bond. Mobile electrons enable current flow in the solid state.
Answer: Water (H₂O). Oxygen is more electronegative than hydrogen.
Answer: Triple covalent bond. More electron pairs shared means stronger attraction.
Answer: Covalent bond. Carbon and oxygen share electrons in double bonds.
Answer: Methane (CH₄). Carbon and hydrogen have similar electronegativity values.
Answer: 120∘. Three atoms arranged in a flat triangle around a central atom.
Answer: Metallic bond. Mobile electrons enable current flow in the solid state.
Answer: Nonpolar covalent bond. Both oxygen atoms have identical electronegativity.
Answer: A bond formed by the electrostatic attraction between oppositely charged ions. Forms between metals and nonmetals with large electronegativity differences.
Answer: Ionic bond. Mg2+ and O2− ions form an ionic compound.
Answer: To maximize attraction and minimize repulsion between ions. Optimizes electrostatic interactions in three dimensions.
Answer: A covalent bond where both electrons come from the same atom. Also called a dative bond, common in complex ions.
Answer: The energy required to break one mole of bonds in gaseous molecules. Also called bond dissociation energy.
Answer: Nonpolar covalent bond. Two identical chlorine atoms share electrons equally.
Answer: Polar covalent bond. Nitrogen is more electronegative than hydrogen.
Answer: A bond involving the attraction between free electrons and positively charged metal ions. Creates a 'sea of electrons' that can move freely throughout the metal structure.
Answer: Nonpolar covalent bond. Both oxygen atoms have identical electronegativity.
Answer: Ionic bond. Mg2+ and O2− ions form an ionic compound.
Answer: Ionic bond. Strong ionic attractions require high temperatures to overcome.
Answer: Ionic bond. Dissociated ions can move and conduct electricity in solution.
Answer: A bond formed by the electrostatic attraction between oppositely charged ions. Forms between metals and nonmetals with large electronegativity differences.
Answer: A bond involving the attraction between free electrons and positively charged metal ions. Creates a 'sea of electrons' that can move freely throughout the metal structure.
Answer: Nonpolar covalent bond. Both oxygen atoms have identical electronegativity.
Answer: Ionic bond. Strong electrostatic forces require more energy to break.
Answer: Ionic bond. Dissociated ions can move and conduct electricity in solution.
Answer: Atoms tend to form bonds until they are surrounded by 8 valence electrons. Applies to most main group elements except hydrogen and helium.
Answer: A bond involving the sharing of electron pairs between atoms. Occurs when atoms have similar electronegativity values.
Answer: Sharing of electron pairs. Allows atoms to achieve stable electron configurations.
Answer: Ionic bond. Na+ and Cl− ions are held together by electrostatic forces.
Answer: Ionic bond. Na+ and Cl− ions are held together by electrostatic forces.
Answer: The energy required to separate a mole of an ionic solid into gaseous ions. Higher lattice energy indicates stronger ionic bonding.
Answer: 180∘. Two atoms bonded in a straight line configuration.
Answer: A covalent bond with equal sharing of electrons between atoms. Occurs when atoms have identical or very similar electronegativity.
Answer: Covalent bond. Oxygen and hydrogen share electrons to form the molecule.
Answer: A covalent bond where both electrons come from the same atom. Also called a dative bond, common in complex ions.
Answer: Covalent bond. Carbon shares electrons equally with four hydrogen atoms.