What this deck covers
This deck focuses on Intramolecular Force And Potential Energy, giving you a quick way to review the definitions, rules, and examples that matter most for AP Chemistry.
Study Intramolecular Force And Potential Energy in AP Chemistry with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
0% Complete
Which bond is generally stronger: ionic or covalent?
Tap card or press Space to flip
Ionic bond. Complete electron transfer creates stronger electrostatic attraction than sharing.
How well did you know it?
Card 1 / 127
Space to flip · ← / → to move · once flipped, → Got it · ← Still learning
This deck focuses on Intramolecular Force And Potential Energy, 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: Ionic bond. Complete electron transfer creates stronger electrostatic attraction than sharing.
Answer: Covalent bond. Multiple electron pairs create the strongest intramolecular attraction between atoms.
Answer: Covalent bond. Electrons are shared between atoms rather than transferred completely.
Answer: Nonpolar covalent bond. Atoms with similar electronegativity share electrons equally between them.
Answer: Polar covalent bond. Oxygen is more electronegative than hydrogen, creating unequal electron sharing.
Answer: Bond length and strength. Shorter, stronger bonds have higher potential energy due to greater electron density.
Answer: Unstable bond. High energy indicates the bond is less stable and more reactive.
Answer: Double bond. Additional electron pairs in double bonds store more energy than single bonds.
Answer: Correct: 'Metallic bonds are non-directional.'. Metallic bonds extend in all directions, unlike directional covalent bonds.
Answer: Bond length and strength. Shorter, stronger bonds have higher potential energy due to greater electron density.
Answer: Nonpolar covalent bond. Carbon and hydrogen have similar electronegativity, creating equal electron sharing.
Answer: Triple bond. More electron pairs between atoms create shorter, stronger bonds.
Answer: Metallic bond. Delocalized electrons create the characteristic properties of metals.
Answer: Covalent bond. Multiple electron pairs create the strongest intramolecular attraction between atoms.
Answer: Triple bond. Three shared electron pairs create maximum electron density between atoms.
Answer: Double bond. Additional electron pairs in double bonds store more energy than single bonds.
Answer: The strength of the bond. Stronger bonds require more energy to break and have higher bond energies.
Answer: Polar covalent bond. Oxygen is more electronegative than hydrogen, creating unequal electron sharing.
Answer: Triple bond. More electron pairs between atoms create shorter, stronger bonds.
Answer: Polar covalent bond. Different electronegativity values cause unequal electron distribution between atoms.
Answer: Shorter bonds are generally stronger. Shorter distances allow stronger electrostatic attraction between bonded atoms.
Answer: Intramolecular force. These forces bind atoms within molecules, distinct from intermolecular forces.
Answer: Shorter bonds are generally stronger. Shorter distances allow stronger electrostatic attraction between bonded atoms.
Answer: Intramolecular force. These forces bind atoms within molecules, distinct from intermolecular forces.
Answer: Shorter bonds are generally stronger. Shorter distances allow stronger electrostatic attraction between bonded atoms.
Answer: Solid. Strong metallic bonding creates solid structures at room temperature.
Answer: Nonpolar covalent bond. Carbon and hydrogen have similar electronegativity, creating equal electron sharing.
Answer: Triple bond. More electron pairs between atoms create shorter, stronger bonds.
Answer: Potential energy. Chemical bonds store energy that can be released during reactions.
Answer: A force that holds atoms together within a molecule. Forces within molecules hold atoms together, unlike intermolecular forces between molecules.
Answer: Correct: 'Metallic bonds are non-directional.'. Metallic bonds extend in all directions, unlike directional covalent bonds.
Answer: Correct: 'Covalent bonds are strong.'. Covalent bonds are actually strong due to shared electron pair attraction.
Answer: Longer bonds have lower potential energy. Greater distance reduces electrostatic attraction, lowering stored energy.
Answer: Nonpolar covalent bond. Carbon and hydrogen have similar electronegativity, creating equal electron sharing.
Answer: Correct: 'Metallic bonds are non-directional.'. Metallic bonds extend in all directions, unlike directional covalent bonds.
Answer: Intramolecular force. These forces bind atoms within molecules, distinct from intermolecular forces.
Answer: Deeper curve indicates stronger bond. Deeper wells indicate more energy required to break the bond.
Answer: Metallic bond. Delocalized electrons create the characteristic properties of metals.
Answer: Shorter bonds are generally stronger. Shorter distances allow stronger electrostatic attraction between bonded atoms.
Answer: Nonpolar covalent bond. Atoms with similar electronegativity share electrons equally between them.
Answer: Unequal sharing of electrons. Different electronegativity creates partial charges on the bonded atoms.
Answer: The strength of the bond. Stronger bonds require more energy to break and have higher bond energies.
Answer: Covalent bond. Multiple electron pairs create the strongest intramolecular attraction between atoms.
Answer: A force that holds atoms together within a molecule. Forces within molecules hold atoms together, unlike intermolecular forces between molecules.
Answer: Potential energy. Chemical bonds store energy that can be released during reactions.
Answer: Unequal sharing of electrons. Different electronegativity creates partial charges on the bonded atoms.
Answer: Ionic bond. Electrons are completely transferred from one atom to another.
Answer: Correct: 'Ionic bonds transfer electrons.'. Ionic bonds involve complete electron transfer, not sharing like covalent bonds.
Answer: Correct: 'Covalent bonds are strong.'. Covalent bonds are actually strong due to shared electron pair attraction.
Answer: Unequal sharing of electrons. Different electronegativity creates partial charges on the bonded atoms.
Answer: Polar covalent bond. Oxygen is more electronegative than hydrogen, creating unequal electron sharing.
Answer: The strength of the bond. Stronger bonds require more energy to break and have higher bond energies.
Answer: Triple bond. Three electron pairs create the highest energy bond configuration.
Answer: Ionic bond. Ionic compounds like table salt form from metal-nonmetal electron transfer.
Answer: Longer bonds have lower potential energy. Greater distance reduces electrostatic attraction, lowering stored energy.
Answer: Correct: 'Ionic bonds transfer electrons.'. Ionic bonds involve complete electron transfer, not sharing like covalent bonds.
Answer: Correct: 'Ionic bonds transfer electrons.'. Ionic bonds involve complete electron transfer, not sharing like covalent bonds.
Answer: Delocalized electrons. Electrons move freely throughout the metal structure, creating conductivity.
Answer: Double bond. Additional electron pairs in double bonds store more energy than single bonds.
Answer: Deeper curve indicates stronger bond. Deeper wells indicate more energy required to break the bond.
Answer: Deeper curve indicates stronger bond. Deeper wells indicate more energy required to break the bond.
Answer: Ionic bond. Ionic compounds like table salt form from metal-nonmetal electron transfer.
Answer: Metallic bond. Delocalized electrons create the characteristic properties of metals.
Answer: Potential energy. Chemical bonds store energy that can be released during reactions.
Answer: Triple bond. Three shared electron pairs create maximum electron density between atoms.
Answer: Longer bonds have lower potential energy. Greater distance reduces electrostatic attraction, lowering stored energy.
Answer: Triple bond. Three shared electron pairs create maximum electron density between atoms.
Answer: Triple bond. Three electron pairs create the highest energy bond configuration.
Answer: A force that holds atoms together within a molecule. Forces within molecules hold atoms together, unlike intermolecular forces between molecules.
Answer: Bond length. Distance between atoms directly affects the stored bond energy.
Answer: Metallic bond. Electrons spread throughout the metal lattice rather than localized between atoms.
Answer: Correct: 'Covalent bonds are strong.'. Covalent bonds are actually strong due to shared electron pair attraction.
Answer: Triple bond. Three electron pairs store the most energy between bonded atoms.
Answer: Ionic bond. Electrons are completely transferred from one atom to another.
Answer: Potential energy. Chemical bonds store energy that can be released during reactions.
Answer: Covalent bond. Electrons are shared between atoms rather than transferred completely.
Answer: Nonpolar covalent bond. Carbon and hydrogen have similar electronegativity, creating equal electron sharing.
Answer: Bond length. Distance between atoms directly affects the stored bond energy.
Answer: Ionic bond. Ionic compounds like table salt form from metal-nonmetal electron transfer.
Answer: Ionic bond. Na⁺ and Cl⁻ ions are held together by electrostatic attraction.
Answer: Ionic bond. Na⁺ and Cl⁻ ions are held together by electrostatic attraction.
Answer: The strength of the bond. Stronger bonds require more energy to break and have higher bond energies.
Answer: Unequal sharing of electrons. Different electronegativity creates partial charges on the bonded atoms.
Answer: Correct: 'Covalent bonds are strong.'. Covalent bonds are actually strong due to shared electron pair attraction.
Answer: Triple bond. Three shared electron pairs create maximum electron density between atoms.
Answer: Longer bonds have lower potential energy. Greater distance reduces electrostatic attraction, lowering stored energy.
Answer: Deeper curve indicates stronger bond. Deeper wells indicate more energy required to break the bond.
Answer: Ionic bond. Electrons are completely transferred from one atom to another.
Answer: Bond length. Distance between atoms directly affects the stored bond energy.
Answer: Correct: 'Metallic bonds are non-directional.'. Metallic bonds extend in all directions, unlike directional covalent bonds.
Answer: Polar covalent bond. Different electronegativity values cause unequal electron distribution between atoms.
Answer: Ionic bond. Na⁺ and Cl⁻ ions are held together by electrostatic attraction.
Answer: Metallic bond. Electrons spread throughout the metal lattice rather than localized between atoms.
Answer: Nonpolar covalent bond. Atoms with similar electronegativity share electrons equally between them.
Answer: Polar covalent bond. Different electronegativity values cause unequal electron distribution between atoms.
Answer: Triple bond. Three electron pairs store the most energy between bonded atoms.
Answer: Metallic bond. Electrons spread throughout the metal lattice rather than localized between atoms.
Answer: Ionic bond. Complete electron transfer creates stronger electrostatic attraction than sharing.
Answer: Solid. Strong metallic bonding creates solid structures at room temperature.
Answer: Double bond. Additional electron pairs in double bonds store more energy than single bonds.