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This deck focuses on Structure Of Ionic Solids, giving you a quick way to review the definitions, rules, and examples that matter most for AP Chemistry.
Study Structure Of Ionic Solids 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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Identify the ions present in CaBr2.
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Ca2+ and Br−. One divalent cation with two monovalent anions.
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This deck focuses on Structure Of Ionic Solids, 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: Ca2+ and Br−. One divalent cation with two monovalent anions.
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Answer: Mg^{2+} and O^{2-}. Divalent cation and anion create strong electrostatic attraction.
Answer: Al^{3+} and O^{2-}. Trivalent cation and divalent anion create very strong lattice.
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Answer: Octahedral. Six-fold coordination creates octahedral geometry around each ion.
Answer: Rigid and brittle. Fixed ionic positions create inflexible crystal structure.
Answer: Polarity. Polar water molecules can surround and solvate ionic charges.
Answer: Larger radii decrease lattice energy. Greater separation weakens electrostatic attraction between ions.
Answer: Generally increases solubility. Higher kinetic energy helps overcome lattice energy barriers.
Answer: Formation of hydrated ions. Water molecules surround separated ions through ion-dipole interactions.
Answer: Higher lattice energy decreases solubility. Stronger lattice forces resist dissolution in polar solvents.
Answer: Face-centered cubic structure. Similar size ions adopt rock salt structure.
Answer: Vibrational energy of ions. Higher kinetic energy causes increased lattice vibrations.
Answer: Non-conductive. Ions fixed in lattice positions prevent electrical conduction.
Answer: Energy required to separate one mole of an ionic solid into gaseous ions. Measures strength of ionic bonding in crystal lattice.
Answer: Cleavage along planes. Brittle fracture occurs along crystallographic planes of weakness.
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Answer: Brittleness. Rigid ionic arrangements fracture rather than deform under stress.
Answer: Lattice energy = krQ1Q2. Energy proportional to charge product, inversely proportional to distance.
Answer: Sr2+ and Cl−. One divalent cation with two monovalent anions.
Answer: Ionic solid. Contains Mg2+ and O2− ions held by ionic bonds.
Answer: Electrostatic attraction. Coulombic forces between positive and negative charges.
Answer: Ions must be free to move. Requires molten state or aqueous solution for ion mobility.
Answer: Energy required to separate one mole of an ionic solid into gaseous ions. Measures strength of ionic bonding in crystal lattice.
Answer: Higher charges increase lattice energy. Lattice energy proportional to product of ionic charges.
Answer: Octahedral. Six-fold coordination creates octahedral geometry around each ion.
Answer: Metal cations and nonmetal anions. Electron transfer creates oppositely charged ions that attract.
Answer: Crystal lattice. Regular three-dimensional arrangement of cations and anions.
Answer: High melting and boiling points. Strong electrostatic forces require significant energy to overcome.
Answer: Body-centered cubic structure. Simple cubic arrangement due to similar ionic sizes.
Answer: Na^{+} and O^{2-}. Two monovalent cations with one divalent anion.
Answer: CaF_2. One calcium cation with two fluoride anions.
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Answer: Strength of ionic bonds. Stronger ionic bonds create harder, more resistant materials.
Answer: Face-centered cubic structure. Similar size ions adopt rock salt structure.
Answer: Face-centered cubic structure. Also called rock salt structure with octahedral coordination.
Answer: Smaller ions increase melting point. Smaller ions pack more tightly, requiring more energy to separate.
Answer: NaCl. Equal numbers of monovalent cations and anions.
Answer: Ionic bonding. Electrostatic attraction between oppositely charged ions.
Answer: A crystalline solid composed of ions held together by electrostatic forces. Cations and anions arrange in repeating three-dimensional patterns.
Answer: Al^{3+} and O^{2-}. Trivalent cation and divalent anion create very strong lattice.