AP Chemistry Flashcards: Vsepr And Hybridization

Study Vsepr And Hybridization in AP Chemistry with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.

AP Chemistry

Vsepr And Hybridization

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QUESTION
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Identify the electron geometry of a molecule with 5 bonding pairs and no lone pairs.

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ANSWER

Trigonal Bipyramidal. Five electron domains arrange in bipyramidal shape with axial and equatorial positions.

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Flashcard 1: Identify the electron geometry of a molecule with 5 bonding pairs and no lone pairs.

Answer: Trigonal Bipyramidal. Five electron domains arrange in bipyramidal shape with axial and equatorial positions.

Flashcard 2: What is the bond angle in a molecule with octahedral geometry?

Answer: 90°. Adjacent bonds in octahedral geometry are perpendicular.

Flashcard 3: What hybridization corresponds to trigonal planar geometry?

Answer: sp2sp^2. Three electron domains require three hybrid orbitals from ss and two pp.

Flashcard 4: What hybridization corresponds to trigonal planar geometry?

Answer: sp2sp^2. Three electron domains require three hybrid orbitals from ss and two pp.

Flashcard 5: What is the bond angle in a molecule with trigonal planar geometry?

Answer: 120°. Three electron domains spread equally around 360° gives 120° angles.

Flashcard 6: Determine the molecular geometry of SF₆.

Answer: Octahedral. Six bonding pairs around sulfur with no lone pairs gives octahedral shape.

Flashcard 7: Identify the molecular geometry for a molecule with 6 electron groups and no lone pairs.

Answer: Octahedral. Six electron groups arrange symmetrically around central atom.

Flashcard 8: What is the hybridization of the central atom in carbon tetrachloride (CCl₄)?

Answer: sp3sp^3. Four bonding pairs around carbon require sp3sp^3 hybridization.

Flashcard 9: Determine the molecular geometry of ClF₃.

Answer: T-shaped. Three bonding pairs and two lone pairs create T-shaped arrangement.

Flashcard 10: Determine the hybridization of an atom with 3 sigma bonds and no lone pairs.

Answer: sp2sp^2. Three electron domains require ss + two pp hybrid orbitals.

Flashcard 11: State the hybridization of the central atom in a molecule with tetrahedral geometry.

Answer: sp3sp^3. Four electron domains require four hybrid orbitals from ss and three pp orbitals.

Flashcard 12: Which molecular shape results from 2 bonding pairs and 2 lone pairs?

Answer: Bent. Four electron domains with two lone pairs creates bent molecular shape.

Flashcard 13: What is the molecular geometry of a molecule with 2 bonding pairs and no lone pairs?

Answer: Linear. Two bonding pairs arrange in straight line to minimize repulsion.

Flashcard 14: Determine the hybridization of an atom with 2 sigma bonds and 2 lone pairs.

Answer: sp3sp^3. Total of four electron domains requires sp3sp^3 hybridization.

Flashcard 15: What is the molecular geometry of a molecule with 2 bonding pairs and 1 lone pair?

Answer: Bent. Lone pair forces two bonding pairs into bent arrangement.

Flashcard 16: What hybridization corresponds to a linear molecular geometry?

Answer: spsp. Two electron domains require two hybrid orbitals from ss and pp.

Flashcard 17: State the hybridization of the central atom in a molecule with tetrahedral geometry.

Answer: sp3sp^3. Four electron domains require four hybrid orbitals from ss and three pp orbitals.

Flashcard 18: Determine the hybridization of an atom with 3 sigma bonds and no lone pairs.

Answer: sp2sp^2. Three electron domains require ss + two pp hybrid orbitals.

Flashcard 19: What is the molecular geometry of a molecule with 2 bonding pairs and 1 lone pair?

Answer: Bent. Lone pair forces two bonding pairs into bent arrangement.

Flashcard 20: Identify the hybridization of the central atom in ethyne (C2H2C_2H_2).

Answer: spsp. Triple bond creates two electron domains requiring spsp hybridization.

Flashcard 21: Identify the electron geometry for a molecule with 2 electron domains.

Answer: Linear. Two electron domains arrange in a straight line to minimize repulsion.

Flashcard 22: What is the bond angle in a molecule with trigonal planar geometry?

Answer: 120°. Three electron domains spread equally around 360° gives 120° angles.

Flashcard 23: Identify the molecular geometry for a molecule with 3 bonding pairs and no lone pairs.

Answer: Trigonal Planar. Three bonding pairs arrange in flat triangular shape.

Flashcard 24: What is the molecular geometry of water (H₂O)?

Answer: Bent. Two lone pairs on oxygen force bonding pairs into bent arrangement.

Flashcard 25: Determine the molecular geometry of ClF₃.

Answer: T-shaped. Three bonding pairs and two lone pairs create T-shaped arrangement.

Flashcard 26: Identify the molecular geometry for a molecule with 3 bonding pairs and no lone pairs.

Answer: Trigonal Planar. Three bonding pairs arrange in flat triangular shape.

Flashcard 27: Identify the electron geometry for a molecule with 6 electron domains.

Answer: Octahedral. Electron geometry includes all six electron domains around central atom.

Flashcard 28: Which molecular shape results from 2 bonding pairs and 2 lone pairs?

Answer: Bent. Four electron domains with two lone pairs creates bent molecular shape.

Flashcard 29: What is the hybridization of the central atom in carbon dioxide (CO₂)?

Answer: spsp. Two double bonds around carbon create two electron domains.

Flashcard 30: What hybridization corresponds to a linear molecular geometry?

Answer: spsp. Two electron domains require two hybrid orbitals from ss and pp.

Flashcard 31: Determine the molecular geometry of XeF₂.

Answer: Linear. Three lone pairs occupy equatorial positions, leaving linear molecular shape.

Flashcard 32: Determine the hybridization of an atom with 3 sigma bonds and 1 lone pair.

Answer: sp3sp^3. Total of four electron domains requires four hybrid orbitals.

Flashcard 33: Determine the hybridization of an atom with 3 sigma bonds and 1 lone pair.

Answer: sp3sp^3. Total of four electron domains requires four hybrid orbitals.

Flashcard 34: What is the hybridization of the carbon atom in ethene (C₂H₄)?

Answer: sp2sp^2. Three electron domains around carbon require ss + two pp orbitals.

Flashcard 35: What is the hybridization of the central atom in boron trifluoride (BF₃)?

Answer: sp2sp^2. Three bonding pairs around boron require sp2sp^2 hybridization.

Flashcard 36: Identify the electron geometry for a molecule with 3 electron domains.

Answer: Trigonal Planar. Three electron domains spread in a flat plane around central atom.

Flashcard 37: What is the molecular geometry for a molecule with 4 bonding pairs and 1 lone pair?

Answer: Seesaw. One lone pair distorts trigonal bipyramidal to seesaw shape.

Flashcard 38: Determine the molecular geometry of ClF₃.

Answer: T-shaped. Three bonding pairs and two lone pairs create T-shaped arrangement.

Flashcard 39: What is the hybridization of the carbon atom in ethene (C₂H₄)?

Answer: sp2sp^2. Three electron domains around carbon require ss + two pp orbitals.

Flashcard 40: What is the hybridization of the carbon atom in ethene (C2H4\mathrm{C_2H_4})?

Answer: sp2sp^2. Three electron domains around carbon require ss + two pp orbitals.

Flashcard 41: What is the molecular geometry of a molecule with 3 bonding pairs and 1 lone pair?

Answer: Trigonal Pyramidal. Lone pair occupies more space, pushing bonding pairs into pyramid shape.

Flashcard 42: Determine the hybridization of an atom with 3 sigma bonds and no lone pairs.

Answer: sp2sp^2. Three electron domains require ss + two pp hybrid orbitals.

Flashcard 43: What is the molecular geometry of a molecule with 3 bonding pairs and 1 lone pair?

Answer: Trigonal Pyramidal. Lone pair occupies more space, pushing bonding pairs into pyramid shape.

Flashcard 44: What is the molecular geometry of a molecule with 5 bonding pairs and 1 lone pair?

Answer: Square Pyramidal. One lone pair distorts octahedral to create square pyramid.

Flashcard 45: What is the bond angle in a molecule with linear geometry?

Answer: 180°. Two electron domains are positioned directly opposite each other.

Flashcard 46: What is the hybridization of the nitrogen atom in ammonia (NH3\mathrm{NH_3})?

Answer: sp3sp^3. Four electron domains around nitrogen (3 bonds + 1 lone pair) need sp3sp^3.

Flashcard 47: Identify the molecular geometry for a molecule with 5 bonding pairs and no lone pairs.

Answer: Trigonal Bipyramidal. Five bonding pairs create bipyramidal shape with axial and equatorial bonds.

Flashcard 48: What is the bond angle in a molecule with octahedral geometry?

Answer: 90°. Adjacent bonds in octahedral geometry are perpendicular.

Flashcard 49: What is the hybridization of the central atom in boron trifluoride (BF₃)?

Answer: sp2sp^2. Three bonding pairs around boron require sp2sp^2 hybridization.

Flashcard 50: Identify the hybridization of the central atom in ethyne (C₂H₂).

Answer: spsp. Triple bond creates two electron domains requiring spsp hybridization.

Flashcard 51: What is the hybridization of the central atom in boron trifluoride (BF₃)?

Answer: sp2sp^2. Three bonding pairs around boron require sp2sp^2 hybridization.

Flashcard 52: What is the molecular geometry of a molecule with 2 bonding pairs and no lone pairs?

Answer: Linear. Two bonding pairs arrange in straight line to minimize repulsion.

Flashcard 53: Identify the molecular geometry for a molecule with 6 electron groups and no lone pairs.

Answer: Octahedral. Six electron groups arrange symmetrically around central atom.

Flashcard 54: Identify the hybridization of the central atom in ethyne (C₂H₂).

Answer: spsp. Triple bond creates two electron domains requiring spsp hybridization.

Flashcard 55: Identify the electron geometry of a molecule with 4 bonding pairs and 1 lone pair.

Answer: Trigonal Bipyramidal. Electron geometry considers all five electron domains, not just bonding.

Flashcard 56: Identify the molecular geometry for a molecule with 5 bonding pairs and no lone pairs.

Answer: Trigonal Bipyramidal. Five bonding pairs create bipyramidal shape with axial and equatorial bonds.

Flashcard 57: Identify the electron geometry for a molecule with 6 electron domains.

Answer: Octahedral. Electron geometry includes all six electron domains around central atom.

Flashcard 58: What is the molecular geometry of a molecule with 2 bonding pairs and 1 lone pair?

Answer: Bent. Lone pair forces two bonding pairs into bent arrangement.

Flashcard 59: Identify the molecular geometry of a molecule with 4 bonding pairs and no lone pairs.

Answer: Tetrahedral. Four bonding pairs arrange in three-dimensional tetrahedral shape.

Flashcard 60: What is the molecular geometry of a molecule with 5 bonding pairs and 1 lone pair?

Answer: Square Pyramidal. One lone pair distorts octahedral to create square pyramid.

Flashcard 61: Identify the bond angle in a molecule with trigonal bipyramidal geometry.

Answer: 90° and 120°. Axial positions are 90° from equatorial; equatorial are 120° apart.

Flashcard 62: What is the bond angle in a molecule with octahedral geometry?

Answer: 90°. Adjacent bonds in octahedral geometry are perpendicular.

Flashcard 63: What is the bond angle in a molecule with trigonal planar geometry?

Answer: 120°. Three electron domains spread equally around 360° gives 120° angles.

Flashcard 64: Which molecular shape results from 2 bonding pairs and 2 lone pairs?

Answer: Bent. Four electron domains with two lone pairs creates bent molecular shape.

Flashcard 65: What is the molecular geometry of water (H₂O)?

Answer: Bent. Two lone pairs on oxygen force bonding pairs into bent arrangement.

Flashcard 66: Identify the electron geometry for a molecule with 2 electron domains.

Answer: Linear. Two electron domains arrange in a straight line to minimize repulsion.

Flashcard 67: What is the hybridization of the central atom in carbon dioxide (CO₂)?

Answer: spsp. Two double bonds around carbon create two electron domains.

Flashcard 68: Identify the molecular geometry for a molecule with 5 bonding pairs and no lone pairs.

Answer: Trigonal Bipyramidal. Five bonding pairs create bipyramidal shape with axial and equatorial bonds.

Flashcard 69: What is the hybridization of the central atom in methane (CH₄)?

Answer: sp3sp^3. Four bonding pairs around carbon require sp3sp^3 hybridization.

Flashcard 70: What is the bond angle in a molecule with tetrahedral geometry?

Answer: 109.5°. Four electron domains arrange at equal angles in 3D space.

Flashcard 71: Identify the electron geometry for a molecule with 3 electron domains.

Answer: Trigonal Planar. Three electron domains spread in a flat plane around central atom.

Flashcard 72: What is the hybridization of the central atom in methane (CH₄)?

Answer: sp3sp^3. Four bonding pairs around carbon require sp3sp^3 hybridization.

Flashcard 73: What is the molecular geometry of a molecule with 2 bonding pairs and no lone pairs?

Answer: Linear. Two bonding pairs arrange in straight line to minimize repulsion.

Flashcard 74: Determine the molecular geometry of SF₆.

Answer: Octahedral. Six bonding pairs around sulfur with no lone pairs gives octahedral shape.

Flashcard 75: What does VSEPR stand for in chemistry?

Answer: Valence Shell Electron Pair Repulsion. Theory that predicts molecular geometry based on electron pair repulsion.

Flashcard 76: Identify the electron geometry for a molecule with 6 electron domains.

Answer: Octahedral. Electron geometry includes all six electron domains around central atom.

Flashcard 77: What is the hybridization of the central atom in methane (CH₄)?

Answer: sp3sp^3. Four bonding pairs around carbon require sp3sp^3 hybridization.

Flashcard 78: Which molecular geometry does a molecule with 4 bonding pairs and 2 lone pairs have?

Answer: Square Planar. Two axial lone pairs force bonding pairs into a square arrangement.

Flashcard 79: Determine the hybridization of an atom with 2 sigma bonds and 2 lone pairs.

Answer: sp3sp^3. Total of four electron domains requires sp3sp^3 hybridization.

Flashcard 80: What is the bond angle in a molecule with linear geometry?

Answer: 180°. Two electron domains are positioned directly opposite each other.

Flashcard 81: Identify the molecular geometry for a molecule with 6 electron groups and no lone pairs.

Answer: Octahedral. Six electron groups arrange symmetrically around central atom.

Flashcard 82: What is the bond angle in a molecule with trigonal planar geometry?

Answer: 120°. Three electron domains spread equally around 360° gives 120° angles.

Flashcard 83: Identify the electron geometry of a molecule with 5 bonding pairs and no lone pairs.

Answer: Trigonal Bipyramidal. Five electron domains arrange in bipyramidal shape with axial and equatorial positions.

Flashcard 84: Identify the bond angle in a molecule with trigonal bipyramidal geometry.

Answer: 90° and 120°. Axial positions are 90° from equatorial; equatorial are 120° apart.

Flashcard 85: Which molecular shape results from 2 bonding pairs and 2 lone pairs?

Answer: Bent. Four electron domains with two lone pairs creates bent molecular shape.

Flashcard 86: What is the molecular geometry of a molecule with 3 bonding pairs and 1 lone pair?

Answer: Trigonal Pyramidal. Lone pair occupies more space, pushing bonding pairs into pyramid shape.

Flashcard 87: Identify the electron geometry of a molecule with 5 bonding pairs and no lone pairs.

Answer: Trigonal Bipyramidal. Five electron domains arrange in bipyramidal shape with axial and equatorial positions.

Flashcard 88: State the hybridization of the central atom in a molecule with tetrahedral geometry.

Answer: sp3sp^3. Four electron domains require four hybrid orbitals from ss and three pp orbitals.

Flashcard 89: Identify the electron geometry for a molecule with 2 electron domains.

Answer: Linear. Two electron domains arrange in a straight line to minimize repulsion.

Flashcard 90: Identify the electron geometry of a molecule with 4 bonding pairs and 1 lone pair.

Answer: Trigonal Bipyramidal. Electron geometry considers all five electron domains, not just bonding.

Flashcard 91: What is the hybridization of the carbon atom in ethene (C2H4C_2H_4)?

Answer: sp2sp^2. Three electron domains around carbon require ss + two pp orbitals.

Flashcard 92: Determine the hybridization of an atom with 3 sigma bonds and 1 lone pair.

Answer: sp3sp^3. Total of four electron domains requires four hybrid orbitals.

Flashcard 93: What is the hybridization of the central atom in carbon tetrachloride (CCl4CCl_4)?

Answer: sp3sp^3. Four bonding pairs around carbon require sp3sp^3 hybridization.

Flashcard 94: Identify the molecular geometry for a molecule with 5 bonding pairs and no lone pairs.

Answer: Trigonal Bipyramidal. Five bonding pairs create bipyramidal shape with axial and equatorial bonds.

Flashcard 95: What is the bond angle in a molecule with octahedral geometry?

Answer: 90°. Adjacent bonds in octahedral geometry are perpendicular.

Flashcard 96: What is the molecular geometry of water (H₂O)?

Answer: Bent. Two lone pairs on oxygen force bonding pairs into bent arrangement.

Flashcard 97: What hybridization corresponds to trigonal planar geometry?

Answer: sp2sp^2. Three electron domains require three hybrid orbitals from ss and two pp.

Flashcard 98: Which molecular geometry does a molecule with 4 bonding pairs and 2 lone pairs have?

Answer: Square Planar. Two axial lone pairs force bonding pairs into a square arrangement.

Flashcard 99: Identify the electron geometry of a molecule with 5 bonding pairs and no lone pairs.

Answer: Trigonal Bipyramidal. Five electron domains arrange in bipyramidal shape with axial and equatorial positions.

Flashcard 100: Determine the molecular geometry of XeF₂.

Answer: Linear. Three lone pairs occupy equatorial positions, leaving linear molecular shape.