25. Part 1 of 3The highlighted C atom.H-C=C-CH₂Hybridization:Molecular geometry: (Choose one)pyramidalT-shapedoctahedraltetrahedralPart 2 of 3The highlighted N atoH₂CHybridization:trigonal bipyramidaltrigonal planarseesawlinearbentsquare planarCH 3CH3Molecular geometry: (Choose one)XX5Ś8Eolo18Ar

Molecules are made up of two or more than two atoms. We have been given two molecules and we have…

Part 1 of 3 The highlighted C atom. H-C=C-CH₂ Hybridization: Molecular geometry: (Choose one) pyramidal T-shaped octahedral tetrahedral trigonal bipyramidal trigonal planar seesaw linear The highlighted N ato bent Part 2 of 3 Hybridization: square planar CH₂ CH₂ Molecular geometry: (Choose one) X X Ś 5

Part 1 of 3 The highlighted C atom. H-C=C-CH₂ Hybridization: Molecular geometry: (Choose one) pyramidal T-shaped octahedral tetrahedral trigonal bipyramidal trigonal planar seesaw linear The highlighted N ato bent Part 2 of 3 Hybridization: square planar CH₂ CH₂ Molecular geometry: (Choose one) X X Ś 5

Chemistry: Principles and Practice

3rd Edition

ISBN:9780534420123

Author:Daniel L. Reger, Scott R. Goode, David W. Ball, Edward Mercer

Publisher:Daniel L. Reger, Scott R. Goode, David W. Ball, Edward Mercer

Chapter10: Molecular Structure And Bonding Theories

Section: Chapter Questions

Problem 10.99QE: The molecular orbital diagram of NO shown in Figure 10.47 also applies to the following species....

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The molecular orbital diagram of NO shown in Figure 10.47 also applies to the following species. Write the molecular orbital electron configuration of each, indicating the bond order and the number of unpaired electrons. (a) CN (b) CO (c) BeB (d) BC+ Figure 10.47 Molecular orbital diagram for nitric oxide (NO). The molecular orbital diagram for NO predicts a bond order of 2.5 and predicts that the molecule is paramagnetic with one unpaired electron. These predictions are verified by experimental measurements.
A friend tells you N2 has three bonds due to overlap of the three p -orbitals on each N atom. Do you agree?
Why are bonding molecular orbitals lower in energy than the parent atomic orbitals?
Describe each highlighted bond in terms of the overlap of atomic orbitals. (If the highlighted bond is not a pi bond, select the blank option from the dropdown menu.) Compound 1: HHH H-C-C-C- HHH Molecular orbital type: Atomic orbitals in the sigma bond: Atomic orbitals in the pi bond: Compound 2: нн Ö: H C C C O-H H H Molecular orbital type: sigma Atomic orbitals in the sigma bond: 1s and sp³ Atomic orbitals in the pi bond: ŵ
Describe each highlighted bond in terms of the overlap of atomic orbitals. (If the highlighted bond is not a pi bond, select the blank option from the dropdown menu.) Compound 1: H H H-C-C-C-N: H -I H H Molecular orbital type: Atomic orbitals in the sigma bond: Atomic orbitals in the pi bond: Compound 2: H H CIH H-C-C-C H H CIH O H H Molecular orbital type: Atomic orbitals in the sigma bond: Atomic orbitals in the pi bond: H :N H C C ♥ C (> C
Describe each highlighted bond in terms of the overlap of atomic orbitals. (If the highlighted bond is not a pi bond, select the blank option from the dropdown menu.) Compound 1: H H H C C H H H :N-H Molecular orbital type: Atomic orbitals in the sigma bond: Atomic orbitals in the pi bond: Compound 2: H H-C C H H H H Molecular orbital type: Atomic orbitals in the sigma bond: Atomic orbitals in the pi bond: ✪ Ⓒ ↑ î
assignment-take Descnbe each highlighted bond in terms of the overlap of atomic orbitals (If the highlighted bond is not a pi bond, select the blank option from the dropdown menu) Compound 1: H H H-C-Ć H H H. Molecular orbital type Atomic orbitals in the sigma bond: Atomic orbitals in the pi bond: Compound 2: H H C=C H. H. Molecular orbital type Atomic orbitals in the sigma bond: Atomic orbitals in the pi bond
t Describe each highlighted bond in terms of the overlap of atomic orbitals. (If the highlighted bond is not a pi bond, select the blank option from the dropdown menu.) Compound 1: Η Η Η H-C-C-CN HHH H Molecular orbital type: Atomic orbitals in the sigma bond: Atomic orbitals in the Compound 2: bond: HH H-C-C-C HH H EN-H H Molecular orbital type: Atomic orbitals in the sigma bond: Atomic orbitals in the pi bond:
Describe each highlighted bond in terms of the overlap of atomic orbitals. (If the highlighted bond is not a pi bond, select the blank option from the dropdown menu.) Compound 1: H H H H-C-C–ċ-Ö-H H Molecular orbital type: Atomic orbitals in the sigma bond: Atomic orbitals in the pi bond: Compound 2: H H H H H Molecular orbital type: Atomic orbitals in the sigma bond: Atomic orbitals in the pi bond:
Ketene, CH2=C=O, is an unusual organic molecule that has a singlecarbon atom doubly bonded to two different atoms. Determine thehybridization of both C atoms and the O in ketene. Then, draw a diagramshowing what orbitals are used to form each bond.
Describe each highlighted bond in terms of the overlap of atomic orbitals. (If the highlighted bond is not a pi bond, select the blank option from the dropdown menu.) Compound 1: H C=C H Molecular orbital type: | Atomic orbitals in the sigma bond: Atomic orbitals in the pi bond: Compound 2: нн H H H H. Molecular orbital type: Atomic orbitals in the sigma bond: Atomic orbitals in the pi bond: :O:
b The molecular geometry of TeF2Br2 i lock O square planar O octahedral O see saw O terahedral O trigonal bipyramidal A control ! 1 A @ 2 N W S #3 X E L option command D $ 4 R C % 5 TI F T V MacBook Pro 6 G Y & B 7 H U * 8 N J 1 9 M MC