The existence of the He 2 molecule and its dissociation, on basis of the molecular orbital theory is to be explained. Concept introduction: The electronic configuration for multi-electron diatomic molecule is written using the molecular orbitals, derived from the H 2 + molecular ion. The bond order is calculated by difference between the anti-bonding electrons and the bonding electrons by two. This can be stated as, Bond order = [ ( Electrons in bonding orbitals ) − ( Electrons in anti-bonding orbitals ) ] 2 As the bond order increases, the stability also increases. The bond order is directly proportional to the bond energy and inversely proportional to the bond length. To determine: The explanation regarding the existence and the dissociation of the He 2 molecule.
The existence of the He 2 molecule and its dissociation, on basis of the molecular orbital theory is to be explained. Concept introduction: The electronic configuration for multi-electron diatomic molecule is written using the molecular orbitals, derived from the H 2 + molecular ion. The bond order is calculated by difference between the anti-bonding electrons and the bonding electrons by two. This can be stated as, Bond order = [ ( Electrons in bonding orbitals ) − ( Electrons in anti-bonding orbitals ) ] 2 As the bond order increases, the stability also increases. The bond order is directly proportional to the bond energy and inversely proportional to the bond length. To determine: The explanation regarding the existence and the dissociation of the He 2 molecule.
Solution Summary: The author explains the molecular orbital theory of the He_ 2 molecule and its dissociation. The bond order is proportional to the bond energy and inversely
Interpretation: The existence of the
He2 molecule and its dissociation, on basis of the molecular orbital theory is to be explained.
Concept introduction: The electronic configuration for multi-electron diatomic molecule is written using the molecular orbitals, derived from the
H2+ molecular ion.
The bond order is calculated by difference between the anti-bonding electrons and the bonding electrons by two. This can be stated as,
As the bond order increases, the stability also increases. The bond order is directly proportional to the bond energy and inversely proportional to the bond length.
To determine: The explanation regarding the existence and the dissociation of the
He2 molecule.
d) Determine the formal charge on the nitrogen atom in each of the structures.
NH3
NH2
N
C
бобкат
: N
N
H
H
Н
H2N-OH
A
B
C
D
E
F
G
Lewis Structure, Hybridization & Molecular Geometry
a) Draw the Lewis Structure of the molecules; Label the hybridization of each carbon atom;
Predict the approximate molecular geometry around each carbon atom.
CH3CHO
CH3CN
b) Draw the Lewis Structure of Nitromethane; Predict the approximate molecular geometry
around the nitrogen atom.
CH3NO2
c) Draw the Lewis Structure; Label the hybridization of the boron atom; Predict the
approximate molecular geometry.
BF3
BF4
a. The structure of the bicarbonate (hydrogen carbonate) ion, HCO3-, HCO3 " is
best described as a hybrid of several contributing resonance forms, two of which
are shown here.
HO
:0:
HO
+
:Ö:
Bicarbonate is crucial for the control of body pH (for example, blood pH
7.4). A more self-indulgent use is in baking soda, where it serves as a
source of CO2 CO2 gas, which gives bread and pastry their fluffy
constituency.
(i) Draw at least one additional resonance form.
=
(ii) Using curved "electron-pushing" arrows, show how these Lewis structures may
be interconverted by movement of electron pairs. (iii) Determine which form or
forms will be the major contributor(s) to the real structure of bicarbonate,
explaining your answer on the basis of the criteria in Section 1-5.
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