The electronic configurations of CO and O 2 , on the basis of the molecular orbital model are to be stated. Concept introduction: The electronic configuration for multi-electron diatomic 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 electronic configuration of O 2 on the basis of the molecular orbital model. The electronic configuration of CO on the basis of the molecular orbital model. Two points of difference between CO and O 2 .
The electronic configurations of CO and O 2 , on the basis of the molecular orbital model are to be stated. Concept introduction: The electronic configuration for multi-electron diatomic 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 electronic configuration of O 2 on the basis of the molecular orbital model. The electronic configuration of CO on the basis of the molecular orbital model. Two points of difference between CO and O 2 .
Solution Summary: The author explains how the electronic configurations of CO and
Interpretation: The electronic configurations of
CO and
O2, on the basis of the molecular orbital model are to be stated.
Concept introduction: The electronic configuration for multi-electron diatomic 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 electronic configuration of
O2 on the basis of the molecular orbital model.
The electronic configuration of
CO on the basis of the molecular orbital model. Two points of difference between
CO and
O2.
Write the complete common (not IUPAC) name of each molecule below.
Note: if a molecule is one of a pair of enantiomers, be sure you start its name with D- or L- so we know which enantiomer it is.
molecule
C=O
H3N
CH3
common name
(not the IUPAC
name)
H
☐
C=O
H
O-C-CH2-CH2
010
NH3
☐
H3N
☐
HO
5
Write the systematic name of each organic molecule:
structure
CI
CH3
HO-C-CH-CH-CH2 – CH— CH3
CH3
name
X
O
☐
CH3-CH-CH2-CH2-C-OH
CH3
11
HO-C-CH-CH2-OH
CH3
☐
Check the box under each a amino acid.
If there are no a amino acids at all, check the "none of them" box under the table.
Note for advanced students: don't assume every amino acid shown must be found in nature.
CH3
CH2
0 C=O
+
CH-CH3
H₂N C-COOH
H₂N
H
H
H3N C COO¯
NH, O
HO C C H
CH3-CH
HO C=O
H2N-CH-COOH
CH2
NH3
HO
CH3
none of them
O
NH3
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Quantum Molecular Orbital Theory (PChem Lecture: LCAO and gerade ungerade orbitals); Author: Prof Melko;https://www.youtube.com/watch?v=l59CGEstSGU;License: Standard YouTube License, CC-BY