The orbital diagram of aluminium should be drawn. Concept Introduction: In an atom, electrons are placed in certain energy levels which are called as principal energy levels. These sub-levels are further divide into sub-levels and orbitals. Each orbital can accommodate maximum two electrons.
The orbital diagram of aluminium should be drawn. Concept Introduction: In an atom, electrons are placed in certain energy levels which are called as principal energy levels. These sub-levels are further divide into sub-levels and orbitals. Each orbital can accommodate maximum two electrons.
Solution Summary: The author explains how the orbital diagram of aluminium should be drawn.
In an atom, electrons are placed in certain energy levels which are called as principal energy levels. These sub-levels are further divide into sub-levels and orbitals. Each orbital can accommodate maximum two electrons.
(b)
Interpretation Introduction
Interpretation:
The orbital diagram of phosphorus should be drawn.
Concept Introduction:
In an atom, electrons are placed in certain energy levels which are called as principal energy levels. These sub-levels are further divide into sub-levels and orbitals. Each orbital can accommodate maximum two electrons.
(c)
Interpretation Introduction
Interpretation:
The orbital diagram of bromine should be drawn.
Concept Introduction:
In an atom, electrons are placed in certain energy levels which are called as principal energy levels. These sub-levels are further divide into sub-levels and orbitals. Each orbital can accommodate maximum two electrons.
(d)
Interpretation Introduction
Interpretation:
The orbital diagram of bromine should be drawn.
Concept Introduction:
In an atom, electrons are placed in certain energy levels which are called as principal energy levels. These sub-levels are further divide into sub-levels and orbitals. Each orbital can accommodate maximum two electrons.
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Vid4Q2
Unanswered
☑
Provide IUPAC name of product in the reaction
below
A 3,4-dimethylcyclohexene
B 1,2-dimethylcyclohexane
C 1,2-dimethylcyclohexene
D 3,4-dimethylcyclohexane
H₂
Pd
5.
Use the MS data to answer the questions on the next page.
14.0
1.4
15.0
8.1
100-
MS-IW-5644
26.0
2.8
27.0
6.7
28.0
1.8
29.0
80
4.4
38.0
1.0
39.0
1.5
41.0
1.2
42.0
11.2
43.0
100.0
44.0
4.3
79.0
1.9
80.0
2.6
Relative Intensity
40
81.0
1.9
82.0
2.5
93.0
8.7
20-
95.0
8.2
121.0
2.0
123.0
2.0
136.0
11.8
0
138.0
11.5
20
40
8.
60
a.
Br
- 0
80
100
120
140
160
180
200
220
m/z
Identify the m/z of the base peak and molecular ion.
2
b.
Draw structures for each of the following fragments (include electrons and charges): 43.0, 93.0,
95.0, 136.0, and 138.0 m/z.
C.
Draw a reasonable a-fragmentation mechanism for the fragmentation of the molecular ion to
fragment 43.0 m/z. Be sure to include all electrons and formal charges.
6. Using the values provided in Appendix E of your lab manual, calculate the monoisotopic mass for the pyridinium
ion (CsH6N) and show your work.