The rate constant of the reaction has to be calculated. Concept introduction: Integrated rate law for second order reactions: Taking in the example of following reaction, aA → products And the reaction follows second order rate law, Then the relationship between the concentration of A and time can be mathematically expressed as, 1 [ A ] t =kt+ 1 [ A ] 0 The above expression is called as integrated rate for second order reactions. Half life for second order reactions: In second order reaction, the half-life is inversely proportional to the initial concentration of the reactant (A). The half-life of second order reaction can be calculated using the equation, t 1/2 = 1 (k [ A ] 0 ) Since the reactant will be consumed in lesser amount of time, these reactions will have shorter half-life. To calculate the rate constant of the reaction
The rate constant of the reaction has to be calculated. Concept introduction: Integrated rate law for second order reactions: Taking in the example of following reaction, aA → products And the reaction follows second order rate law, Then the relationship between the concentration of A and time can be mathematically expressed as, 1 [ A ] t =kt+ 1 [ A ] 0 The above expression is called as integrated rate for second order reactions. Half life for second order reactions: In second order reaction, the half-life is inversely proportional to the initial concentration of the reactant (A). The half-life of second order reaction can be calculated using the equation, t 1/2 = 1 (k [ A ] 0 ) Since the reactant will be consumed in lesser amount of time, these reactions will have shorter half-life. To calculate the rate constant of the reaction
Solution Summary: The author explains how the rate constant of a second-order reaction is calculated. The half-life is inversely proportional to the initial concentration.
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.
None
Stereochemistry: Three possible answers- diastereomers, enantiomers
OH
CH₂OH
I
-c=0
21108 1101
41745 HOR
CH₂OH
IL
Но
CH₂OH
TIL
a. Compounds I and III have this relationship with each other: enantiomers
b. Compounds II and IV have this relationship with each other:
c. Compounds I and II have this relationship with each other:
d. *Draw one structure that is a stereoisomer of II, but neither a
diastereomer nor an enantiomer. (more than one correct answer)
Chapter 13 Solutions
Student Solutions Manual for Ebbing/Gammon's General Chemistry, 11th
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