At 500 K in the presence of a copper surface, ethanol decomposes according to the equation C 2 H 5 OH ( g ) → CH 3 CHO ( g ) + H 2 ( g ) The pressure of C 2 H 5 OH was measured as a function of time and the following data were obtained: Time(s) P C 2 H 5 OH ( torr ) 0 250. 100. 237 200. 224 300. 211 400. 198 500. 185 Since the pressure of a gas is directly proportional to the concentration of gas, we can express the rate law for a gaseous reaction in terms of partial pressures. Using the above data, deduce the rate law, the integrated rate law, and the value of the rate constant, all in terms of pressure units in atm and time in seconds. Predict the pressure of C 2 H 5 OH after 900. s from the start of the reaction. ( Hint: To determine the order of the reaction with respect to C 2 H 5 OH, compare how the pressure of C 2 H 5 OH decreases with each time listing.)
At 500 K in the presence of a copper surface, ethanol decomposes according to the equation C 2 H 5 OH ( g ) → CH 3 CHO ( g ) + H 2 ( g ) The pressure of C 2 H 5 OH was measured as a function of time and the following data were obtained: Time(s) P C 2 H 5 OH ( torr ) 0 250. 100. 237 200. 224 300. 211 400. 198 500. 185 Since the pressure of a gas is directly proportional to the concentration of gas, we can express the rate law for a gaseous reaction in terms of partial pressures. Using the above data, deduce the rate law, the integrated rate law, and the value of the rate constant, all in terms of pressure units in atm and time in seconds. Predict the pressure of C 2 H 5 OH after 900. s from the start of the reaction. ( Hint: To determine the order of the reaction with respect to C 2 H 5 OH, compare how the pressure of C 2 H 5 OH decreases with each time listing.)
Solution Summary: The author explains how the differential rate law provides the rate of a reaction at specific reaction concentrations.
At 500 K in the presence of a copper surface, ethanol decomposes according to the equation
C
2
H
5
OH
(
g
)
→
CH
3
CHO
(
g
)
+
H
2
(
g
)
The pressure of C2H5OH was measured as a function of time and the following data were obtained:
Time(s)
P
C
2
H
5
OH
(
torr
)
0
250.
100.
237
200.
224
300.
211
400.
198
500.
185
Since the pressure of a gas is directly proportional to the concentration of gas, we can express the rate law for a gaseous reaction in terms of partial pressures. Using the above data, deduce the rate law, the integrated rate law, and the value of the rate constant, all in terms of pressure units in atm and time in seconds. Predict the pressure of C2H5OH after 900. s from the start of the reaction. (Hint: To determine the order of the reaction with respect to C2H5OH, compare how the pressure of C2H5OH decreases with each time listing.)
Indicate how to find the energy difference between two levels in cm-1, knowing that its value is 2.5x10-25 joules.
The gyromagnetic ratio (gamma) for 1H is 2.675x108 s-1 T-1. If the applied field is 1,409 T what will be the separation between nuclear energy levels?
Chances
Ad
~stract one
11. (10pts total) Consider the radical chlorination of 1,3-diethylcyclohexane depicted below. 4
• 6H total $4th total
Statistical
pro
21 total
2 H
A 2H
래
• 4H totul
< 3°C-H werkest
bund - abstraction he
leads to then mo fac
a) (6pts) How many unique mono-chlorinated products can be formed and what are the
structures for the thermodynamically and statistically favored products?
рос
6
-વા
J
Number of Unique
Mono-Chlorinated Products
Thermodynamically
Favored Product
Statistically
Favored Product
b) (4pts) Draw the arrow pushing mechanism for the FIRST propagation step (p-1) for the
formation of the thermodynamically favored product. Only draw the p-1 step. You do
not need to include lone pairs of electrons. No enthalpy calculation necessary
H
H-Cl
Chapter 12 Solutions
Study Guide for Zumdahl/Zumdahl/DeCoste’s Chemistry, 10th Edition
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