Question

Predict Activation Energy at mixing and compaction temperatures. DSR Results RV Results Temp. °C Pure Pure +SBS Temp. °C Pure Pure +SBS 5 326100 892100 100 5581 16810 15 122000 314600 120 1326 4237 25 66310 70700 140 411.3 1628 35 16460 22870 160 210 427.3 50 2111 1981 180 86.9 237.3 60 357.4 472.5 200 41.1 129.2

          Predict Activation Energy at mixing and compaction temperatures.
DSR Results
RV Results
Temp. °C Pure
Pure +SBS
Temp. °C Pure
Pure +SBS
5
326100
892100 100
5581
16810
15
122000
314600 120
1326
4237
25
66310
70700 140
411.3
1628
35
16460
22870 160
210
427.3
50
2111
1981 180
86.9
237.3
60
357.4
472.5 200
41.1
129.2

Predict Activation Energy at mixing and compaction temperatures.
DSR Results
RV Results
Temp. °C Pure
Pure +SBS
Temp. °C Pure
Pure +SBS
5
326100
892100 100
5581
16810
15
122000
314600 120
1326
4237
25
66310
70700 140
411.3
1628
35
16460
22870 160
210
427.3
50
2111
1981 180
86.9
237.3
60
357.4
472.5 200
41.1
129.2

Added by Rocio G.

Chemistry: Structure and Properties

Nivaldo Tro 2nd Edition

Instant Answer

Solved by Expert Kaden Bunch

Step 1

The activation energy can be calculated using the Arrhenius equation: k = A * exp(-Ea/RT) where k is the rate constant, A is the pre-exponential factor, Ea is the activation energy, R is the gas constant, and T is the temperature in Kelvin. In this case, we are Show more…

Show all steps

Thanks for your feedback!

Text: Predict Activation Energy at mixing and compaction temperatures. DSR Results RV Results Temp. C Pure Pure+SBS Temp. C Pure Pure+SBS 5 326100 892100 100 5581 16810 15 25 35 122000 314600 120 1326 4237 66310 70700 140 411.3 1628 16460 22870 160 210 427.3 50 2111 1981 180 86.9 237.3 60 357.4 472.5 200 41.1 129.2