Difference between revisions of "Oil Shale Pyrolysis"
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− | \displaystyle \ | + | \displaystyle \max_{T} & \displaystyle &x_2(t_N) \\[1.5ex] |
\mbox{s.t.} & \displaystyle \dot{x}_1 &= -k_1x_1-(k_3+k_4+k_5)x_1x_2\\ | \mbox{s.t.} & \displaystyle \dot{x}_1 &= -k_1x_1-(k_3+k_4+k_5)x_1x_2\\ | ||
& \displaystyle \dot{x}_2 &= k_1x_1-k_2x_2 + k_3x_1x_2\\ | & \displaystyle \dot{x}_2 &= k_1x_1-k_2x_2 + k_3x_1x_2\\ |
Revision as of 02:52, 15 March 2019
Oil Shale Pyrolysis | |
---|---|
State dimension: | 1 |
Differential states: | 2 |
Continuous control functions: | 1 |
Discrete control functions: | 0 |
Path constraints: | 4 |
Interior point equalities: | 2 |
The following problem is an example from the global optimal control literature and was introduced in [Wen1977]The entry doesn't exist yet.. The process starts with kerogen and is decomposed into pyrolytic bitumen, oil and gas, and residual carbon. The objective is to maximize the fraction of pyrolytic bitumen. There are 5 reactions including:
Each reaction is governed by a rate described by:
Mathematical formulation
Parameters
Symbol | Initial value () |
Symbol | Value |
Symbol | Interval |
[698.15,748.15] |
Reference solution
Coming soon.
Source Code
Model descriptions are not yet available.
References
[Wen1977] | The entry doesn't exist yet. |