Oil Shale Pyrolysis: Difference between revisions
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<math> | <math> | ||
\begin{array}{ | \begin{array}{lll} | ||
\displaystyle \min_{u} & \displaystyle -x_1(t_N)^2 \\[1.5ex] | \displaystyle \min_{u} & \displaystyle &-x_1(t_N)^2 \\[1.5ex] | ||
\mbox{s.t.} & \displaystyle \dot{x}_0 | \mbox{s.t.} & \displaystyle \dot{x}_0 &= -k_0x_0-(k_2+k_3+k_4)x_0x_1\\ | ||
& \displaystyle \dot{x}_1 | & \displaystyle \dot{x}_1 &= k_0x_0-k_1x_1 + k_2x_0x_1\\ | ||
& \displaystyle k_i = a_i e^{-u | & \displaystyle k_i &= a_i e^{-u\frac{b_i}{R}},\quad \forall i\in \{1,\dots,5\} \\ [1.5ex] | ||
& \displaystyle t \in \left[t_0,t_N\right] \\ | & \displaystyle t &\in \left[t_0,t_N\right] \\ | ||
& \displaystyle u(t) \in \left[698.15/748.15,1\right]\\ | & \displaystyle u(t) &\in \left[698.15/748.15,1\right]\\ | ||
& \displaystyle x(t_0) = (1,0)^T\\ | & \displaystyle x(t_0) &= (1,0)^T\\ | ||
\end{array} | \end{array} | ||
</math> | </math> | ||
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<math> u(t)= \frac{1}{u_{temp}} </math>, with | <math> u(t)= \frac{1}{u_{temp}} </math>, with | ||
<math> u_{temp} \in \left[698.15,748.15\right] </math> | <math> u_{temp} \in \left[698.15,748.15\right] </math> | ||
== Parameters == | == Parameters == | ||
Revision as of 16:05, 22 February 2016
| Oil Shale Pyrolysis | |
|---|---|
| State dimension: | 1 |
| Differential states: | 2 |
| Continuous control functions: | 1 |
| Discrete control functions: | 0 |
| 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..
Mathematical formulation
where this is the normalized form with
, with
Parameters
| Symbol | Initial value () |
| Symbol | Value |
| Symbol | Interval |
| [698.15/748.15,1] |
Measurement grid
Reference solution
Coming soon.
Source Code
Model descriptions are not yet available.
References
| [Wen1977] | The entry doesn't exist yet. |