Changeset 75 for papers/FDL2012/exp_results.tex
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- Mar 27, 2012, 5:24:35 PM (13 years ago)
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papers/FDL2012/exp_results.tex
r74 r75 21 21 Abstract & 2 Masters-1 Slave & 301 & 2 & 99 & 4.12317e+11 & 0.02 \\ 22 22 Model & 4 Masters-1 Slave & 501 & 2 & 147 & 3.45876e+18 & 0.03\\ 23 for $\phi_1$ & 4 Masters-2 Slaves & xx & 2 & xxx & xxx & xxxx\\23 for $\phi_1$ & 4 Masters-2 Slaves & 589 & 2 & 167 & 7.08355e+21 & 0.04 \\ 24 24 \midrule 25 25 Final & 1 Master-1 Slave & 194 & 1 & 50 & 2.62144e+07 & 0 \\ 26 26 Abstract & 2 Masters-1 Slave & 298 & 1 & 73 & 2.14748e+11 & 0.01 \\ 27 27 Model & 4 Masters-1 Slave & 498 & 1 & 121 & 1.80144e+18 & 0.02 \\ 28 for $\phi_2$ & 4 Masters-2 Slaves & xxx & x & xxx & xxx & xxx\\28 for $\phi_2$ & 4 Masters-2 Slaves & 586 & 1 & 141 & 3.68935e+21 & 0.02 \\ 29 29 \bottomrule 30 30 \bottomrule … … 99 99 \midrule 100 100 \multicolumn{4}{l}{\textbf{\underline{4 Masters - 2 Slaves :}}} \\ 101 & Prop. Selection & 1 & xxx\\102 $\phi_1$ & Incremental & xxx & xxx\\101 & Prop. Selection & 1 & 2.2 \\ 102 $\phi_1$ & Incremental & N/A & >1 day \\ 103 103 & Standard MC & - & 2231.3 \\ 104 104 \midrule 105 & Prop. Selection & 0 & xxx\\105 & Prop. Selection & 0 & 1.1\\ 106 106 $\phi_2$ & Incremental & N/A & >1 day \\ 107 107 & Standard MC & - & 12814.1 \\ … … 115 115 116 116 %\medskip 117 118 119 In the following tables: Table \ref{TabVCI_PI} and Table \ref{TabCANBus}, we compare the execution time between our technique (Prop. Selection), incremental\_ctl\_verification (Incremental) and the standard model checking (Standard MC) computed using the \emph{model\_check} command in VIS (Note: Dynamic variable ordering has been enabled with sift method). For the VCI-PI platform, the global property $\phi_1$ is the type $AF(p=1)*AF(q=1)$ and $\phi_2$ is actually a stronger version of the same formula with $AG(AF(p=1)*AF(q=1))$ whereas for the CAN bus platform, the global property $\phi_3$ is the type $AG(((p'=1)*(q'=1)) -> AF((s = 1)*(r = 1))$ and $\phi_4 = AG(((p'=1)*(q'=1)) -> AG(r' = 0))$. We can see that our technique systematically computes faster than the other two methods and interestingly in the case where the size of the platform increases by adding the more connected components, in contrary to the other two methods, our computation time remains stable.120 117 121 118 … … 143 140 \end{table} 144 141 145 \medskip146 142 147 143 144 In the following tables: Table \ref{TabVCI_PI} and Table \ref{TabCANBus}, we compare the execution time between our technique (Prop. Selection), incremental\_ctl\_verification (Incremental) and the standard model checking (Standard MC) computed using the \emph{model\_check} command in VIS (Note: Dynamic variable ordering has been enabled with sift method). For the VCI-PI platform, the global property $\phi_1$ is the type $AF((p=1)*AF(q=1))$ and $\phi_2$ is actually a stronger version of the same formula with $AG(AF((p=1)*AF(q=1)))$ whereas for the CAN bus platform, the global property $\phi_3$ is the type $AG(((p'=1)*(q'=1)) -> AF((s = 1)*(r = 1))$ and $\phi_4 = AG(((p'=1)*(q'=1)) -> AG(r' = 0))$. We can see that our technique systematically computes faster than the other two methods and interestingly in the case where the size of the platform increases by adding the more connected components, in contrary to the other two methods, our computation time remains stable. 145 146 147 148 %\medskip 149 150
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