X-Git-Url: https://bilbo.iut-bm.univ-fcomte.fr/and/gitweb/ThesisAhmed.git/blobdiff_plain/18280a326d3fbcc20a96c315709b73e844887f46..68ca79118192b40ef64bacc059bad602c13c82ba:/thesis-presentation/AhmedSlides.tex?ds=sidebyside diff --git a/thesis-presentation/AhmedSlides.tex b/thesis-presentation/AhmedSlides.tex index 50ac984..b9ac39c 100644 --- a/thesis-presentation/AhmedSlides.tex +++ b/thesis-presentation/AhmedSlides.tex @@ -22,7 +22,7 @@ \usepackage{fixltx2e} %% used to put some subscripts lower, and make them more legible \newcommand{\fxheight}[1]{\ifx#1\relax\relax\else\rule{0pt}{1.52ex}#1\fi} - +\usepackage{ragged2e} \newcommand{\CL}{\Xsub{C}{L}} \newcommand{\Dist}{\mathit{Dist}} \newcommand{\EdNew}{\Xsub{E}{dNew}} @@ -147,9 +147,7 @@ %% SLIDE 04 %% %%%%%%%%%%%%%%%%%%%% \begin{frame}{Techniques for energy consumption reduction} - \vspace{0.1cm} - - + \textcolor{blue}{1)} \bf \textcolor{black}{Switch-off idle nodes method} \vspace{-0.9cm} \begin{figure} @@ -159,12 +157,12 @@ \end{frame} %%%%%%%%%%%%%%%%%%%% -%% SLIDE 06 %% +%% SLIDE 05 %% %%%%%%%%%%%%%%%%%%%% \begin{frame}{Techniques for energy consumption reduction} - \textcolor{blue}{2)} \bf \textcolor{black}{Dynamic voltage and frequency Scaling (DVFS)} - \vspace{-0.5cm} + \textcolor{blue}{2)} \bf \textcolor{black}{Dynamic Voltage and Frequency Scaling (DVFS)} + \vspace{-0.9cm} \begin{figure} \animategraphics[autopause,controls,scale=0.25,buttonsize=0.2cm]{10}{DVFS-meq/a-}{0}{109} %\includegraphics[width=0.6\textwidth]{DVFS-meq/a-109} @@ -174,7 +172,7 @@ %%%%%%%%%%%%%%%%%%%% -%% SLIDE 07 %% +%% SLIDE 06 %% %%%%%%%%%%%%%%%%%%%% \begin{frame}{Motivations} \vspace{0.05cm} @@ -205,7 +203,7 @@ \begin{block}{\textcolor{white}{Challenge and Objective}} - \small \textcolor{blue}{Challenge:} \textcolor{black}{DVFS is used to reduce the energy consumption, \textcolor{blue}{but} it degrades the performance simultaneously.} + \small \textcolor{blue}{Challenge:} \textcolor{black}{DVFS is used to reduce the energy consumption, \textcolor{blue}{but} it also degrades the performance of the CPU.} \vspace{0.1cm} \small \textcolor{blue}{Objective:} \textcolor{black}{Applying the DVFS to minimize the energy consumption while maintaining the performance of the parallel application.} @@ -241,21 +239,22 @@ for a warehouse-sized computer. %%%%%%%%%%%%%%%%%%%% \begin{frame}{Objectives} - \begin{femtoBlock}{} \vspace{-12 mm} - \begin{itemize} \small - \item Study the effect of the scaling factor on the \textbf{energy consumption and performance } of parallel applications with iterations. \medskip + + \begin{itemize} \small \justifying + + \item Study the effect of the scaling factor on the \textbf{energy consumption and performance } of parallel applications with iterations. \medskip - \item Discovering the \textbf{energy-performance trade-off relation} when changing the frequency of the processor.\medskip - \item Proposing an algorithm for selecting the scaling factor that produces \textbf {the optimal trade-off} between the energy consumption and the performance. \medskip - \item Comparing the proposed algorithm to existing methods. + \item Discovering the \textbf{energy-performance trade-off relation} when changing the frequency of the processor.\medskip + \item Proposing an algorithm for selecting the scaling factor that produces \textbf {the optimal trade-off} between the energy consumption and the performance. \medskip + \item Comparing the proposed algorithm to existing methods. %\footnote{\tiny Thomas Rauber and Gudula RĂ¼nger. Analytical modeling and simulation of the %energy consumption \\ \quad ~ ~\quad of independent tasks. In Proceedings of the Winter Simulation Conference, 2012.} method that our method best on. \end{itemize} %\let\thefootnote\relax\footnote{} - \vspace{-10 mm} - \end{femtoBlock} + + \end{frame} @@ -294,7 +293,7 @@ for a warehouse-sized computer. \end{equation} \scriptsize \underline{Where}: \\ \scriptsize {\textcolor{blue}{$\alpha$}: switching activity \hspace{15 mm} \textcolor{blue}{$CL$}: load capacitance\\ - \textcolor{blue}{$V$} the supply voltage \hspace{14 mm} \textcolor{blue}{$F$}: operational frequency} + \textcolor{blue}{$V$}: the supply voltage \hspace{14 mm} \textcolor{blue}{$F$}: operational frequency} \begin{equation} \label{eq:ps} \small \textcolor{red}{P_s} = \textcolor{blue}{V \cdot N_{trans} \cdot K_{design} \cdot I_{Leak}} @@ -1176,7 +1175,7 @@ Multi-splitting} method. %%%%%%%%%%%%%%%%%%%% \begin{frame}{Fin} \vspace{-10 mm} - \centering \Large \textcolor{blue}{Thank you for your listening} + \centering \Large \textcolor{blue}{Thank you for your attention} \vspace{2cm} \centering \textcolor{blue}{ {\Large Questions?}}