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    <title>Slideshows for Tag: parallelization by  kknsastry</title>
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      <title>Slideshows for Tag: parallelization by  kknsastry</title>
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    <pubDate>Sat, 14 Jul 2007 14:49:14 GMT</pubDate>
    <description>SlideShare feed for Slideshows for Tag: parallelization by  kknsastry</description>
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      <title>Towards billion bit optimization via parallel estimation of distribution algorithm</title>
      <link>http://www.slideshare.net/kknsastry/towards-billion-bit-optimization-via-parallel-estimation-of-distribution-algorithm</link>
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        <![CDATA[<div class='snap_preview'><img src="http://cdn.slideshare.net/towards-billion-bit-optimization-via-parallel-estimation-of-distribution-algorithm1292-thumbnail-2?1184424554" alt ="" style="border:1px solid #C3E6D8;float:right;" /> <p>from: <a href="http://www.slideshare.net/kknsastry">kknsastry</a> 2 years ago</p><p>This paper presents a highly efficient, fully parallelized implementation of the compact genetic algorithm to solve very large scale problems with millions to billions of variables. The paper presents principled results demonstrating the scalable solution of a difficult test function on instances over a billion variables using a parallel implementation of compact genetic algorithm (cGA). The problem addressed is a noisy, blind problem over a vector of binary decision variables. Noise is added equaling up to a tenth of the deterministic objective function variance of the problem, thereby making it difficult for simple hillclimbers to find the optimal solution. The compact GA, on the other hand, is able to find the optimum in the presence of noise quickly, reliably, and accurately, and the solution scalability follows known convergence theories. These results on noisy problem together with other results on problems involving varying modularity, hierarchy, and overlap foreshadow routine solution of billion-variable problems across the landscape of search problems.</p><p>Tags: <a style="text-decoration:underline;" href="http://slideshare.net/tag/cga">cga</a> <a style="text-decoration:underline;" href="http://slideshare.net/tag/compact-genetic-algorithm">compact-genetic-algorithm</a> <a style="text-decoration:underline;" href="http://slideshare.net/tag/exogenous-noise">exogenous-noise</a> <a style="text-decoration:underline;" href="http://slideshare.net/tag/efficiency-enhancement">efficiency-enhancement</a> <a style="text-decoration:underline;" href="http://slideshare.net/tag/convergence-time">convergence-time</a> </p></div>]]>
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        <![CDATA[<div class='snap_preview'><img src="http://cdn.slideshare.net/towards-billion-bit-optimization-via-parallel-estimation-of-distribution-algorithm1292-thumbnail-2?1184424554" alt ="" style="border:1px solid #C3E6D8;float:right;" /> <p>from: <a href="http://www.slideshare.net/kknsastry">kknsastry</a> 2 years ago</p><p>This paper presents a highly efficient, fully parallelized implementation of the compact genetic algorithm to solve very large scale problems with millions to billions of variables. The paper presents principled results demonstrating the scalable solution of a difficult test function on instances over a billion variables using a parallel implementation of compact genetic algorithm (cGA). The problem addressed is a noisy, blind problem over a vector of binary decision variables. Noise is added equaling up to a tenth of the deterministic objective function variance of the problem, thereby making it difficult for simple hillclimbers to find the optimal solution. The compact GA, on the other hand, is able to find the optimum in the presence of noise quickly, reliably, and accurately, and the solution scalability follows known convergence theories. These results on noisy problem together with other results on problems involving varying modularity, hierarchy, and overlap foreshadow routine solution of billion-variable problems across the landscape of search problems.</p><p>Tags: <a style="text-decoration:underline;" href="http://slideshare.net/tag/cga">cga</a> <a style="text-decoration:underline;" href="http://slideshare.net/tag/compact-genetic-algorithm">compact-genetic-algorithm</a> <a style="text-decoration:underline;" href="http://slideshare.net/tag/exogenous-noise">exogenous-noise</a> <a style="text-decoration:underline;" href="http://slideshare.net/tag/efficiency-enhancement">efficiency-enhancement</a> <a style="text-decoration:underline;" href="http://slideshare.net/tag/convergence-time">convergence-time</a> </p></div>]]>
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      <pubDate>Sat, 14 Jul 2007 14:49:14 GMT</pubDate>
      <guid>http://www.slideshare.net/kknsastry/towards-billion-bit-optimization-via-parallel-estimation-of-distribution-algorithm</guid>
      <author>kknsastry@slideshare.net(kknsastry)</author>
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        <media:title>Towards billion bit optimization via parallel estimation of distribution algorithm</media:title>
        <media:credit>kknsastry</media:credit>
        <media:description type="plain">This paper presents a highly efficient, fully parallelized implementation of the compact genetic algorithm to solve very large scale problems with millions to billions of variables. The paper presents principled results demonstrating the scalable solution of a difficult test function on instances over a billion variables using a parallel implementation of compact genetic algorithm (cGA). The problem addressed is a noisy, blind problem over a vector of binary decision variables. Noise is added equaling up to a tenth of the deterministic objective function variance of the problem, thereby making it difficult for simple hillclimbers to find the optimal solution. The compact GA, on the other hand, is able to find the optimum in the presence of noise quickly, reliably, and accurately, and the solution scalability follows known convergence theories. These results on noisy problem together with other results on problems involving varying modularity, hierarchy, and overlap foreshadow routine solution of billion-variable problems across the landscape of search problems.</media:description>
        <media:text type="html">&lt;div class='snap_preview'&gt;&lt;img src=&quot;http://cdn.slideshare.net/towards-billion-bit-optimization-via-parallel-estimation-of-distribution-algorithm1292-thumbnail-2?1184424554&quot; alt =&quot;&quot; style=&quot;border:1px solid #C3E6D8;float:right;&quot; /&gt; &lt;p&gt;from: &lt;a href=&quot;http://www.slideshare.net/kknsastry&quot;&gt;kknsastry&lt;/a&gt; 2 years ago&lt;/p&gt;&lt;p&gt;This paper presents a highly efficient, fully parallelized implementation of the compact genetic algorithm to solve very large scale problems with millions to billions of variables. The paper presents principled results demonstrating the scalable solution of a difficult test function on instances over a billion variables using a parallel implementation of compact genetic algorithm (cGA). The problem addressed is a noisy, blind problem over a vector of binary decision variables. Noise is added equaling up to a tenth of the deterministic objective function variance of the problem, thereby making it difficult for simple hillclimbers to find the optimal solution. The compact GA, on the other hand, is able to find the optimum in the presence of noise quickly, reliably, and accurately, and the solution scalability follows known convergence theories. These results on noisy problem together with other results on problems involving varying modularity, hierarchy, and overlap foreshadow routine solution of billion-variable problems across the landscape of search problems.&lt;/p&gt;&lt;p&gt;Tags: &lt;a style=&quot;text-decoration:underline;&quot; href=&quot;http://slideshare.net/tag/cga&quot;&gt;cga&lt;/a&gt; &lt;a style=&quot;text-decoration:underline;&quot; href=&quot;http://slideshare.net/tag/compact-genetic-algorithm&quot;&gt;compact-genetic-algorithm&lt;/a&gt; &lt;a style=&quot;text-decoration:underline;&quot; href=&quot;http://slideshare.net/tag/exogenous-noise&quot;&gt;exogenous-noise&lt;/a&gt; &lt;a style=&quot;text-decoration:underline;&quot; href=&quot;http://slideshare.net/tag/efficiency-enhancement&quot;&gt;efficiency-enhancement&lt;/a&gt; &lt;a style=&quot;text-decoration:underline;&quot; href=&quot;http://slideshare.net/tag/convergence-time&quot;&gt;convergence-time&lt;/a&gt; &lt;/p&gt;&lt;/div&gt;</media:text>
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