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  <title><![CDATA[DCL Seminar Series: Don Sofge]]></title>
  <body><![CDATA[<p>Abstract:&nbsp;</p>

<p>Autonomous systems can provide the Navy with valuable information about mission environments. Teams of heterogeneous autonomous vehicles may provide enhanced capabilities for persistent ISR&nbsp;and enhanced situational awareness for the warfighter while minimizing the risk to human life. &nbsp;The objective of the MANTISS (Mobile Autonomous Navy Teams for Information Surveillance and&nbsp;Search) effort is to apply information gathering algorithms for multi-agent autonomous teams to problems of Navy interest, leveraging bio-inspired techniques from ONR&rsquo;s Science of Autonomy&nbsp;program, NRL-developed swarm control (physicomimetics), and information theory. Our swarm dynamics projects explore the production of self-organized states in a system of communicating robots (miniature autonomous blimps) with mass and physical extent (area or volume) such that collisions&nbsp;may occur. Specifically, we perform experiments to enable a formation of communicating robots to form a pattern maintained just by interacting communication rules. We study the effects of&nbsp;variation of controlling parameters including mass, area, and communication with number of nearest neighbors on swarm dynamics and pattern formation as agents collide and are removed. All&nbsp;collisions are considered catastrophic. Collisions may be reduced or avoided through use of a repulsion term between agents, but we confirm that this repulsion term affects the swarm dynamics&nbsp;as well. Repulsion also affects the rate of attrition of swarm agents. We evaluate the effects on pattern formation and swarm dynamics of repulsion in combination with other previously&nbsp;mentioned controlling parameters.</p>

<p>Bio:</p>

<p>Don Sofge is a Computer Scientist and Roboticist at the U.S. Naval Research Laboratory (NRL) with 30 years of experience in Artificial Intelligence and Control Systems R&amp;D. He has served as&nbsp;PI or Co-PI on dozens of federally funded R&amp;D programs, and has approximately 124 peer-reviewed publications on autonomy, intelligent control, quantum computing, and related topics, including&nbsp;6 books, 10 book chapters, 25 journal articles, 65 conference papers, and one patent. Don leads the Distributed Autonomous Systems Group at NRL where he develops nature-inspired computing&nbsp;solutions to challenging problems in sensing, artificial intelligence, and control of autonomous robotic systems. His current research focuses on control of autonomous teams or swarms of&nbsp;robotic systems for Navy relevant missions.</p>
]]></body>
  <field_summary_sentence>
    <item>
      <value><![CDATA[Autonomous Systems and Blimp Swarms at the Naval Research Laboratory (and how you can get involved)]]></value>
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      <value><![CDATA[<p>Abstract:&nbsp;</p>

<p>Autonomous systems can provide the Navy with valuable information about mission environments. Teams of heterogeneous autonomous vehicles may provide enhanced capabilities for persistent ISR&nbsp;and enhanced situational awareness for the warfighter while minimizing the risk to human life. &nbsp;The objective of the MANTISS (Mobile Autonomous Navy Teams for Information Surveillance and&nbsp;Search) effort is to apply information gathering algorithms for multi-agent autonomous teams to problems of Navy interest, leveraging bio-inspired techniques from ONR&rsquo;s Science of Autonomy&nbsp;program, NRL-developed swarm control (physicomimetics), and information theory. Our swarm dynamics projects explore the production of self-organized states in a system of communicating robots (miniature autonomous blimps) with mass and physical extent (area or volume) such that collisions&nbsp;may occur. Specifically, we perform experiments to enable a formation of communicating robots to form a pattern maintained just by interacting communication rules. We study the effects of&nbsp;variation of controlling parameters including mass, area, and communication with number of nearest neighbors on swarm dynamics and pattern formation as agents collide and are removed. All&nbsp;collisions are considered catastrophic. Collisions may be reduced or avoided through use of a repulsion term between agents, but we confirm that this repulsion term affects the swarm dynamics&nbsp;as well. Repulsion also affects the rate of attrition of swarm agents. We evaluate the effects on pattern formation and swarm dynamics of repulsion in combination with other previously&nbsp;mentioned controlling parameters.</p>

<p>Bio:</p>

<p>Don Sofge is a Computer Scientist and Roboticist at the U.S. Naval Research Laboratory (NRL) with 30 years of experience in Artificial Intelligence and Control Systems R&amp;D. He has served as&nbsp;PI or Co-PI on dozens of federally funded R&amp;D programs, and has approximately 124 peer-reviewed publications on autonomy, intelligent control, quantum computing, and related topics, including&nbsp;6 books, 10 book chapters, 25 journal articles, 65 conference papers, and one patent. Don leads the Distributed Autonomous Systems Group at NRL where he develops nature-inspired computing&nbsp;solutions to challenging problems in sensing, artificial intelligence, and control of autonomous robotic systems. His current research focuses on control of autonomous teams or swarms of&nbsp;robotic systems for Navy relevant missions.</p>
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      <value><![CDATA[2018-09-26T17:00:00-04:00]]></value>
      <value2><![CDATA[2018-09-26T18:30:00-04:00]]></value2>
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      <timezone><![CDATA[America/New_York]]></timezone>
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          <item><![CDATA[Decision and Control Lab (DCL)]]></item>
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