Template:ETHZ Basel10 Teaser

From 2010.igem.org

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<small>How is it implemented?</small>
<small>How is it implemented?</small>
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<p>By coupling proteins of the chemotaxis pathway to a light-sensitive spatial localization system, the chemotactic activity can be controlled reversibly. To find out more about our project on the molecular level biological implementation visit this section.</p>
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<p>By coupling proteins of the chemotaxis pathway to a light-sensitive spatial localization system, the chemotaxis activity can be controlled reversibly. To find out more about our project on the molecular level biological implementation visit this section.</p>
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<small>How does modeling help?</small>
<small>How does modeling help?</small>
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<p>Mathematical modeling supports analysis of biological systems since the advent of synthetic biology. Find out, how this not only supported wet laboratory experiments by providing time and effort alleviating network structure and experimental design selection, but also provided a test bench for the information processing part.</p>
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<p>Mathematical modeling supports analysis of biological systems since the advent of synthetic biology. Find out, how this supported wet laboratory experiments by providing time and effort alleviating network structure and experimental design selection. The combined model was a perfect test bench for information processing.</p>
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<small>How is it controlled?</small>
<small>How is it controlled?</small>
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<p>Implementation of a comprehensive information processing workflow for controlling E. lemming was achieved by combination of microscopy, image processing, cell detection and a controller. Find out more about how this not only created E. lemming but also created a new application for synthetic biology: Gaming!</p>
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<p>Implementation of a comprehensive information processing workflow for controlling E. lemming was achieved by combination of microscopy, image processing, cell detection and a controller. Find out more about how this not only created E. lemming, but also created a new application for synthetic biology: Gaming!</p>
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<h2>Achievements</h2>
<h2>Achievements</h2>
<small>What was achieved?</small>
<small>What was achieved?</small>
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<p>In addition to the main goal of E. lemming</p>
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<p>We created for E. lemming a BioBrick and a Matlab Toolkit. Find out, how this tools can be used for similar projects and learn more about our comprehensive systems design and systems implementation approaches, which were necessary for the success of E. lemming.</p>
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<p>Find out what we achieved! We created for E. lemming a BioBrick and a Matlab Toolkit, which can be used for similar projects. Learn more about our comprehensive systems design and systems implementation approaches, which were necessary for the success of E. lemming.</p>
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<small>Who is behind E. lemming?</small>
<small>Who is behind E. lemming?</small>
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<p>Find out who created E. lemming and learn about the different backgrounds of the people who tried to achieve one common goal: Having a great experience and going crazy with E. lemming!</p>
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<p>Find out who created E. lemming and learn about the different backgrounds of the people who tried to achieve these common goals: Having a great experience and going crazy with E. lemming!</p>
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Revision as of 15:00, 26 October 2010

  • Motivation & Project Idea

    What is E. lemming?
  • E. lemming - The Movie

    Watch a short animation!
  • Biology & Wet Laboratory

    How is it implemented?
  • Mathematical Modeling

    How does modeling help?
  • Information Processing

    How is it controlled?
  • Achievements

    What was achieved?
  • Team

    Who is behind E. lemming?