Difference between revisions of "Tracks/Hardware"

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<h2> iGEM 2015 Tracks - Hardware</h2>
 
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<div id="alertMessage"> <p> Please note that the information on this page is information migrated from 2014.igem.org.<br>iGEM HQ is currently working on updating this information for the iGEM 2015 competition.<br>When that process has been completed, this notice will be removed. </p></div>
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<!-- <div id="alertMessage"> <p> Please note that the information on this page is information migrated from 2014.igem.org.<br>iGEM HQ is currently working on updating this information for the iGEM 2015 competition.<br>When that process has been completed, this notice will be removed. </p></div> -->
  
 
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<h2><a class="anchor" id="Introduction"></a>Introduction</h2><p>
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iGEM has traditionally been about getting students and teams into wetlab synthetic biology. We require teams to build and submit parts, to build biological machines and to generate data to show us how they work. We have done a good job of getting students into wetlab synthetic biology and have many teams that work in our traditional tracks.  
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<h2><a id="Introduction"></a>Introduction</h2>
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Synthetic biology requires great hardware. Every synthetic biology experiment utilizes a variety of hardware, from liquid handling systems to centrifuges to culture machines and microscopes. The Hardware Track is an opportunity for iGEM teams to show their skills hacking mechanical, electrical, and optical systems that interface with living ones. Teams will be judged on how innovative their hardware systems are designed, fabricated, tested, and documented.
 
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We care about being inclusive and allowing more students and teams to participate in our competition. Because we want to be more inclusive, we are introducing the hardware track. Teams have made their own hardware for many years, even if they are not competing for a specific award. To reward effort in this area, we are creating a new track to allow teams to focus on building their own synthetic biology hardware.
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We couldn’t be more excited for the first batch of iGEM Hardware Track projects!
 
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<h2><a  class="anchor" id="Details"></a>Details</h2>
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<h2><a  class="anchor" id="Details"></a>Track Issues in Synthetic Biology</h2>
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Teams have made many different types of synthetic biology hardware in the past. We are looking for hardware that is relevant to iGEM teams, synthetic biology and several sub-areas of the competition. Some suggestions for areas that are relevant are:  
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There are many areas where hardware projects can interface with synthetic biology. Here is a (non-exclusive) list of project area suggestions:
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<li>Microfluidics (now a part of the Hardware track)</li>
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<li>Measurement equipment</li>
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<li>Environmental sensing equipment (see <a href= "https://2014.igem.org/Team:Cornell/project/drylab"> Cornell 2014 </a> and <a href="https://2013.igem.org/Team:Dundee/Project/SoftwareTheory"> Dundee 2013 </a> for examples) </li>
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<li>Hardware/wetware interface equipment (see <a href="https://2014.igem.org/Team:UC_Davis/Potentiostat_Design_Inspiration_Iteration"> UC Davis 2014 </a>for example) </li>
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<li>Laboratory automation systems</li>
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<li>Low cost lab equipment</li>
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<h2><a  class="anchor" id="PreviousProjects"></a>Previous Projects</h2>
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<b>Experiment Execution</b>. Throughput and reproducibility are key limits to what can be accomplished in synthetic biology. Any hardware that accelerates the design, test, build, and learn cycle and/or makes experimental results more reliable and reproducible will have a significant impact on synthetic biology.
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<b>Sensors</b>. Data acquisition for synthetic biology experiments—from optical density to fluorescence measurements—require sensors. Projects based on novel sensing technologies, or innovative remixes of current sensors, are a welcome addition to the track.
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<b>Liquid Handling</b>. We exist in the pipette era of biology. Fluidic machines—from microfluidics to liquid handling robots—can help us realize the longstanding vision of an automated biological future.
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<b>Complexity Management</b>. Synthetic biologists constantly manage complexity, from sample tracking to running multiple parallel experiments. Great hardware can help organize and systematize without scaling up confusion.
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<b>Accessibility</b>. Traditional hardware for synthetic biology tend to be expensive and complicated machines, creating a barrier to entry for many would-be innovators. iGEM teams in the past have met this challenge and built hardware that is affordable, easy to make, and open.
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<b>Bioreactors</b>. Engineered organisms typically require culturing in an in vitro environment. Great hardware can help organisms grow according to experimental parameters and execute their engineered functions.
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There have been some truly excellent hardware projects in previous years of the competition.  
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<b>Bio-Made Hardware</b>. Hardware can help synthetic biologists engineer biology, but biology can also be used to engineer hardware. Projects that use genetically engineered machines to create structures, mechanisms, and other devices are an exciting part of the iGEM Hardware Track.
 
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<h2><a class="anchor" id="Awards"></a>Awards</h2>
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<h2><a id="PreviousProjects"></a>Previous Projects</h2>
  
 
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Information will be posted soon. Please stay tuned!
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Below are examples of projects from previous iGEM competitions that would be an excellent fit for the new Hardware Track:
 
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<li>An open-source, affordable, DIY optical-density fluorimeter (<a href="https://2014.igem.org/Team:Aachen ">Aachen 2014</a>).</li>
  
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<h2><a class="anchor" id="Requirements"></a>Requirements</h2>
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<div class="centerImages"><img src="https://static.igem.org/mediawiki/2015/9/99/Screen_Shot_2015-03-17_at_11.11.52_AM.png"style="width: 95%"></div>
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<li>A quad-copter made of biomaterials, including bacterial cellulose PCBs (<a href="https://2014.igem.org/Team:StanfordBrownSpelman/Building_The_Drone">Stanford/Brown/Spelman 2014</a>).</li>
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<center><img src="https://static.igem.org/mediawiki/2015/0/03/Drone_1_Eli_Block-1940x1622.jpg" style="width: 95%"></center>
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<li>A continuous flow filter to remove heavy metals from factory waste pipes with engineered microbes (<a href="https://2014.igem.org/Team:Cornell">Cornell 2014</a>).</li>
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<li>The “BioPad” touch-screen interface using microfluidics and e.coli (EPFL 2014).</li>
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<li>An olive oil quality sensor: <a href="https://2014.igem.org/Team:UC_Davis"> UC Davis 2014</a> </li>
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<div class="centerImages"><img src="https://static.igem.org/mediawiki/2014/b/b8/OliView2_0Potentiostat.png" style="width: 95%"></div>
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<li>Microfluidics device with intergreated electrodes: <a href="https://2014.igem.org/Team:TU_Delft-Leiden/Project/Microfluidics">TU-Delft Leiden 2014</a>.
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<h2><a id="Awards"></a>Awards</h2>
  
 
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<h2><a class="anchor" id="Medal Criteria"></a>Medal Criteria</h2>
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<h2><a id="Requirements"></a>Requirements</h2>
  
 
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Information will be posted soon. Please stay tuned!
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Teams must meet the same <a href="https://2015.igem.org/Requirements">requirements as all iGEM teams</a>.
 
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<h2><a class="anchor" id="Committee"></a>Hardware Track Committee</h2>
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<h2><a id="Medal Criteria"></a>Medal Criteria</h2>
  
 
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We have a great committee to help coordinate the Hardware track in 2015.
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Medal criteria are different for new track teams. Hardware teams have different evaluation criteria, so please read over the medals page to know how you will be evaluated.  
 
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Please go to the <a href="https://2015.igem.org/Judging/Medals#hardware"> Medal Criteria page</a> for information on medals.
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<h2><a id="Committee"></a>Hardware Track Committee</h2>
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<li>David Kong (co-chair) - dkong [at] mit [dot] edu </li>
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<li>Will Canine (co-chair) - will [at] opentrons [dot] com</li>
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<li>Alec Nielsen - alecnielsen [at] gmail [dot] com</li>
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<li>Jim Hasselhoff - jh295 [at] cam [dot] ac [dot] uk</li>
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<li>Chris Takahashi - chris.takahashi [at] gmail [dot] com</li>
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<li>Bethan Wolfenden - bethan [at] bento [dot] bio</li>
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<li>Will Patrick - wgpatrick [at] gmail [dot] com</li>
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<li>Max Hodak - max [at] transcriptic [dot] com</li>
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Latest revision as of 18:45, 31 March 2015

Introduction

Synthetic biology requires great hardware. Every synthetic biology experiment utilizes a variety of hardware, from liquid handling systems to centrifuges to culture machines and microscopes. The Hardware Track is an opportunity for iGEM teams to show their skills hacking mechanical, electrical, and optical systems that interface with living ones. Teams will be judged on how innovative their hardware systems are designed, fabricated, tested, and documented.

We couldn’t be more excited for the first batch of iGEM Hardware Track projects!

Track Issues in Synthetic Biology

There are many areas where hardware projects can interface with synthetic biology. Here is a (non-exclusive) list of project area suggestions:

Experiment Execution. Throughput and reproducibility are key limits to what can be accomplished in synthetic biology. Any hardware that accelerates the design, test, build, and learn cycle and/or makes experimental results more reliable and reproducible will have a significant impact on synthetic biology.

Sensors. Data acquisition for synthetic biology experiments—from optical density to fluorescence measurements—require sensors. Projects based on novel sensing technologies, or innovative remixes of current sensors, are a welcome addition to the track.

Liquid Handling. We exist in the pipette era of biology. Fluidic machines—from microfluidics to liquid handling robots—can help us realize the longstanding vision of an automated biological future.

Complexity Management. Synthetic biologists constantly manage complexity, from sample tracking to running multiple parallel experiments. Great hardware can help organize and systematize without scaling up confusion.

Accessibility. Traditional hardware for synthetic biology tend to be expensive and complicated machines, creating a barrier to entry for many would-be innovators. iGEM teams in the past have met this challenge and built hardware that is affordable, easy to make, and open.

Bioreactors. Engineered organisms typically require culturing in an in vitro environment. Great hardware can help organisms grow according to experimental parameters and execute their engineered functions.

Bio-Made Hardware. Hardware can help synthetic biologists engineer biology, but biology can also be used to engineer hardware. Projects that use genetically engineered machines to create structures, mechanisms, and other devices are an exciting part of the iGEM Hardware Track.

Previous Projects

Below are examples of projects from previous iGEM competitions that would be an excellent fit for the new Hardware Track:

  • An open-source, affordable, DIY optical-density fluorimeter (Aachen 2014).
  • A quad-copter made of biomaterials, including bacterial cellulose PCBs (Stanford/Brown/Spelman 2014).
  • A continuous flow filter to remove heavy metals from factory waste pipes with engineered microbes (Cornell 2014).
  • The “BioPad” touch-screen interface using microfluidics and e.coli (EPFL 2014).
  • An olive oil quality sensor: UC Davis 2014
  • Microfluidics device with intergreated electrodes: TU-Delft Leiden 2014.

Awards

Information will be posted soon. Please stay tuned!

Requirements

Teams must meet the same requirements as all iGEM teams.

Medal Criteria

Medal criteria are different for new track teams. Hardware teams have different evaluation criteria, so please read over the medals page to know how you will be evaluated.

Please go to the Medal Criteria page for information on medals.

Hardware Track Committee

  • David Kong (co-chair) - dkong [at] mit [dot] edu
  • Will Canine (co-chair) - will [at] opentrons [dot] com
  • Alec Nielsen - alecnielsen [at] gmail [dot] com
  • Jim Hasselhoff - jh295 [at] cam [dot] ac [dot] uk
  • Chris Takahashi - chris.takahashi [at] gmail [dot] com
  • Bethan Wolfenden - bethan [at] bento [dot] bio
  • Will Patrick - wgpatrick [at] gmail [dot] com
  • Max Hodak - max [at] transcriptic [dot] com