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<strong>The problem</strong><br/> Global climate change and fuel poverty are some of the biggest challenges facing energy production today. Using renewable energy sources to increase global energy production in a sustainable way is therefore vital. However, current technologies have many problems with cost, for example those stemming from intermittency Go to the background page under project for more information. | <strong>The problem</strong><br/> Global climate change and fuel poverty are some of the biggest challenges facing energy production today. Using renewable energy sources to increase global energy production in a sustainable way is therefore vital. However, current technologies have many problems with cost, for example those stemming from intermittency Go to the background page under project for more information. | ||
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<strong>The Solution</strong><br/> To reduce the energy wasted from intermittency problems with renewable energy sources (such as wind and solar) there has been a lot of research focusing on trying to convert this energy into hydrogen to be stored and used later. Biowire’s project uses synthetic biology techniques to engineer the bacterium <i>Shewanella oneidensis</i>. This bacterium has a ‘nanowire’ which can channel electrons into the cell and to the hydrogenase enzymes which can then produce hydrogen. | <strong>The Solution</strong><br/> To reduce the energy wasted from intermittency problems with renewable energy sources (such as wind and solar) there has been a lot of research focusing on trying to convert this energy into hydrogen to be stored and used later. Biowire’s project uses synthetic biology techniques to engineer the bacterium <i>Shewanella oneidensis</i>. This bacterium has a ‘nanowire’ which can channel electrons into the cell and to the hydrogenase enzymes which can then produce hydrogen. | ||
+ | <img src="https://static.igem.org/mediawiki/2016/0/00/T--NRP-UEA-Norwich--HydrogenaseGoals.jpg"/> | ||
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− | <strong>The goals</strong><br/> The overall aim of Biowire’s project is to explore the possibility of using <i>S. oneidensis</i> as an energy storage system. By trying to increase the hydrogen output of <i>S. oneidensis</i> in comparison to the wild type, we are hoping to make this hydrogen production system a more attractive and efficient bioenergy solution to the challenges facing energy production. | + | <strong>The goals</strong><br/> The overall aim of Biowire’s project is to explore the possibility of using <i>S. oneidensis</i> as an energy storage system. By trying to increase the hydrogen output of <i>S. oneidensis</i> in comparison to the wild type, we are hoping to make this hydrogen production system a more attractive and efficient bioenergy solution to the challenges facing energy production. <img src="https://static.igem.org/mediawiki/2016/a/a5/T--NRP-UEA-Norwich--peakgraph.jpg"/> |
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<div id="introPlayVideoButton">Watch a short video about our daily lives</div> | <div id="introPlayVideoButton">Watch a short video about our daily lives</div> |
Revision as of 00:37, 19 October 2016
BioWire
NRP-UEA Norwich
The problem
Global climate change and fuel poverty are some of the biggest challenges facing energy production today. Using renewable energy sources to increase global energy production in a sustainable way is therefore vital. However, current technologies have many problems with cost, for example those stemming from intermittency Go to the background page under project for more information.
The Solution
To reduce the energy wasted from intermittency problems with renewable energy sources (such as wind and solar) there has been a lot of research focusing on trying to convert this energy into hydrogen to be stored and used later. Biowire’s project uses synthetic biology techniques to engineer the bacterium Shewanella oneidensis. This bacterium has a ‘nanowire’ which can channel electrons into the cell and to the hydrogenase enzymes which can then produce hydrogen.
The goals
The overall aim of Biowire’s project is to explore the possibility of using S. oneidensis as an energy storage system. By trying to increase the hydrogen output of S. oneidensis in comparison to the wild type, we are hoping to make this hydrogen production system a more attractive and efficient bioenergy solution to the challenges facing energy production.
Global climate change and fuel poverty are some of the biggest challenges facing energy production today. Using renewable energy sources to increase global energy production in a sustainable way is therefore vital. However, current technologies have many problems with cost, for example those stemming from intermittency Go to the background page under project for more information.
![](https://static.igem.org/mediawiki/2016/7/7b/T--NRP-UEA-Norwich--NASAGraph.jpg)
To reduce the energy wasted from intermittency problems with renewable energy sources (such as wind and solar) there has been a lot of research focusing on trying to convert this energy into hydrogen to be stored and used later. Biowire’s project uses synthetic biology techniques to engineer the bacterium Shewanella oneidensis. This bacterium has a ‘nanowire’ which can channel electrons into the cell and to the hydrogenase enzymes which can then produce hydrogen.
![](https://static.igem.org/mediawiki/2016/0/00/T--NRP-UEA-Norwich--HydrogenaseGoals.jpg)
The overall aim of Biowire’s project is to explore the possibility of using S. oneidensis as an energy storage system. By trying to increase the hydrogen output of S. oneidensis in comparison to the wild type, we are hoping to make this hydrogen production system a more attractive and efficient bioenergy solution to the challenges facing energy production.
![](https://static.igem.org/mediawiki/2016/a/a5/T--NRP-UEA-Norwich--peakgraph.jpg)
Watch a short video about our daily lives
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