<p>An overview of our project will enable you to familiarize yourself with it and go on our results and their significance. Our parts and their characterization are then presented as well as our modelling.
<p>An overview of our project will enable you to familiarize yourself with it and go on our results and their significance. Our parts and their characterization are then presented as well as our modelling.
−
</aside>
+
−
<aside class="menu-aside">
+
−
<h1>Project</h1>
+
−
<img src="images/project.png" alt="project"/>
+
−
<p>An overview of our project will enable you to familiarize yourself with it and go on our results and their significance. Our parts and their characterization are then presented as well as our modelling.
+
−
</aside>
+
−
<aside class="menu-aside">
+
−
<h1>Project</h1>
+
−
<img src="images/project.png" alt="project"/>
+
−
<p>An overview of our project will enable you to familiarize yourself with it and go on our results and their significance. Our parts and their characterization are then presented as well as our modelling.
+
−
</aside>
+
−
<aside class="menu-aside">
+
−
<h1>Project</h1>
+
−
<img src="images/project.png" alt="project"/>
+
−
<p>An overview of our project will enable you to familiarize yourself with it and go on our results and their significance. Our parts and their characterization are then presented as well as our modelling.
The Macquarie iGEM team aims to develop artificial photosynthesis in a biological system harvest the unlimited supply of solar energy. By engineering the biosynthetic pathway for chlorophyll-a, we are taking the first step towards developing the entire photosystem II in the hope of generating hydrogen gas. The industrial potential lies in the ability of channelling this hydrogen gas to develop a renewable energy source. The project aims to engineer the essential genes for the biosynthesis of chlorophyll a into E. coli.
