Difference between revisions of "Team:Imperial College"

Line 8: Line 8:
 
width:50%;
 
width:50%;
 
}
 
}
 +
.centerimg{
 +
text-align: center;
 +
width: 40%;
 +
}
 +
 
</style>
 
</style>
 
</head>
 
</head>
Line 26: Line 31:
 
<p>The more complex the system, the more control is required. PixCell introduces a new method of control to synthetic biology: electronic control.</p>
 
<p>The more complex the system, the more control is required. PixCell introduces a new method of control to synthetic biology: electronic control.</p>
  
<img class="center"  src="https://static.igem.org/mediawiki/2018/a/a4/T--Imperial_College--FIGX2.png" alt="" width="10%">
+
<img class="centerimg"  src="https://static.igem.org/mediawiki/2018/a/a4/T--Imperial_College--FIGX2.png">
 
<p> Electronic control circuits have provided us with the complex technology we use everyday of our lives. With PixCell we bring electronic control to synthetic biology. We also prove how it can provide the spatiotemporal control required for a key condition of biological complexity: patterning. </p>
 
<p> Electronic control circuits have provided us with the complex technology we use everyday of our lives. With PixCell we bring electronic control to synthetic biology. We also prove how it can provide the spatiotemporal control required for a key condition of biological complexity: patterning. </p>
  

Revision as of 05:11, 16 October 2018

PixCell

Electronic Stimulation of Gene Expression

Pixcell: Electronic Control of Biological Patterning

The more complex the system, the more control is required. PixCell introduces a new method of control to synthetic biology: electronic control.

Electronic control circuits have provided us with the complex technology we use everyday of our lives. With PixCell we bring electronic control to synthetic biology. We also prove how it can provide the spatiotemporal control required for a key condition of biological complexity: patterning.