Team:BCCS-Bristol/Wetlab/Improvements
From 2010.igem.org
m |
|||
Line 12: | Line 12: | ||
The most obvious extension to the project is to add the ability to detect multiple nutrients. In terms of improving fertiliser use, it would make most sense to add phosphate and potassium detection, as together with nitrogen these make up the major components of fertiliser. | The most obvious extension to the project is to add the ability to detect multiple nutrients. In terms of improving fertiliser use, it would make most sense to add phosphate and potassium detection, as together with nitrogen these make up the major components of fertiliser. | ||
- | There are already promoters available in the parts registry that sense Phosphate ( | + | There are already promoters available in the parts registry that sense Phosphate (BBa_K116401 submitted by NYMU-Taipei). |
+ | |||
What’s more, the wide variety of fluorescent proteins available in the parts registry makes it easy to add another signal, without requiring different detection technology. These additional signals would also be compatible with our ratio method of calibrating signals. | What’s more, the wide variety of fluorescent proteins available in the parts registry makes it easy to add another signal, without requiring different detection technology. These additional signals would also be compatible with our ratio method of calibrating signals. | ||
- | ===Increasing | + | ===Increasing Signal Strength and Differences=== |
+ | |||
+ | As is clear from our results, we were able both to detect our signals, and to distinguish differences between Nitrate levels quite precisely. | ||
+ | However, our end goal would be a signal system that could be detected by low tech equipment on farmers fields. In this case, having a stronger signal is always better. Increasing the number of bacteria in beads, as listed below, would probably help this, but so too would increasing the amount of GFP produced by our bacteria or even how bright this GFP is. Whilst this was beyond the scope of our project in the time frame, we would hope further work, ideally with collaboration from other teams would make it achievable. | ||
==Improving the beads== | ==Improving the beads== |
Revision as of 19:45, 25 October 2010
iGEM 2010
Contents |
Improvements
We’re extremely proud of what we’ve accomplished this year on the wetlab side; first building and well characterising our biobrick, but then also developing our novel bead approach to improving signal detection. However the project is still far from perfect, below are several things we would like to implement were we to take the project further.
Improving the system
Adding further promoters
The most obvious extension to the project is to add the ability to detect multiple nutrients. In terms of improving fertiliser use, it would make most sense to add phosphate and potassium detection, as together with nitrogen these make up the major components of fertiliser.
There are already promoters available in the parts registry that sense Phosphate (BBa_K116401 submitted by NYMU-Taipei).
What’s more, the wide variety of fluorescent proteins available in the parts registry makes it easy to add another signal, without requiring different detection technology. These additional signals would also be compatible with our ratio method of calibrating signals.
Increasing Signal Strength and Differences
As is clear from our results, we were able both to detect our signals, and to distinguish differences between Nitrate levels quite precisely.
However, our end goal would be a signal system that could be detected by low tech equipment on farmers fields. In this case, having a stronger signal is always better. Increasing the number of bacteria in beads, as listed below, would probably help this, but so too would increasing the amount of GFP produced by our bacteria or even how bright this GFP is. Whilst this was beyond the scope of our project in the time frame, we would hope further work, ideally with collaboration from other teams would make it achievable.