Team:Sheffield/Further Work
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- | Say if we fused EGFP (488nm) onto the LacZ gene. | + | '''Say if we fused EGFP (488nm) onto the LacZ gene.''' |
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Through this method, we can fuse several fluorescent protein with different excitation and emission wavelengths and therefore get a system that can respond to different wavelengths. | Through this method, we can fuse several fluorescent protein with different excitation and emission wavelengths and therefore get a system that can respond to different wavelengths. | ||
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== Barriers still to overcome == | == Barriers still to overcome == |
Revision as of 17:51, 18 October 2009
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How can we use the results we obtained from the experiments and the model to create a wavelength biosensor?This is how we propose that the system would work: From experiments we have characterised this trend of our initial system:
3. However if we shine a blue light of 500nm onto our system, the activity of the LacZ is high and the EGFP is also activated and so we have an overall system that is switched on!!!!
Through this method, we can fuse several fluorescent protein with different excitation and emission wavelengths and therefore get a system that can respond to different wavelengths. Barriers still to overcomeThere are still many technical details yet still to be investigated, a few main issues are: 1. Method of fusing a fluorescing protein onto the LacZ gene 2. What kind or type of fluorescing protein should be used, as there are many types. The choice of the fluorescent protein
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