|Effector 1 (Protease)||Effector 2 (Dye,Enz)||Pigment biosynthetic pathways|
|transcr sigma 54||2 colourless||Bilins|
|Activation (phosphorylation)|| Enz-in-pathway
| Target proteases to use
||Protein scaffold||Fret pairs as back up for effectors|
|2C DNA binding prot release|
This review article has some useful information on FRET.
Our autoinhibitory coiled-coil output constructs
Taken and adapted from the JACS article 'An Autoinhibited Coiled-Coil Design Strategy for Split-Protein Protease Sensors' ref
The construct design is of the order:
Where in our case NFluc and CFluc will be NBlactamase CBlactamase//split eGFP and split TEV itself. The 2A refers to a mutated variation of the original coil sequence (AQLKKKLQANKKELAQLKWKLQALKKKLAQ)which produced a better coil activity.
Tobacco etch virus (TEV) protease-cleavable linker (GGGGENLYFQGGKLGGGG)was used.
NβLac-A-TEV-B’4A βLactamase (26-196) TEV B-CβLac βLactamase (198-290)
James- some suggested papers:
- Kerppola TK. . pmid:17117150.
- Wehr MC, Laage R, Bolz U, Fischer TM, Grünewald S, Scheek S, Bach A, Nave KA, and Rossner MJ. . pmid:17072307.
GFP as output
- In vivo and in vitro protein solubility assays using split GFP
- Monitoring of conformational change in maltose binding protein using split green fluorescent protein
- Protein Splicing-Based Reconstitution of Split Green Fluorescent Protein for Monitoring Protein−Protein Interactions in Bacteria: Improved Sensitivity and Reduced Screening Time
- A Fluorescent Indicator for Detecting Protein−Protein Interactions in Vivo Based on Protein Splicing