Team:Austin Texas
From 2014.igem.org
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Noncanonical amino acids (ncAAs) are an exciting new tool in the biological researchers toolbox. Incorporating ncAAs into proteins will allow scientists to create bacteria that can perform novel or new functions. The amberless E. coli used in this kit have had all the amber stop codons in its genome recoded and removed to allow the amber codon to be used for ncAAs. Unfortunately, these noncanonical amino acids are often difficult to incorporate into proteins due to a low fidelity of the synthetase/tRNA pair. Our project aims to create a kit that can measure the fidelity of the synthetase/tRNA pair and incorporation of several different noncanonical amino acids into fluorescent proteins. The kit is a simple two-plasmid system. The first plasmid contains an IPTG-inducible RFP, followed by a linker sequence containing a recoded amber stop codon (where the ncAA will be incorporated) and sfGFP. The other plasmid contains the synthetase/tRNA pair. When the RFP-linker-GFP protein is induced and exposed to the excitation wavelengths for RFP and GFP, the fluorescence of both parts of the fusion protein can be measured and compared. Depending on the relative intensities of the RFP and GFP fluorescent proteins, we can determine how efficient the synthetase/tRNA pairs are at incorporating the ncAA. We plan to equip researchers with a quick and easy “plug and play” system that contains easily interchangeable parts. Researchers will be able to insert any plasmid containing a new synthetase/tRNA pair into our pre-made cells to test the fidelity and incorporation of various ncAAs. | Noncanonical amino acids (ncAAs) are an exciting new tool in the biological researchers toolbox. Incorporating ncAAs into proteins will allow scientists to create bacteria that can perform novel or new functions. The amberless E. coli used in this kit have had all the amber stop codons in its genome recoded and removed to allow the amber codon to be used for ncAAs. Unfortunately, these noncanonical amino acids are often difficult to incorporate into proteins due to a low fidelity of the synthetase/tRNA pair. Our project aims to create a kit that can measure the fidelity of the synthetase/tRNA pair and incorporation of several different noncanonical amino acids into fluorescent proteins. The kit is a simple two-plasmid system. The first plasmid contains an IPTG-inducible RFP, followed by a linker sequence containing a recoded amber stop codon (where the ncAA will be incorporated) and sfGFP. The other plasmid contains the synthetase/tRNA pair. When the RFP-linker-GFP protein is induced and exposed to the excitation wavelengths for RFP and GFP, the fluorescence of both parts of the fusion protein can be measured and compared. Depending on the relative intensities of the RFP and GFP fluorescent proteins, we can determine how efficient the synthetase/tRNA pairs are at incorporating the ncAA. We plan to equip researchers with a quick and easy “plug and play” system that contains easily interchangeable parts. Researchers will be able to insert any plasmid containing a new synthetase/tRNA pair into our pre-made cells to test the fidelity and incorporation of various ncAAs. | ||
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Revision as of 04:59, 15 October 2014
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