TY - UNPB
T1 - TXO
T2 - Transcription-only genetic circuits as a novel cell-free approach for synthetic biology
AU - Millacura, Felipe A.
AU - Li, Mengxi
AU - Valenzuela-Ortega, Marcos
AU - French, Christopher E.
PY - 2019/10/31
Y1 - 2019/10/31
N2 - While synthetic biology represents a promising approach to solve real-world problems, the use of genetically modified organisms is a cause of legal and environmental concerns. Cell-free systems have emerged as a possible solution but much work is needed to optimize their functionality and simplify their usage for Synthetic Biology. Here we present TXO, transcription-only genetic circuits, independent of translation or post-translation maturation. RNA aptamers are used as reaction output allowing the generation of fast, reliable and simple-to-design transcriptional units. TXO cell-free reactions and their possible applications are a promising new tool for fast and simple bench-to-market genetic circuit and biosensor applications.
AB - While synthetic biology represents a promising approach to solve real-world problems, the use of genetically modified organisms is a cause of legal and environmental concerns. Cell-free systems have emerged as a possible solution but much work is needed to optimize their functionality and simplify their usage for Synthetic Biology. Here we present TXO, transcription-only genetic circuits, independent of translation or post-translation maturation. RNA aptamers are used as reaction output allowing the generation of fast, reliable and simple-to-design transcriptional units. TXO cell-free reactions and their possible applications are a promising new tool for fast and simple bench-to-market genetic circuit and biosensor applications.
U2 - 10.1101/826230
DO - 10.1101/826230
M3 - Preprint
BT - TXO
PB - bioRxiv
ER -