Developing Standardized Cell-Free Platforms for Rapid Prototyping of Synthetic Biology Circuits and Pathways: Difference between revisions
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The goal of this project is to further advance standardized cell-free systems from engineered \textit{E.~coli} and other organisms for use in prototyping synthetic circuit and pathway designs. Such standardized systems will both explore the boundaries of cell-free prototyping and characterization, and enable more detailed understanding of key mechanisms, accelerating the usage and broader utility of cell-free systems in industry and academia. The long term vision for this project is to establish cell-free systems as a platform for implementation of synthetic biological circuits, pathways, and systems, where modular and complex biomolecular systems can be engineered in a systematic fashion. This project seeks to overcome some of the current limitations of cell-free systems through a combination of experimental characterization and computational modeling. | |||
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Collaborators: | Collaborators: | ||
* Paul Freemont (Imperial College London) | |||
Past participants: | Past participants: | ||
{{project past participants}} | {{project past participants}} | ||
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=== Objectives === | === Objectives === | ||
[[Image: | [[Image:nsf19-cellfree.png|right|400px]] | ||
The main objectives of this project are: | |||
* Development of well-understood, standardized TX-TL reaction systems that are suitable for prototyping circuits and pathways for a variety of cells | |||
* Characterization and modeling of complex synthetic biology components, circuits, and pathways using TX-TL that enable forward engineering | |||
* Development of new biochemical indicator components for use in TX-TL systems to achieve better understanding and more predictive models | |||
=== References === | === References === | ||
Revision as of 04:21, 21 May 2019
The goal of this project is to further advance standardized cell-free systems from engineered \textit{E.~coli} and other organisms for use in prototyping synthetic circuit and pathway designs. Such standardized systems will both explore the boundaries of cell-free prototyping and characterization, and enable more detailed understanding of key mechanisms, accelerating the usage and broader utility of cell-free systems in industry and academia. The long term vision for this project is to establish cell-free systems as a platform for implementation of synthetic biological circuits, pathways, and systems, where modular and complex biomolecular systems can be engineered in a systematic fashion. This project seeks to overcome some of the current limitations of cell-free systems through a combination of experimental characterization and computational modeling.
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Current participants: Additional participants: |
Collaborators:
Past participants:
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Objectives
The main objectives of this project are:
- Development of well-understood, standardized TX-TL reaction systems that are suitable for prototyping circuits and pathways for a variety of cells
- Characterization and modeling of complex synthetic biology components, circuits, and pathways using TX-TL that enable forward engineering
- Development of new biochemical indicator components for use in TX-TL systems to achieve better understanding and more predictive models
References
- A chemical reaction network model of PURE. Zoila Jurado, Ayush Pandey, Richard M. Murray. BioRxiv preprint, 2023.
- BioCRNpyler: Compiling chemical reaction networks from biomolecular parts in diverse contexts. William Poole, Ayush Pandey, Zoltan Tuza, Andrey Shur, Richard M. Murray. PLoS Computational Biology, 18(4), e1009987, 2022.
- Characterization of Integrase and Excisionase Activity in Cell-free Protein Expression System Using a Modeling and Analysis Pipeline. Ayush Pandey, Makena L. Rodriguez, William Poole, Richard M. Murray. ACS Synthetic Biology, 12(2):511–523, 2023.
- Robustness guarantees for structured model reduction of dynamical systems with applications to biomolecular models. Ayush Pandey, Richard M. Murray. International Journal on Robust and Nonlinear Control (IJRNC), 1-29, 2022.
- Robustness Guarantees for Structured Model Reduction of Dynamical Systems. Ayush Pandey, Richard M. Murray. IEEE Conference on Decision and Control (CDC), 2021.
- Model Reduction Tools For Phenomenological Modeling of Input-Controlled Biological Circuits. Ayush Pandey, Richard M. Murray. 2020 Winter q-bio.
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