In this work, we integrate CRISPR interference into genetic circuits to explore novel ways to connect them with native genes and the environment of the host.
The stability and effect on growth of a bacterial oscillator is studied in sub-micron scale microfluidic chips. The potential of the oscillator as a controller for temporal gene expression programs is quantified with an information theoretic approach. By targeting the host metabolism, a CRISPRi circuit is coupled to the growth environment.
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In this work, we integrate CRISPR interference into genetic circuits to explore novel ways to connect them with native genes and the environment of the host.
The stability and effect on growth of a bacterial oscillator is studied in sub-micron scale microfluidic chips. The potential of the oscillator as a controller for temporal gene expression programs is quantified with an information theoretic approach. By targeting the host metabolism, a CRISPRi circuit is coupled to the growth environment....
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