An Electro genetic Toolkit

To control gene expression, we developed a suite of genetic, electronic and digital tools that allow for

  • Bio-electronic signal processing
  • High throughput screening of electrically inducible promoters
  • Monitoring and control of gene expression
  • A simple pipeline to connect gene expression to the web
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Electro-Genetic signal processing

We have broken down the signal processing problematic to 3 parts on individual plasmids.
Building up on the practice from the world of electronic circuit design, we see each plasmids as components of larger circuits.

Like shelves in a workshop storing resistors and capacitors of specific values, we hope that users of our toolkit will construct library of interchangeable parts, so that entirely new components can be built up by swapping each of the 3 plasmids in a single transformations

We have standardised the way each of these parts communicates trhough combinaisons of transcription factors | promoters.
This modular design increase the flexibility of users wjere modification of a single part for a specific project will result in the redesign of a single plasmid

The Output plasmid hold a Transcriptional Unit where an electrically induced promoter is placed upstream of CinR, a transcription factor activating pCin in the presence of XXXX



High throughput screening of electrically inducible promoters

We developed a set of hardware and software tool to screen entire library of promoters, searching for electrically inducible promoters.

We used this suite of tool in conjunction with the E. coli Promoter collection.

These experiments allowed us to propose a collection of Bio-electronic bricks.

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Firstname Lastname Email
John Doe john@example.com
Mary Moe mary@example.com
July Dooley july@example.com






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Monitoring and control of gene expression

We adapted and characterised open source hardware from biochemistry to be used in the context of synthetic biology and to control out INPUT Systems.

Wedevelopped new route to monitor gene Expression and signal transduction of our system through an electronic sensor of our OUTPUT System



A simple pipeline to connect gene expression to the web

Because of it bio-electronic nature, our toolkit represent a first corner stone to the building of an Internet of Living Things.

As a simple proof of concept that our project enable seamless integration with existing digital technology, we rapidly (in less than 1 hour) built a pipeline (integrated with our our costum software and hardware) allowing to directly tweet bacterial population to control gene expression.

Because of the electrical nature of our OUTPUT System, similar integration will be possible to enable bacterial populations to tweet back.

We used this suite of tool in conjunction with the E. coli Promoter collection. These experiments allowed us to propose a collection of Bio-electronic bricks.

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