Haynes Lab: Difference between revisions

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Our group uses synthetic, systems, and quantitative biology to engineer useful gene and protein-based biological devices and to deepen our understanding of molecular cell biology. We operate biological devices primarily in human/ mammalian cells. Accelerating the pace of therapeutic technologies (such as tissue regeneration and customizable protein-based drugs) via modular design is the grand challenge that shapes our research plans.
Our group uses synthetic, systems, and quantitative biology to engineer useful gene and protein-based biological devices and to deepen our understanding of molecular cell biology. We operate biological devices primarily in human/ mammalian cells. Accelerating the pace of therapeutic technologies (such as tissue regeneration and customizable protein-based drugs) via modular design is the grand challenge that shapes our research plans.
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CURRENT PROJECTS<br>
CURRENT PROJECTS<br>
* '''Synthetic chromatin for human cell differentiation''' - Behzad Damadzadeh
* '''Synthetic chromatin for human cell differentiation''' - Behzad Damadzadeh

Revision as of 17:19, 21 September 2013


Our group uses synthetic, systems, and quantitative biology to engineer useful gene and protein-based biological devices and to deepen our understanding of molecular cell biology. We operate biological devices primarily in human/ mammalian cells. Accelerating the pace of therapeutic technologies (such as tissue regeneration and customizable protein-based drugs) via modular design is the grand challenge that shapes our research plans.

CURRENT PROJECTS

  • Synthetic chromatin for human cell differentiation - Behzad Damadzadeh
  • Microbial communication with synthetic quorum sensing - Rene Davis
  • Engineering epigenetic transcription factors - Brady Laughlin (FURI)
  • Protein-DNA fusions in living microbes - Ryan Muller (SOLUR)
  • Synthetic chromatin and UV-damage - Brendan Fries

Lab Notebooks