User:GMcArthurIV/Research: Difference between revisions

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[[Image:McArthur_work.JPG|thumb|left|Microalgae]]
[[Image:McArthur_work.JPG|thumb|left|Microalgae]]
==Research in Microbial Engineering==
==Research in Microbial Engineering==
The goal of my research is to develop an inexpensive microbial platform for the biological production of organic small molecules (e.g., drugs, fuels). This work is broken down into 4 main areas: 1) the design and characterization of genetic parts and devices, 2) the implementation of synthetic metabolic pathways and refactored organelles, 3) the development and optimization of genetic control circuits and 4) the computational modeling and simulation of engineered systems, natural systems and the interfaces between the two.  Broadly speaking, this research is enabled by recent advances in synthetic and systems biology.
My research goals convolve fundamental molecular biology and microbial engineering.  I build novel biological systems in order to elucidate biological design principles, which is useful for understanding natural biology (e.g., gene expression, adaptive evolution) and for learning how to engineer biology for purpose-driven applications (e.g., drug synthesis, controlled biogeochemistry).  Broadly speaking, this research is enabled by advances in synthetic and systems biology.  In particular, I am interested in building synthetic metabolic pathways and artificial gene networks for 1) optimizing the production of valuable chemicals and 2) learning how to begin to design entire genomes.

Revision as of 12:42, 10 April 2011

Research Projects

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Microalgae

Research in Microbial Engineering

My research goals convolve fundamental molecular biology and microbial engineering. I build novel biological systems in order to elucidate biological design principles, which is useful for understanding natural biology (e.g., gene expression, adaptive evolution) and for learning how to engineer biology for purpose-driven applications (e.g., drug synthesis, controlled biogeochemistry). Broadly speaking, this research is enabled by advances in synthetic and systems biology. In particular, I am interested in building synthetic metabolic pathways and artificial gene networks for 1) optimizing the production of valuable chemicals and 2) learning how to begin to design entire genomes.