We are broadly interested in understanding evolution as a creative force. Our lab primarily uses experiments with microorganisms and molecules to watch evolution in action. We also use the tools of synthetic biology and bioengineering to manipulate and study evolutionary processes. Preventing evolutionary failure in synthetic biology. Genome dynamics in long-term evolution experiments. Evolvability of organisms with synthetic genetic alphabets.

8230;working at the interface of RNA biology and protein engineering to solve complex problems in medicine and biotechnology. Understanding RNA-protein assembly mechanisms during stress responses. Studying protein-induced RNA conformational changes. Characterizing sRNA-mediated regulation in extremophiles. Engineering synthetic RNA elements inspired by natural systems. The University of Texas at Austin.

Synthetic evolutionary origin of a proofreading reverse transcriptase. We are located at the University of Texas at Austin. Our lab is associated with the Center for Systems and Synthetic Biology. The Institute for Cellular and Molecular Biology. The Center for Computational Biology and Bioinformatics. And several other groups at UT Austin. Is now available to read.

Welcome to the Finkelstein Lab. Micron-scale 3D-printed cell capture devices. Fluorescent fission yeast cells expressing an RFP proteasome marker. That are deposited onto a flowcell. Merging next-gen sequencing and single-molecule imaging opens up new opportunities for.

Welcome to the Finkelstein Lab. Micron-scale 3D-printed cell capture devices. Fluorescent fission yeast cells expressing an RFP proteasome marker. That are deposited onto a flowcell. Merging next-gen sequencing and single-molecule imaging opens up new opportunities for.

With a focus on Pediatric sciences and applications. January 4 - 14, 2010. University of Texas at Austin. Austin, Texas, USA. Co-sponsors at University of Texas.

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