Cambridge, UK




Compiled by Jim Haseloff at the University of Cambridge.
This site contains details of recent papers and activity in Synthetic Biology, with particular emphasis on: (i) development of standards in biology and DNA parts, (ii) microbial and (iii) plant systems, (iv) hardware for scientific computing and instrumentation, (v) tools for scientific productivity and (vi) collected miscellany.
The site also contains details of Synthetic Biology research and teaching at the University of Cambridge, including the annual iGEM team run by Jim Ajioka, Jim Haseloff and Gos Micklem in Cambridge.
The Fourth International Workshop on Bio-Design Automation (IWBDA) at DAC will bring together researchers from the synthetic biology, systems biology, and design automation communities....
The overall goal for the workshop is to bring together scientists working in the highly interdisciplinary field of synthetic biology to present cutting-edge research aligned with three...
GCAT is pleased to announce a synthetic biology faculty workshop for the summer of 2012 (June 20-22) hosted by HHMI’s Science Education Alliance (SEA). The goal of this workshop...
A student and post-doc organised conference: they have invited the world's leading scientists to highlight the recent advances in microbial engineering, along with discussing the challenges...
A week long, professional development class will prepare educators to bring biological engineering and synthetic biology into their classrooms and laboratories. The workshop will include...
Finals for the international Genetically Engineered Machine Competition.
The 2nd CSH Asia Synthetic Biology meeting will be held at the Suzhou Dushu Lake Conference Center in Suzhou, China, located approximately 60 miles west of Shanghai.
(Re-)constructing and Re-programming Life
Defying stereotypes: the elusive search for a universal model of LysR-type regulation.: "Publication Date: 2012 Feb PMID: 22235937
Authors: Momany, C. - Neidle, E. L.
Journal: Mol Microbiol
LysR-type transcriptional regulators (LTTRs) compose the largest family of homologous regulators in bacteria. Considering their prevalence, it is not surprising that LTTRs control diverse metabolic functions. Arguably, the most unexpected aspect of LTTRs is the paucity of available structural information. Solubility issues are notoriously problematic, and structural studies have only recently begun to flourish. In this issue of Molecular Microbiology, Taylor et al. (2012) present the structure of AphB, a LysR-type regulator of virulence in Vibrio cholerae. This contribution adds significantly to the group of known full-length atomic LTTR structures, which remains small. Importantly, this report also describes an active-form variant. Small conformational changes in the effector-binding domain translate to global reorganization of the DNA-binding domain. Emerging from these results is a model of theme-and-variation among LTTRs rather than a unified regulatory scheme. Despite common structural folds, LTTRs exhibit differences in oligomerization, promoter recognition and communication with RNA polymerase. Such variation mirrors the diversity in sequence and function associated with members of this very large family.
post to: CiteULike"
(Via Molecular Microbiology.)