Professor, Université du Québec à Trois-Rivières
Email Address: email@example.com
Bio: Synthetic biology using metabolic engineering for the reconstruction of plant metabolic pathway in microalgae for the validation of pathway genes and the production of valuable molecules.
Professor, University of British Columbia
Email Address: firstname.lastname@example.org
Bio: Dr. Steven Hallam is a University of California Santa Cruz and MIT trained molecular biologist, microbial ecologist, entrepreneur, and innovator with over 20 years experience in field and laboratory research at disciplinary interfaces. He is a Professor in the Department of Microbiology and Immunology, former Canada Research Chair in Environmental Genomics and a Leopold Leadership Fellow. He is also a program faculty member in the Bioinformatics and Genome Sciences and Technology training programs at UBC.
Dr. Hallam directs the ECOSCOPE innovation ecosystem consisting of an NSERC CREATE training program, a research network, a core facility for high-throughput screening and a curriculum development initiative in data science based on four research and training pillars: i) microbial ecology, ii) biological engineering, iii) data science, and iv) networking and entrepreneurship. His research intersects these program pillars with specific emphasis on the creation of functional screens and computational tools that reveal hidden metabolic powers of uncultivated microbial communities with direct application to biocatalyst discovery and pathway engineering.
Assistant Professor, Biochemistry, University of Western Ontario / CEO Designer Microbes
Email Address: email@example.com
Bio: Research in the Karas lab is focused on developing innovative genetic tools to enable the engineering of microbes to produce medicines, DNA storage technologies, food and next-generation fuels. We are using a multi-host system to perform in vivo gene deletions, additions and replacements. This approach was designed to take advantage of existing genetic tools developed for model organisms, including Escherichia coli and Saccharomyces cerevisiae. Currently, we are developing novel tools for eukaryotic algae: Phaeodactylum tricornutum, Thalassiosira pseudonana and soil bacterium Sinorhizobium meliloti.
Professor, Associate Chair & Graduate Studies Coordinator, University of Toronto
Email Address: firstname.lastname@example.org
Bio: Our group primarily works on engineering metabolism in bacteria and yeast to produce chemicals and therapeutic molecules. Through the use of computational strategies on genome scale metabolic models of these organisms, we identify genetic intervention strategies to enhance target molecule production. Synthetic biological tools help us assemble and engineer pathways in microorganisms. We use synthetic gene regulatory circuits to dynamically control metabolism in host organisms. The ability to dynamically control metabolism based on environmental inputs finds application in a variety of different areas including therapeutics and industrial biotechnology.
Professor, Concordia University and Co-Director, Centre for Applied Synthetic Biology
Email Address: email@example.com
Bio: We are synthetic biologists with a strong penchant for metabolic engineering and industrial strain improvement. We like yeast but will play with other unicellular bugs as well.
Assistant Professor, Université Laval
Email Address: firstname.lastname@example.org
Bio: Our research projects aim at developing synthetic biology strategies for the biosynthesis of fine chemicals, especially lipid-based drugs and biofuels, to render them accessible for human consumption. In addition, we work on the discovery/invention of new fine chemicals that satisfy emerging human needs in health, energy and bioremediation fields. Our research is conducted using synthetic biology (SB) approaches in microbial hosts as platforms, while aiming at a sustainable production of safe and ecological fine chemicals.
Associate Professor, Department of Biochemistry, University of Alberta
Email Address: email@example.com
Bio: We investigate the potential application of synthetic biology for performing metabolic engineering of yeast, bacteria and cyanobacteria. Current applications include engineering oleaginous yeast and bacteria metabolic pathways for production of high value oleochemicals from cellulosic waste, engineering fermentation inhibitor tolerance into microbial cell factories, construction of microbial cell biosensors for the detection of human and agricultural pathogens, and engineering microbial cell for bioremediation applications.