Professor, Waterloo Centre for Microbial Research, University of Waterloo / CSO, Metagenom Bio Inc.
Email Address: firstname.lastname@example.org
Bio: Professor Charles is a microbiologist with expertise in bacterial molecular genetics. His research group studies the mechanisms of gene regulatory circuits that control the interactions of Rhizobiales bacteria such as Sinorhizobium meliloti with their eukaryal hosts.
The group also develops methods for functional metagenomics using alternate surrogate hosts, and employs these methods to isolate novel genes with interesting functions from microbial community genomic libraries.
Current research emphasis is on functional metagenomics, bioplastics and bacterial genome engineering.
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.
Professor, Department of Applied Mathematics, University of Waterloo
Email Address: email@example.com
Bio: Our group uses mathematical and computational tools to construct and analyse kinetic models of biomolecular systems. Our current projects are primarily focused on model-based design of synthetic bacterial gene regulatory systems.
Assistant Professor, Concordia University
Email Address: firstname.lastname@example.org
Bio: We are a systems genetics and synthetic biology group interested in repurposing model organisms by humanizing yeast. Our laboratory aims to engineer human biological processes in simplified cells to study disease and evolution.
Professor, University of Ottawa
Bio: I believe that Synthetic Biology will continue to play a significant role in medical innovation, including engineered virus and engineered immune cells that can cure cancer. I have been part of the Synthetic Biology community since the early 00' and started working in the field with Dr. James Collins on sources of "noisy" signals in gene expression and the engineering of programable cell behaviour by creating "plug-ins" for interfacing synthetic gene networks and natural signalling pathways. To facilitate medical advances, I am member of the Cancer Therapeutics Program at the Ottawa Hospital Research Institute and the Regional Genetics Program at the Children's Hospital of Eastern Ontario.
My NSERC-funded Synthetic Biology program uses an integrated genetic network engineering approach to study gene regulatory processes and develop artificial gene control systems. This program is driven by my long-term passion to understand how genomes encode "programs" that control and coordinate cellular behaviour and organismal development and fail during disease. This involves both foundational and applied research, including DNA assembly methods, artificial transcription factors, biological network design, systems modelling and simulation.
I initiated the uOttawa iGEM undergraduate training program soon after I arrived in Ottawa and have been the organizer and the supervisor of the uOttawa iGEM team. Many iGEM team members have continued as graduate students in my program subsequently moved to world-leading institutions including MIT, Cambridge, Harvard and NYU.
Team Leader, National Research Council Canada
Bio: We are utilizing Synthetic Biology tools for improving the productivity of agricultural crops. Specifically, we apply precise gene editing tools to improve tolerance to pests, diseases and abiotic stress of economically important agricultural crops, such as wheat, canola and pulse.
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.
Research Officer, National Research Council of Canada; University of Ottawa
Email Address: firstname.lastname@example.org
Bio: Chimeric antigen receptor T cells (CAR-T) are an exciting new avenue to redirect immune cells to target and kill cancer. While breakthroughs in CAR-T therapy have led to life-saving treatments for patients with previously incurable leukemia, such therapies have been less successful against solid tumours. Moreover, the determinants of long term cancer regression in CAR-T treated patients are not yet well understood. Using genome editing, we are dissecting the mechanisms of programmed cell death and other immune signalling pathways in T cells in order to improve their effectiveness against cancer. Our long term goal is to create super-functional gene-edited cell therapies to treat currently intractable illnesses such as cancer and autoimmunity.
Associate Professor, University of Toronto Mississauga
Email Address: email@example.com
Bio: We work on (mainly) microbial synthetic biology, investigating ways to create novel solutions to real-world problems with engineered microbes. We pursue several parallel tracks: (1) Combined theoretical and experimental approaches to biological feedback and synthetic implementations of networks that maintain fixed outputs in the face of external disturbances; (2) Expanding the synthetic biology "toolkit" to include novel modes of regulation (including a recruitable T7-based activation system that provides a system to generate programmable, orthogonal sets of transcriptional activators in bacteria); and (3) the motivation for the other two tracks: application to real-world problems including human health in the developed world (working with a multi-PI team on sensing and responding to inflammatory bowel diseases using engineered microbes) and in the developing world (implementing microbe-based antibody detection in blood samples, for low-cost blood screening or diagnosis).
Professor, Wilfrid Laurier University
Bio: My work is about gene-product interactions, which can be represented as networks and modules. It has potential for application in synthetic biology since it can show how modules doing similar things have evolved, thus how we might be able to engineer them, avoid cross-talk, etc.
Professor, Concordia University
Bio: We aim to engineer reliable synthetic gene circuits suitable for impactful applications, and to use them as models and tools to learn more about biology. We use quantitative approaches, combining microfluidics to precisely control the experimental conditions with theory to engineer highly precise circuits that could be used in future applications. Building biology from the bottom-up will enable us to understand biology better, for example because engineering such circuits can reveal broader challenges in a tractable context.
Associate Professor, Department of Biochemistry, University of Alberta
Email Address: firstname.lastname@example.org
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.
Professor & Director, Michael Smith Laboratories, University of British Columbia / Professor, University of Toronto
Email Address: email@example.com
Bio: Research in the Zandstra Laboratory is focused on the generation of functional tissue from somatic and pluripotent stem cells. Our quantitative, technology-driven approach strives to gain new insights into fundamental mechanisms that control stem cell fate and to develop robust technologies for the propagation of stem cells and their derivatives. We apply synthetic biology to understand and control cell fate decisions by manipulating the stem cells themselves (genome editing, gene circuit engineering) and their prospective niche (synthetic biomaterials, macro- and micro reactor technologies).