Our lab is the Optogenetic Protein Engineering Node of the Canadian Neurophotonics Platform. We work together with a Canada-wide team of researchers to develop and test novel neurophotonics tools and technologies.
We use protein engineering to invent new tools for imaging dynamic biochemical events in live cells and tissues. We distribute these tools to cell biologists and neuroscientists who apply them to address questions ranging from fundamental mechanisms in cell biology, to the underlying causes of mental illness, to the development of novel therapeutics.
The molecules that make our work possible are colourful naturally occurring fluorescent proteins from jellyfish, coral, and other marine organisms. Starting from the gene for a fluorescent protein, we use the techniques of molecular biology, protein engineering, and artificial molecular evolution to create useful research tools. Since these tools are protein based, the instructions to make them can be easily introduced into cells, tissues, or even transgenic model organisms, in the form of DNA.
.A postdoctoral researcher position focussed on the development of a new generation of genetically encoded neural activity indicators is available in the lab of Dr. Robert E. Campbell at the University of Alberta, Edmonton, Alberta, Canada. This position is funded by an NIH grant awarded as part of the United States Brain Research through Advancing Innovative Neurotechnologies (BRAIN) Initiative.
More details here.
From the article:
“Campbell’s love of invention-oriented science has guided his career. “However, as I approach my midcareer stage, I’m also finding that focusing on invention alone can be kind of scary,” he says. Hypothesis-driven research will always lead to an answer, even if it is not the right answer. “In contrast, invention-driven research is often binary,” he says. “It either works or it doesn’t work, and the failures are rarely publishable.”
Campbell says his graduate students offer a steady flow of creativity and imagination and help him sustain this invention-focused model to keep developing FP-based tools.”
From the article:
“The elegance and convenience of having a cell make its own fluorophore outweighs all other considerations for all but a very small number of potential applications, says Campbell. “If I wanted to perform long-term tracking of a cell surface receptor, I would use a quantum dot,” he says. “Other than that, FPs all the way!””
Congratulations to Yidan and all the coauthors and collaborators.