In times of environmental decline, scientific innovation must be implemented to replace old and inefficient technology. This can lead to positive academic, economic and environmental impacts. Fluorescence microscopy is a key element in many aspects of research throughout the physical, life and health sciences. Microscopes are found in virtually all research institutes, universities, hospitals, biotechnology companies and pharmaceutical companies.
Canadians are among the largest producers of solid waste in the world. According to Environment Canada, we generate 990 kilograms per capita annually compared to the Japanese, for example, who produce half that much.
Green chemistry is a rapidly growing area of interest for industry as companies face increased regulatory requirements, supply constraints, and consumer demands for sustainable products. Business innovation is a powerful means to achieve sustainable development, but challenges associated with marketability of clean technologies must be considered for effective implementation.
Dr. Jeff Bergthorson, a professor of Mechanical Engineering at McGill University, and his colleagues, think the answer to the difficult problem of energy storage and transportation in a fossil-fuel-free future could be metals.
Dylan Clark moved to Montreal to begin a master’s program with James Ford and the Climate Change Adaptation Research Group in the Department of Geography at McGill University to do work in climate change and health. This interesting retrospective written by Mr. Clark paints a picture of the life of an Arctic researcher and the cultural and physical environments they encounter.
While implementation of projects such as the Arviat Climate Change Adaptation Action Plan is key to fight thawing permafrost in the Arctic, it must be followed by monitoring and evaluation, according to Melanie Flynn, a Master’s student with the Climate Change Adaptation Research Group (CCARG), housed within the Department of Geography at McGill University.