
CERC, funded by the Government of Canada, is a program to support ambitious research programs at Canadian universities, making our country a global leader in research and innovation. The program began in May 2010, and Søren Rysgaard, Canada Excellence Research Chair in Arctic Geomicrobiology and Climate Change, joined CEOS in spring 2011. Visit the CERC website.
Click here to read about the SERF project.

Based out of Université Laval, ArcticNet brings together scientists, northern communities, government agencies, and private industries in a series of ongoing research phases. This research examines the impacts of climate change on Canada's coastal Arctic, a body of knowledge that will be crucial in the development of climate change adaptation strategies and national policies. ArcticNet also uses the CCGS Amundsen for field work, and emphasizes the importance of exchanging knowledge with Inuit communities and training the next generation of Arctic scientists. Visit the ArcticNet website.
The Sea Ice BREA project is intended to provide regionally-relevant information on dangerous ice features that will enhance the decision-making capacity of regulators and industry on issues of development. Our objectives fit Tier 1 priorities of fine scale modelling (coupled ocean-ice-atmosphere processes) and quantification of extreme sea ice features, and the regional assessment of coarse-scale sea ice hazards.
The project's overarching objective is to develop an undestanding of the physical and engineering characteristics of sea ice features in the source area for future oil and gas exploration on the Beaufort Sea shelf. To accomplish this we need to:
The University of Manitoba contributions to the Sea Ice BREA Project will focus on the identification of hazardous ice features using remote sensing techniques, and understanding the dynamic and thermodynamic properties of extreme ice features. This project is integrated with projects led by Michelle Johnston (NRC) which seeks to better understand engineering properties of extreme ice features (ice thickness and strength) and Christian Haas (University of Alberta) which examines the regional distribution of ice types and thickness distributions.
The connection of the ice-covered marine system to the warming Arctic environment is readily apparent, but the extent of these changes and future changes on the ecosystem and associated climate feedback processes are not well understood. Landfast research near Resolute Bay, NU, will consider the following:
It is hypothesized that the timing of primary production will dictate the extent of ice-pelagic-benthic coupling in the ice-covered ecosystem and therefore will provide a sensitive indicator of directional change for the system as a whole. The underlying objective of this project will be to determine the physical-biological processes controlling the timing of primary production and their influence on the drawdown/release of climatically active gases. Visit the ARCTIC-ICE website.

Click here to read about the IPY-CFL project.

STAR was a collaborative research project that aimed to improve our understanding of Arctic storms, our knowledge of their hazards, and our ability to predict them. Field work was based out of Iqaluit, Nunavut and took place during the winter of 2007-08. STAR hopes to leave behind comprehensive datasets and new techniques that can be used by the scientific community for years to come. Visit the STAR website.

From 1999 to 2004/05, the Canadian Prairies experienced a severe drought. DRI was subsequently created as a research network for coordinating and integrating drought research in Canada. By studying this recent drought, DRI hopes to better understand the features, processes and feedbacks of drought formation in the Canadian Prairies, and to improve our ability to predict them. Visit the DRI website.

Between the Canadian islands of Ellesmere and Devon and the coast of Greenland lies a vast expanse of ice-free sea: a polynya. It is known as the North Water, and the heat coming off the ocean makes it one of the most productive ecosystems north of the Arctic Circle. Organisms as diverse as birds, mammals, and plankton take advantage of this microclimate for feeding, spawning, mating, and overwintering. However, until recently, the North Water was poorly understood. Therefore, NOW was created, an international research project to study and model the polynya. The research paid particular attention to the climatic and oceanographic processes that led to the North Water's formation, the biological production it supports, and its potential fate as climate change continues.

30% of the Arctic basin is made up of shallow coastal shelf regions. These are the areas in which the extent, thickness, and duration of sea ice is most variable, and where food webs are most vulnerable. Until recently, they were also areas that lacked sufficient data and understanding. In 2001, CASES, an international project run by Canadians, was created in hopes to better understand sea ice variability and change on the Mackenzie Shelf, and the subsequent ecological and biogeochemical consequences. Visit the CASES website.

In the 1990s, the effects of climate change were not yet obvious in the Arctic, but they were expected to begin at any time. C-ICE was created as a field program to collect accurate, precise, long-term data so that any changes in sea ice, snow cover, climate, or Arctic ecosystems could be detected.
Manitoba Agriculture was a joint project between CEOS, the Canadian Wheat Board, the Canadian Space Agency, the Canada Centre for Remote Sensing, and Westco. It examined crop variables such as soil fertility, topography, soil chemistry, and microwave backscatter, as well as their effects on crop yields.
From 1996-2003, CEOS collaborated with Natural Resources Canada's GlobeSAR-2 Program to assess drought in northeastern Brazil, particularly how SAR radar and optical wavelength data could be integrated to better identify salt-affected soil.
This joint project between CEOS and the Center for International Forestry Research researched temporal changes in Indonesian land-cover while establishing a classification protocol for Historic LandSat imagery and assessing the benefit of RadarSat imagery in this protocol.
CEOS, together with the Freshwater Institute of the Department of Fisheries and Oceans Canada, prepared a water quality report and biotic risk assessment for Lake Malawi, used GIS modelling to map biodiversity levels, and trained graduate students from the surrounding countries in aquatic sciences.