December 20, 2013 - Canadian Scientists Publish Environmental Research Reports

On December 20, 2013, you'd find Canadian scientists releasing a coordinated wave of environmental research that exposed serious contradictions in the country's climate trajectory. Canada's emissions had reached 750 megatonnes of CO2 equivalent, Arctic oil spill risks threatened Indigenous communities, boreal permafrost was releasing dangerous methane, and offshore drilling was degrading East Coast air quality. All of this emerged while government suppression was quietly dismantling the very scientific infrastructure needed to track it. There's much more beneath the surface.

Key Takeaways

• Canadian GHG emissions reached 750 Mt CO2 eq in 2013, exceeding Kyoto and Copenhagen targets with projections showing minimal improvement by 2020.
• Permafrost thaw beneath roughly 40% of Canada's boreal forest accelerates methane emissions, offsetting forest carbon gains and triggering irreversible warming feedbacks.
• Arctic oil spill risks near Rankin Inlet were estimated at $7.5 billion, threatening Indigenous cultural identity and hunting traditions.
• Ontario's coal phase-out reduced electricity emissions below 15 Mt in 2011, demonstrating viable regional strategies for emissions reduction.
• Cook et al. (2013) confirmed 97.1% scientific consensus on human-caused climate change, strengthening Canadian policy support for emissions reductions and clean energy.

Why the 97% Climate Consensus Framed Canadian Research in 2013

When John Cook's 2013 study analyzed roughly 12,000 climate abstracts from 1991 to 2011, it didn't just produce a statistic—it reshaped how researchers, institutions, and policymakers framed climate science worldwide, including in Canada.

Of the 4,000 papers expressing a position, 97.1% endorsed human causation. That figure became a powerful policy framing tool, shifting climate conversations away from doubt and toward solutions.

For Canadian scientists, the consensus aligned with positions held by Environment Canada, the Canadian Meteorological and Oceanographic Society, and the Royal Society of Canada.

You can see how the 97% figure strengthened public communication efforts by closing the "consensus gap"—the disconnect between scientific agreement and public perception. It positioned dissent as a marginal view, reinforcing institutional support for emissions reductions and clean energy policy. Notably, Cook et al. also incorporated author self-ratings as a verification layer, adding methodological credibility to the consensus figure beyond abstract categorization alone.

The study's volunteer team spanned multiple countries, with contributors from Australia, the USA, Canada, the UK, New Zealand, Germany, Finland, and Italy, collectively completing over 24,000 ratings through an entirely unfunded effort coordinated by Skeptical Science members.

What Canada's 2013 Emissions Data Actually Showed

The 97% consensus may have shaped how Canadians talked about climate change, but the country's own emissions data told a more complicated story. Canada's emissions trajectory showed a troubling pattern: total GHG emissions reached 750 Mt CO2 eq in 2013, up from 741 Mt in 2012, exceeding both Kyoto and Copenhagen targets markedly.

You'd notice mixed signals across sectors. Ontario's coal phase-out drove electricity emissions below 15 Mt in 2011, demonstrating real progress. Yet oil and gas emissions trended upward, undermining national gains. Canada exceeded its Kyoto target by 26%, making the policy implications impossible to ignore.

Fuel combustion still comprised 77% of total emissions, and national projections for 2020 sat at 734 Mt — barely below 2013 levels. Progress remained uneven and insufficient. All figures were drawn from Environment Canada's inventory, the authoritative national tracking system submitted to the UNFCCC. Looking further ahead, Canada's economy-wide GHG intensity would ultimately decline 45% by 2023 relative to 1990 levels, suggesting that decoupling emissions from economic growth was a long-term process already underway.

What Did Canadian Scientists Publish in December 2013?

Canadian scientists published a range of research in December 2013 that touched on ecosystems, freshwater biodiversity, and energy infrastructure.

You'll find that boreal biodiversity research highlighted how natural drivers like fire, insects, and climate sustained productivity and landscape variability across Canada's boreal zone.

Scientists also updated watershed stressors assessments, tracking how urban expansion and resource development intensified anthropogenic pressures, particularly in northern provincial regions.

Conservation priorities shifted northward in British Columbia, Alberta, and Ontario while declining in southern areas.

Separately, a federal report on West Coast energy infrastructure, released that December, integrated Aboriginal consultation into environmental assessments.

Researchers also examined climate change, drought, and human health intersections, publishing findings in accessible formats to inform policy decisions and raise public awareness about Canada's changing environmental conditions. That same month, the December 2013 issue of Perspectives on Science and Christian Faith included a lead editorial outlining criteria for article contributions to an upcoming environmental science theme issue.

Canada's boreal zone, spanning 552 million hectares, encompasses forests, wetlands, lakes, and rivers, with approximately 96% of that land under federal, provincial, territorial, or Aboriginal ownership. Freshwater biodiversity research drew international comparisons, including references to the Danube Delta, recognized as the best-preserved delta in Europe and a UNESCO World Heritage site known for its exceptional biodiversity.

Why Did Canada's Arctic Oil Spill Research Matter in 2013?

While December 2013 saw Canadian scientists publishing broadly on ecosystems and energy infrastructure, one research area carried particularly urgent stakes: Arctic oil spill preparedness. Melting sea ice was opening the Northwest Passage, intensifying shipping risks daily. Without stronger response capabilities, a single spill could devastate everything communities depend on.

Consider what was at stake:

1. Indigenous livelihoods — A five-year uncontrolled spill near Rankin Inlet could cost $7.5 billion while destroying hunting traditions and cultural identity.
2. Fragile ecosystems — Arctic flora and fauna face irreversible collapse when oil enters ice-covered environments.
3. Human vulnerability — Indigenous communities bear disproportionate consequences while having the least power to prevent corporate-driven disasters.

Canada's research wasn't academic—it was a race against accelerating environmental and economic catastrophe. Key guidance came from reports assessing oil spill response technologies under high-latitude conditions, identifying research gaps and recommending strategies to advance preparedness in Arctic marine environments. Researchers developed a new risk assessment method that expressed potential spill consequences in U.S. dollars using an influence diagram model, offering a practical decision-making tool for policymakers, insurance companies, and emergency response institutions. The urgency of such environmental preparedness resonates globally, as other vulnerable nations like Kiribati—threatened by rising sea levels—similarly face the prospect of irreversible damage to ecosystems and communities with little power to prevent it.

What Offshore Drilling Was Doing to East Coast Air Quality

Offshore drilling on Canada's East Coast wasn't just reshaping the seafloor—it was poisoning the air above it. Platforms were dumping over 35,000 tons of nitrogen oxides and 30,000 tons of VOCs annually, the exact chemical combination driving offshore smog formation. You'd find ozone levels in drilling plumes matching those of major urban centers.

Meanwhile, methane plumes from North Sea platforms were releasing twice the officially reported amounts—a median 6.8 grams per second per platform—suggesting East Coast operations faced similar underreporting. When spills occurred, like Deepwater Horizon, eight percent of released oil converted into inhalable organic particles. These weren't abstract statistics. Coastal communities, disproportionately lower-income populations, were breathing the consequences of an industry that consistently externalized its true environmental costs onto surrounding populations. The atmospheric plume from Deepwater Horizon stretched roughly 30 kilometers wide upon reaching the coast, carrying both soot from controlled burns and organic particles formed from evaporating surface oil.

Atmospheric emissions represented only one dimension of the industry's environmental footprint, with pressures spanning the full lifecycle of operations from exploration through decommissioning, including discharges of produced water, hazardous chemicals, and drilling fluids that compounded the burden on surrounding ecosystems. OSPAR measures introduced largely since 2000 succeeded in reducing some of these impacts, demonstrating that regulatory intervention works when consistently applied across the industry. Parallel efforts in cultural preservation, such as those undertaken by the National Museum of Afghanistan, similarly demonstrate that climate control implementation can meaningfully slow the deterioration of irreplaceable materials when applied with institutional commitment.

What the 2013 Environmental Reports Revealed About Boreal Permafrost Loss

Buried beneath roughly 40% of Canada's boreal forest, permafrost was quietly unraveling. Scientists confirmed that permafrost thaw wasn't just reshaping landscapes—it was accelerating climate change itself. Methane emissions were rising substantially, offsetting any carbon gains from increased forest productivity. The boreal zone stretches from the Alaska border to Newfoundland, spanning forests, grasslands, and wetlands across a vast continental landscape.

The numbers you couldn't ignore:

1. ~19% of deep peat carbon vanished post-thaw, averaging 26 kg C m⁻² lost
2. Abrupt thaw threatened 20% of Earth's permafrost, collapsing ground beneath entire forests
3. Temperatures projected 4–5°C warmer by 2100, making recovery nearly impossible

You were watching a decades-long chain reaction begin. Once irreversible degradation started, forests declined, carbon flooded the atmosphere, and warming intensified further. The Aspen Parkland ecoregion, situated at the forest–grassland transition, was considered particularly vulnerable to drought, with its ecosystem responses expected to offer a preview of future impacts across the southern boreal forest.

How Did Government Silencing Put This Research at Risk?

Even as scientists were documenting permafrost collapse and rising methane emissions, the Canadian government was systematically cutting off their ability to tell you about it.

Media suppression wasn't subtle — 90% of government scientists reported they couldn't speak freely to reporters, and Environment Canada's climate change media engagement dropped 80% under documented policy. Chaperones monitored scientists at conferences, filtered your questions, and sat in on phone interviews without disclosure.

The damage extended beyond silenced voices. Data erosion accelerated as five LiDAR stations closed, ozone monitoring halted, and oceanic libraries shuttered. Peter Ross, Canada's only marine mammal toxicologist, lost his position entirely.

When 700 Environment Canada jobs vanished in 2011, the research infrastructure needed to track permafrost and methane changes disappeared with them. The Experimental Lakes Area faced a federal funding cut of $2 million and a near-complete shutdown, threatening the loss of irreplaceable long-term datasets on freshwater ecosystems and fish.

The broader legislative landscape compounded these losses. Passed in 2012, Bill C-38 gutted environmental protections by weakening the Fisheries Act and Canadian Environmental Assessment Act, stripping legal safeguards that had long underpinned the scientific programs now being dismantled.