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Energy

Canada must build 840 solar-power stations or 16 nuclear power plants to meet Ottawa’s 2050 emission-reduction target

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From the Fraser Institute

By Kenneth P. Green

The federal government’s plan to eliminate greenhouse gas (GHG) emissions from electricity generation by 2050 is impossible in practical terms, finds a new study published today by the Fraser Institute, an independent, non-partisan Canadian public policy think-tank.

Due to population growth, economic growth and the transition to electrified transportation, electricity demand in Canada will increase substantially in coming years. “To meet existing and future electricity demand with low-emitting or zero-emitting sources within the government’s timeline, Canada would need to rapidly build infrastructure on a scale never before seen in the country’s history,” said Kenneth P.
Green, senior fellow at the Fraser Institute and author of Rapid Decarbonization of Electricity and Future Supply Constraints.

For example, to generate the electricity needed through 2050 solely with solar power, we’d need to build 840 solar-power generation stations the size of Alberta’s Travers Solar Project. At a construction time of two years per project, this would take 1,680 construction years to accomplish.

If we relied solely on wind power, Canada would need to build 574 wind-power installations the size of Quebec’s Seigneurie de Beaupre wind-power station. At a construction time of two years per project, this would take 1,150 construction years to accomplish.

If we relied solely on hydropower, we’d need to build 134 hydro-power facilities the size of the Site C power station in British Columbia. At a construction time of seven years per project, this would take 938 construction years to accomplish.

If we relied solely on nuclear power, we’d need to construct 16 new nuclear plants the size of Ontario’s Bruce Nuclear Generating Station. At a construction time of seven years per project, this would take 112 construction years to accomplish.

Currently, the process of planning and constructing electricity-generation facilities in Canada is often marked by delays and significant cost overruns. For B.C.’s Site C project, it took approximately 43 years from the initial planning studies in 1971 to environmental certification in 2014, with project completion expected in 2025 at a cost of $16 billion.

“When Canadians assess the viability of the federal government’s emission-reduction timelines, they should understand the practical reality of electricity generation in Canada,” Green said.

Decarbonizing Canada’s Electricity Generation: Rapid Decarbonization of Electricity and Future Supply Constraints

  • Canada’s Clean Electricity Regulations (Canada, 2024a) require all provinces to fully “decarbonize” their electricity generation as part of the federal government’s broader “Net-Zero 2050” greenhouse gas emissions mitigation plan.
  • Canada’s electricity demands are expected to grow in line with the country’s population, economic growth, and the transition to electrified transportation. Projections from the Canada Energy Regulator, Canadian Climate Institute, and Department of Finance estimate the need for an additional 684 TWh of generation capacity by 2050.
  • If Canada were to meet this demand solely with wind power, it would require the construction of approximately 575 wind-power installations, each the size of Quebec’s Seigneurie de Beaupré Wind Farm, over 25 years. However, with a construction timeline of two years per project, this would equate to 1,150 construction years. Meeting future Canadian electricity demand using only wind power would also require over one million hectares of land—an area nearly 14.5 times the size of the municipality of Calgary.
  • If Canada were to rely entirely on hydropower, it would need to construct 134 facilities similar in size to the Site C power station in British Columbia. Meeting all future demand with hydropower would occupy approximately 54,988 hectares of land—roughly 1.5 times the area of the municipality of Montreal.
  • If Canada were to meet its future demand exclusively with nuclear power, it would need to construct 16 additional nuclear plants, each equivalent to Ontario’s Bruce Nuclear Generating Station.
  • Meeting the predicted future electricity demand with these low/no CO2 sources will be a daunting challenge and is likely impossible within the 2050 timeframe.

Read the full study

Kenneth P. Green

Senior Fellow, Fraser Institute

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Automotive

Politicians should be honest about environmental pros and cons of electric vehicles

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From the Fraser Institute

By Annika Segelhorst and Elmira Aliakbari

According to Steven Guilbeault, former environment minister under Justin Trudeau and former member of Prime Minister Carney’s cabinet, “Switching to an electric vehicle is one of the most impactful things Canadians can do to help fight climate change.”

And the Carney government has only paused Trudeau’s electric vehicle (EV) sales mandate to conduct a “review” of the policy, despite industry pressure to scrap the policy altogether.

So clearly, according to policymakers in Ottawa, EVs are essentially “zero emission” and thus good for environment.

But is that true?

Clearly, EVs have some environmental advantages over traditional gasoline-powered vehicles. Unlike cars with engines that directly burn fossil fuels, EVs do not produce tailpipe emissions of pollutants such as nitrogen dioxide and carbon monoxide, and do not release greenhouse gases (GHGs) such as carbon dioxide. These benefits are real. But when you consider the entire lifecycle of an EV, the picture becomes much more complicated.

Unlike traditional gasoline-powered vehicles, battery-powered EVs and plug-in hybrids generate most of their GHG emissions before the vehicles roll off the assembly line. Compared with conventional gas-powered cars, EVs typically require more fossil fuel energy to manufacture, largely because to produce EVs batteries, producers require a variety of mined materials including cobalt, graphite, lithium, manganese and nickel, which all take lots of energy to extract and process. Once these raw materials are mined, processed and transported across often vast distances to manufacturing sites, they must be assembled into battery packs. Consequently, the manufacturing process of an EV—from the initial mining of materials to final assembly—produces twice the quantity of GHGs (on average) as the manufacturing process for a comparable gas-powered car.

Once an EV is on the road, its carbon footprint depends on how the electricity used to charge its battery is generated. According to a report from the Canada Energy Regulator (the federal agency responsible for overseeing oil, gas and electric utilities), in British Columbia, Manitoba, Quebec and Ontario, electricity is largely produced from low- or even zero-carbon sources such as hydro, so EVs in these provinces have a low level of “indirect” emissions.

However, in other provinces—particularly Alberta, Saskatchewan and Nova Scotia—electricity generation is more heavily reliant on fossil fuels such as coal and natural gas, so EVs produce much higher indirect emissions. And according to research from the University of Toronto, in coal-dependent U.S. states such as West Virginia, an EV can emit about 6 per cent more GHG emissions over its entire lifetime—from initial mining, manufacturing and charging to eventual disposal—than a gas-powered vehicle of the same size. This means that in regions with especially coal-dependent energy grids, EVs could impose more climate costs than benefits. Put simply, for an EV to help meaningfully reduce emissions while on the road, its electricity must come from low-carbon electricity sources—something that does not happen in certain areas of Canada and the United States.

Finally, even after an EV is off the road, it continues to produce emissions, mainly because of the battery. EV batteries contain components that are energy-intensive to extract but also notoriously challenging to recycle. While EV battery recycling technologies are still emerging, approximately 5 per cent of lithium-ion batteries, which are commonly used in EVs, are actually recycled worldwide. This means that most new EVs feature batteries with no recycled components—further weakening the environmental benefit of EVs.

So what’s the final analysis? The technology continues to evolve and therefore the calculations will continue to change. But right now, while electric vehicles clearly help reduce tailpipe emissions, they’re not necessarily “zero emission” vehicles. And after you consider the full lifecycle—manufacturing, charging, scrapping—a more accurate picture of their environmental impact comes into view.

 

Annika Segelhorst

Junior Economist

Elmira Aliakbari

Director, Natural Resource Studies, Fraser Institute

 

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Energy

Canada’s future prosperity runs through the northwest coast

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From Resource Works

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A strategic gateway to the world

Tucked into the north coast of B.C. is the deepest natural harbour in North America and the port with the shortest travel times to Asia.

With growing capacity for exports including agricultural products, lumber, plastic pellets, propane and butane, it’s no wonder the Port of Prince Rupert often comes up as a potential new global gateway for oil from Alberta, said CEO Shaun Stevenson.

Thanks to its location and natural advantages, the port can efficiently move a wide range of commodities, he said.

That could include oil, if not for the federal tanker ban in northern B.C.’s coastal waters.

The Port of Prince Rupert on the north coast of British Columbia. Photo courtesy Prince Rupert Port Authority

“Notwithstanding the moratorium that was put in place, when you look at the attributes of the Port of Prince Rupert, there’s arguably no safer place in Canada to do it,” Stevenson said.

“I think that speaks to the need to build trust and confidence that it can be done safely, with protection of environmental risks. You can’t talk about the economic opportunity before you address safety and environmental protection.”

Safe transit at Prince Rupert

About a 16-hour drive from Vancouver, the Port of Prince Rupert’s terminals are one to two sailing days closer to Asia than other West Coast ports.

The entrance to the inner harbour is wider than the length of three Canadian football fields.

The water is 35 metres deep — about the height of a 10-storey building — compared to 22 metres at Los Angeles and 16 metres at Seattle.

Shipmasters spend two hours navigating into the port with local pilot guides, compared to four hours at Vancouver and eight at Seattle.

“We’ve got wide open, very simple shipping lanes. It’s not moving through complex navigational channels into the site,” Stevenson said.

A port on the rise

The Prince Rupert Port Authority says it has entered a new era of expansion, strengthening Canada’s economic security.

The port estimates it anchors about $60 billion of Canada’s annual global trade today. Even without adding oil exports, Stevenson said that figure could grow to $100 billion.

“We need better access to the huge and growing Asian market,” said Heather Exner-Pirot, director of energy, natural resources and environment at the Macdonald-Laurier Institute.

“Prince Rupert seems purpose-built for that.”

Roughly $3 billion in new infrastructure is already taking shape, including the $750 million rail-to-container CANXPORT transloading complex for bulk commodities like specialty agricultural products, lumber and plastic pellets.

The Ridley Island Propane Export Terminal, Canada’s first marine propane export terminal, started shipping in May 2019. Photo courtesy AltaGas Ltd.

Canadian propane goes global

A centrepiece of new development is the $1.35-billion Ridley Energy Export Facility — the port’s third propane terminal since 2019.

“Prince Rupert is already emerging as a globally significant gateway for propane exports to Asia,” Exner-Pirot said.

Thanks to shipments from Prince Rupert, Canadian propane – primarily from Alberta – has gone global, no longer confined to U.S. markets.

More than 45 per cent of Canada’s propane exports now reach destinations outside the United States, according to the Canada Energy Regulator.

“Twenty-five per cent of Japan’s propane imports come through Prince Rupert, and just shy of 15 per cent of Korea’s imports. It’s created a lift on every barrel produced in Western Canada,” Stevenson said.

“When we look at natural gas liquids, propane and butane, we think there’s an opportunity for Canada via Prince Rupert becoming the trading benchmark for the Asia-Pacific region.”

That would give Canadian production an enduring competitive advantage when serving key markets in Asia, he said.

Deep connection to Alberta

The Port of Prince Rupert has been a key export hub for Alberta commodities for more than four decades.

Through the Alberta Heritage Savings Trust Fund, the province invested $134 million — roughly half the total cost — to build the Prince Rupert Grain Terminal, which opened in 1985.

The largest grain terminal on the West Coast, it primarily handles wheat, barley, and canola from the prairies.

The Prince Rupert Grain Terminal. Photo courtesy Prince Rupert Port Authority

Today, the connection to Alberta remains strong.

In 2022, $3.8 billion worth of Alberta exports — mainly propane, agricultural products and wood pulp — were shipped through the Port of Prince Rupert, according to the province’s Ministry of Transportation and Economic Corridors.

In 2024, Alberta awarded a $250,000 grant to the Prince Rupert Port Authority to lead discussions on expanding transportation links with the province’s Industrial Heartland region near Edmonton.

Handling some of the world’s biggest vessels

The Port of Prince Rupert could safely handle oil tankers, including Very Large Crude Carriers (VLCCs), Stevenson said.

“We would have the capacity both in water depth and access and egress to the port that could handle Aframax, Suezmax and even VLCCs,” he said.

“We don’t have terminal capacity to handle oil at this point, but there’s certainly terminal capacities within the port complex that could be either expanded or diversified in their capability.”

Market access lessons from TMX

Like propane, Canada’s oil exports have gained traction in Asia, thanks to the expanded Trans Mountain pipeline and the Westridge Marine Terminal near Vancouver — about 1,600 kilometres south of Prince Rupert, where there is no oil tanker ban.

The Trans Mountain expansion project included the largest expansion of ocean oil spill response in Canadian history, doubling capacity of the West Coast Marine Response Corporation.

The K.J. Gardner is the largest-ever spill response vessel in Canada. Photo courtesy Western Canada Marine Response Corporation

The Canada Energy Regulator (CER) reports that Canadian oil exports to Asia more than tripled after the expanded pipeline and terminal went into service in May 2024.

As a result, the price for Canadian oil has gone up.

The gap between Western Canadian Select (WCS) and West Texas Intermediate (WTI) has narrowed to about $12 per barrel this year, compared to $19 per barrel in 2023, according to GLJ Petroleum Consultants.

Each additional dollar earned per barrel adds about $280 million in annual government royalties and tax revenues, according to economist Peter Tertzakian.

The road ahead

There are likely several potential sites for a new West Coast oil terminal, Stevenson said.

“A pipeline is going to find its way to tidewater based upon the safest and most efficient route,” he said.

“The terminal part is relatively straightforward, whether it’s in Prince Rupert or somewhere else.”

Under Canada’s Marine Act, the Port of Prince Rupert’s mandate is to enable trade, Stevenson said.

“If Canada’s trade objectives include moving oil off the West Coast, we’re here to enable it, presuming that the project has a mandate,” he said.

“If we see the basis of a project like this, we would ensure that it’s done to the best possible standard.”

This article originally appeared in Canadian Energy Centre

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