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Canadian Energy Centre

First Nations in Manitoba pushing for LNG exports from Hudson’s Bay

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From the Canadian Energy Centre

By Will Gibson

NeeStaNan project would use port location selected by Canadian government more than 100 years ago

Building a port on Hudson’s Bay to ship natural resources harvested across Western Canada to the world has been a long-held dream of Canadian politicians, starting with Sir Wilfred Laurier.

Since 1931, a small deepwater port has operated at Churchill, Manitoba, primarily shipping grain but more recently expanding handling of critical minerals and fertilizers.

A group of 11 First Nations in Manitoba plans to build an additional industrial terminal nearby at Port Nelson to ship liquefied natural gas (LNG) to Europe and potash to Brazil.

Courtesy NeeStaNan

Robyn Lore, a director with project backer NeeStaNan, which is Cree for “all of us,” said it makes more sense to ship Canadian LNG to Europe from an Arctic port than it does to send Canadian natural gas all the way to the U.S. Gulf Coast to be exported as LNG to the same place – which is happening today.

“There is absolutely a business case for sending our LNG directly to European markets rather than sending our natural gas down to the Gulf Coast and having them liquefy it and ship it over,” Lore said. “It’s in Canada’s interest to do this.”

Over 100 years ago, the Port Nelson location at the south end of Hudson’s Bay on the Nelson River was the first to be considered for a Canadian Arctic port.

In 1912, a Port Nelson project was selected to proceed rather than a port at Churchill, about 280 kilometres north.

The Port Nelson site was earmarked by federal government engineers as the most cost-effective location for a terminal to ship Canadian resources overseas.

Construction started but was marred by building challenges due to violent winter storms that beached supply ships and badly damaged the dredge used to deepen the waters around the port.

By 1918, the project was abandoned.

In the 1920s, Prime Minister William Lyon MacKenzie King chose Churchill as the new location for a port on Hudson’s Bay, where it was built and continues to operate today between late July and early November when it is not iced in.

Lore sees using modern technology at Port Nelson including dredging or extending a floating wharf to overcome the challenges that stopped the project from proceeding more than a century ago.

Port Nelson, Manitoba in 1918. Photo courtesy NeeStaNan

He said natural gas could travel to the terminal through a 1,000-kilometre spur line off TC Energy’s Canadian Mainline by using Manitoba Hydro’s existing right of way.

A second option proposes shipping natural gas through Pembina Pipeline’s Alliance system to Regina, where it could be liquefied and shipped by rail to Port Nelson.

The original rail bed to Port Nelson still exists, and about 150 kilometers of track would have to be laid to reach the proposed site, Lore said.

“Our vision is for a rail line that can handle 150-car trains with loads of 120 tonnes per car running at 80 kilometers per hour. That’s doable on the line from Amery to Port Nelson. It makes the economics work for shippers,” said Lore.

Port Nelson could be used around the year because saltwater ice is easier to break through using modern icebreakers than freshwater ice that impacts Churchill between November and May.

Lore, however, is quick to quell the notion NeeStaNan is competing against the existing port.

“We want our project to proceed on its merits and collaborate with other ports for greater efficiency,” he said.

“It makes sense for Manitoba, and it makes sense for Canada, even more than it did for Laurier more than 100 years ago.”

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Alberta

Canada’s heavy oil finds new fans as global demand rises

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From the Canadian Energy Centre

By Will Gibson

“The refining industry wants heavy oil. We are actually in a shortage of heavy oil globally right now, and you can see that in the prices”

Once priced at a steep discount to its lighter, sweeter counterparts, Canadian oil has earned growing admiration—and market share—among new customers in Asia.

Canada’s oil exports are primarily “heavy” oil from the Alberta oil sands, compared to oil from more conventional “light” plays like the Permian Basin in the U.S.

One way to think of it is that heavy oil is thick and does not flow easily, while light oil is thin and flows freely, like fudge compared to apple juice.

“The refining industry wants heavy oil. We are actually in a shortage of heavy oil globally right now, and you can see that in the prices,” said Susan Bell, senior vice-president of downstream research with Rystad Energy.

A narrowing price gap

Alberta’s heavy oil producers generally receive a lower price than light oil producers, partly a result of different crude quality but mainly because of the cost of transportation, according to S&P Global.

The “differential” between Western Canadian Select (WCS) and West Texas Intermediate (WTI) blew out to nearly US$50 per barrel in 2018 because of pipeline bottlenecks, forcing Alberta to step in and cut production.

So far this year, the differential has narrowed to as little as US$10 per barrel, averaging around US$12, according to GLJ Petroleum Consultants.

“The differential between WCS and WTI is the narrowest I’ve seen in three decades working in the industry,” Bell said.

Trans Mountain Expansion opens the door to Asia

Oil tanker docked at the Westridge Marine Terminal in Burnaby, B.C. Photo courtesy Trans Mountain Corporation

The price boost is thanks to the Trans Mountain expansion, which opened a new gateway to Asia in May 2024 by nearly tripling the pipeline’s capacity.

This helps fill the supply void left by other major regions that export heavy oil – Venezuela and Mexico – where production is declining or unsteady.

Canadian oil exports outside the United States reached a record 525,000 barrels per day in July 2025, the latest month of data available from the Canada Energy Regulator.

China leads Asian buyers since the expansion went into service, along with Japan, Brunei and Singapore, Bloomberg reports

Asian refineries see opportunity in heavy oil

“What we are seeing now is a lot of refineries in the Asian market have been exposed long enough to WCS and now are comfortable with taking on regular shipments,” Bell said.

Kevin Birn, chief analyst for Canadian oil markets at S&P Global, said rising demand for heavier crude in Asia comes from refineries expanding capacity to process it and capture more value from lower-cost feedstocks.

“They’ve invested in capital improvements on the front end to convert heavier oils into more valuable refined products,” said Birn, who also heads S&P’s Center of Emissions Excellence.

Refiners in the U.S. Gulf Coast and Midwest made similar investments over the past 40 years to capitalize on supply from Latin America and the oil sands, he said.

While oil sands output has grown, supplies from Latin America have declined.

Mexico’s state oil company, Pemex, reports it produced roughly 1.6 million barrels per day in the second quarter of 2025, a steep drop from 2.3 million in 2015 and 2.6 million in 2010.

Meanwhile, Venezuela’s oil production, which was nearly 2.9 million barrels per day in 2010, was just 965,000 barrels per day this September, according to OPEC.

The case for more Canadian pipelines

Worker at an oil sands SAGD processing facility in northern Alberta. Photo courtesy Strathcona Resources

“The growth in heavy demand, and decline of other sources of heavy supply has contributed to a tighter market for heavy oil and narrower spreads,” Birn said.

Even the International Energy Agency, known for its bearish projections of future oil demand, sees rising global use of extra-heavy oil through 2050.

The chief impediments to Canada building new pipelines to meet the demand are political rather than market-based, said both Bell and Birn.

“There is absolutely a business case for a second pipeline to tidewater,” Bell said.

“The challenge is other hurdles limiting the growth in the industry, including legislation such as the tanker ban or the oil and gas emissions cap.”

A strategic choice for Canada

Because Alberta’s oil sands will continue a steady, reliable and low-cost supply of heavy oil into the future, Birn said policymakers and Canadians have options.

“Canada needs to ask itself whether to continue to expand pipeline capacity south to the United States or to access global markets itself, which would bring more competition for its products.”

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Alberta

Nobel Prize nods to Alberta innovation in carbon capture

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From the Canadian Energy Centre

By Grady Semmens

‘We are excited to bring this made-in-Canada innovation to the world’

To the naked eye, it looks about as exciting as baking soda or table salt.

But to the scientists in the University of Calgary chemistry lab who have spent more than a decade working on it, this white powder is nothing short of amazing.

That’s because the material they invented is garnering global attention as a new solution to help address climate change.

Known as Calgary Framework-20 (CALF-20 for short), it has “an exceptional capacity to absorb carbon dioxide” and was recognized in connection with the 2025 Nobel Prize in Chemistry.

A jar of CALF-20, a metal-organic framework (MOF) used in carbon capture. Photo courtesy UCalgary

“It’s basically a molecular sponge that can adsorb CO2 very efficiently,” said Dr. George Shimizu, a UCalgary chemistry professor who leads the research group that first developed CALF-20 in 2013.

The team has been refining its effectiveness ever since.

“CALF-20 is a very exciting compound to work on because it has been a great example of translating basic science into something that works to solve a problem in the real world,” Shimizu said.

Advancing CCS

Carbon capture and storage (CCS) is not a new science in Alberta. Since 2015, operating projects in the province have removed 15 million tonnes of CO2 that would have otherwise been emitted to the atmosphere.

Alberta has nearly 60 proposed facilities for new CCS networks including the Pathways oil sands project, according to the Regina-based International CCS Knowledge Centre.

This year’s Nobel Prize in Chemistry went to three of Shimizu’s colleagues in Japan, Australia and the United States, for developing the earliest versions of materials like CALF-20 between 1989 and 2003.

Custom-built molecules

CALF-20 is in a class called metal-organic frameworks (MOFs) — custom-built molecules that are particularly good at capturing and storing specific substances.

MOFs are leading to new technologies for harvesting water from air in the desert, storing toxic gases, and capturing CO2 from industrial exhaust or directly from the atmosphere.

CALF-20 is one of the few MOF compounds that has advanced to commercial use.

“There has been so much discussion about all the possible uses of MOFs, but there has been a lot of hype versus reality, and CALF-20 is the first to be proven stable and effective enough to be used at an industrial scale,” Shimizu said.

It has been licensed to companies capturing carbon across a range of industries, with the raw material now being produced by the tonne by chemical giant BASF.

CO2 pipeline at the Quest CCS project near Edmonton, Alta. Photo courtesy Shell Canada

Carbon capture filter gigafactory

Svante Inc. has demonstrated its CALF-20-based carbon capture system at a cement plant in British Columbia.

The company recently opened a “gigafactory” in Burnaby equipped to manufacture enough carbon capture and removal filters for up to 10 million tonnes of CO2 annually, equivalent to the emissions of more than 2.3 million cars.

The filters are designed to trap CO2 directly from industrial emissions and the atmosphere, the company says.

Svante chief operating officer Richard Laliberté called the Nobel committee’s recognition “a profound validation” for the entire field of carbon capture and removal.

CALF-20 expansion

Meanwhile, one of Shimizu’s former PhD students helped launch a spinoff company, Existent Sorbents, to further expand the applications of CALF-20.

Existent is working with oil sands producers, a major steel factory and a U.S.-based firm capturing emissions from other point sources, said CEO Adrien Côté.

“The first users of CALF-20 are leaders who took the risk of introducing new technology to industries that are shrewd about their top and bottom lines,” Côté said.

“It has been a long journey, but we are at the point where CALF-20 has proven to be resilient and able to survive in harsh real-world conditions, and we are excited to bring this made-in-Canada innovation to the world.”

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