Alberta power grid operator prepares to accept green energy bids


Alberta renewable electricity

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Alberta Renewable Energy Auction invites bids as AESO adds wind and solar capacity, targeting 5,000 MW by 2030, with 400 MW online by 2019 to replace coal, stabilize prices, and cut greenhouse gas emissions.

 

Key Points

A program to procure wind and solar for Alberta’s grid, replacing coal and scaling to 5,000 MW by 2030.

✅ 400 MW online by 2019 to backfill retiring coal units

✅ Timed additions to avoid price distortion on the grid

✅ Targets 5,000 MW of renewables by 2030

 

The operator of Alberta's electricity grid will start taking bids at the end of this month from companies interested in generating and selling renewable energy in the province.

The provincial government wants to add 5,000 megawatts of renewable electricity, supporting new jobs across the province by 2030.

The renewables, including wind power and solar power, will replace coal-fired power plants, which will be shutting down as part of the province's strategy to lower greenhouse gas emissions.

Energy Minister Marg McCuaig-Boyd announced Friday the first competition will be for 400 megawatts, which is enough to power about 170,000 houses.

"We're known as the energy hub of Canada, and make no mistake, green energy is a big part of that," she said.

Mike Deising with the Alberta Electric System Operator (AESO) says the new green power has to be developed gradually.

The new green power must be developed gradually, says Alberta Electric System Operator’s Mike Deising. (CBC)

"We don't want to put on too much generation because what we're going to see is, if we have too much generation all at once, we're going to drive down the market price and it's going to distort the electricity market that we have," he said.

Deising says from their perspective as the grid operator, they want to make sure the addition of new capacity is timed with when they are losing capacity.

AESO wants the 400 megawatts of new green power including solar generation to go onto the grid by the end of 2019 to replace electricity from coal-fired plants that will start shutting down by late 2020.

 

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Turning seawater into electricity: NB Power's untested idea for Belledune

NB Power Hydrogen-from-Seawater Project explores clean energy R&D with Joi Scientific, targeting zero-emission electricity for Belledune using Bay of Chaleur seawater, hydrogen production, and possible carbon credits within Canada's climate plan.

 

Key Points

An NB Power R&D initiative with Joi Scientific to produce hydrogen from seawater for zero-emission power at Belledune.

✅ Targets coal phase-out by 2030 at Belledune

✅ Evaluates costs, efficiency, and carbon credits

✅ Seawater-to-hydrogen tech via proprietary R&D

 

NB Power is betting $7 million on a promising but untested new way to generate electricity without emitting greenhouse gases: turning seawater from the Bay of Chaleur into energy, a marine approach similar to Nova Scotia's Bay of Fundy tidal tests in recent years.

CEO Gaëtan Thomas talked last month about converting the Belledune generating station to hydrogen power by 2030, after coal is phased out, though some argue planning should be led by an independent planning body to ensure long-term oversight.

But the public utility is tight-lipped so far o

"Unfortunately, it is too early in the process to be discussing details of this research and development project," said NB Power spokesperson Marie-Andrée Bolduc.

Joi Scientific's vice-president of marketing, Vicky Harris, said in an email statement that the company is "involved in multiple research projects, in many different sectors, but, as I am sure you would understand, we are not sharing details of our proprietary research and development work at this time."

On its website, the company calls hydrogen "the universe's most abundant element and the world's cleanest source of energy."

In its collaboration with Florida-based Joi Scientific, a start-up headquartered at the Kennedy Space Centre.

 

What to do with Belledune?

The federal government has set 2030 as the deadline for provinces to phase out coal-powered electricity under its national climate plan, and NB Power has pursued deals to import Quebec power as part of its transition.

NB Power says other options for Belledune include burning natural gas or biomass, and small nuclear reactors have been discussed provincially as well. But those options would still generate some carbon dioxide emissions.

Green Party Leader David Coon said last month that it was "news to me" that hydrogen power could be generated affordably enough to use in a power plant.

University of New Brunswick chemical engineering professor Willy Cook says turning hydrogen into energy is simple, but it's not necessarily cost-effective because the process itself requires a lot of electricity, while Nova Scotia is pursuing more wind and solar to meet its goals.

"You can't get something for nothing," he said. "Using electricity to produce hydrogen to go back to the process to produce electricity--that in itself probably isn't economically viable."

But he said he's not familiar with Joi Scientific's technology and it's possible the company has come up with "a more efficient process."

He also said if NB Power earned carbon credits for reducing emissions, hydrogen technology might become competitive with other energy sources.

"I have faith in the NB Power engineers to come through and do that assessment properly," he said.

 

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Leningrad II-1 reactor assembled

Leningrad II VVER-1200 Reactor Vessel assembly completed in Sosnovy Bor, with Rosenergoatom preparing for first criticality, hydraulic tests, and physical startup checks of neutron physics, control systems, and passive heat removal safety.

 

Key Points

Core vessel for Leningrad II Unit 1, completed, sealed, and prepared for hydraulic tests ahead of first criticality.

✅ Hydraulic tests to verify circuit integrity and equipment density

✅ Physical tests to refine neutron-physics of initial fuel loading

✅ Passive heat removal system testing completed; fuel loading began

 

Rosenergoatom has completed the assembly of the reactor vessel for unit 1 of the Leningrad Phase II nuclear power plant, which is in Sosnovy Bor in western Russia, even as it develops power lines to reactivate the Zaporizhzhia plant in a separate project. The nuclear power plant operator subsidiary of state nuclear corporation Rosatom said yesterday the VVER-1200 is now being prepared for first criticality this month.

Alexander Belyaev, chief engineer of Leningrad NPP, said in the company statement, noting industry-wide nuclear project milestones this year: "The reactor is fully assembled, sealed and ready for hydraulic tests of the first and second circuits, during which we will once again check the equipment of the reactor installation, and finally confirm its density. After that, it will be possible to start the reactor at the minimum controlled power level."

Belyaev said this preparatory phase "envisages a whole series of physical tests that will make it possible to refine the neutron-physical characteristics of the first fuel loading of the nuclear reactor, as well as prove the reliability of the entire control and safety system (in line with the US NRC's final safety evaluation for the NuScale SMR) of the reactor installation".

The existing Leningrad plant site has four operating RMBK-1000 units, while Leningrad II will have four VVER-1200 units, as projects like the Georgia nuclear expansion continue to take shape globally. Testing of the passive heat removal system of unit 1 of Leningrad II was completed in late August and fuel loading began in December, while a new U.S. reactor startup underscored the broader resurgence.

 

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OPG, Ontario First Nation Hdroelectric project comes online

Peter Sutherland Sr. Generating Station delivers 28 MW hydroelectric, renewable energy in Ontario via an Indigenous partnership, on-budget and ahead of schedule, supplying the provincial grid near the Abitibi River at New Post Creek.

 

Key Points

An OPG-Indigenous hydropower plant generating 28 MW in northern Ontario, feeding the provincial grid from New Post Creek.

✅ 28 MW hydropower on Abitibi River at New Post Creek.

✅ OPG and Taykwa Tagamou Nation partnership, on-budget and ahead of schedule.

✅ $300 million project delivers jobs, skills, and long-term revenue to community.

 

Ontario Power Generation, which has also partnered on new nuclear technology with TVA, says a new hydroelectric plant in the northern part of the province is now online, and the First Nation it has partnered with stands to benefit.

In a written release issued Friday, OPG announced the completion of the Peter Sutherland Sr. Generating Station on New Post Creek. The project is a partnership between the provincial power company and Coral Rapids Power, an Indigenous-owned company of the Taykwa Tagamou Nation, near Cochrane.

"This project has gone well due to the relationship we've built on a foundation of respect and trust," Coral Rapids President Wayne Ross was quoted as saying in the OPG release.

"There have been many benefits for our community including good paying jobs, transferable skills and a long term revenue stream."

The generating station, which is located about 80 kilometres north of Smooth Rock Falls, near where New Post Creek meets the Abitibi River, is named after a respected elder of the Taykwa Tagamou Nation. It generates 28 megawatts of power for the provincial grid, according to OPG, complementing modernization at the Niagara Falls powerhouse upgrade as well.

The project was finished ahead of schedule and on-budget, OPG said, as other Ontario initiatives like a pumped storage project advance.

According to the announcement and recent financial results, the project cost around $300 million.

 

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Asbestos removal underway at Summerside power plant as upgrades proceed

Summerside Plant Asbestos Removal enables a heating system upgrade to electric furnaces with heat storage bricks, maximizing wind energy use and lowering peak loads; contractor tenders closed, work starts May 1.

 

Key Points

A city effort to remove asbestos so an electric furnace heating upgrade with wind energy heat storage can proceed.

✅ Four electric furnaces with heat storage bricks

✅ Maximizes wind energy, lowers peak load and diesel use

✅ Work starts May 1; about three weeks; no service disruptions

 

The City of Summerside is in the process of removing hazardous asbestos at the Summerside Electric Power Plant building in order to clear the way for replacement of the heating system.

The city is hiring a contractor to do the work and tenders for the project closed Thursday afternoon. 

The heating system is being replaced with four new electric furnaces, which are Heat for Less Now products. The products help maximize wind energy by using bricks to store heat created from wind energy for use during peak demand times, similar to using more electricity for heat initiatives advocated in the N.W.T.

"This program's working so well we wanted to continue with that in the power plant," said Rob Steele, electrical operations supervisor with the City of Summerside. 

Time to replace system

The new system will heat the whole building, as other utilities evaluate options like geothermal power plants to meet targets. 

"Having more of these units with heat storage already placed in them can lower the peak load of Summerside which therefore will help keep our diesel engines from running, aligning with power grid operation changes being considered in Nova Scotia," said Steele. 

Steele said the existing system is beyond life its expectancy and maintenance is getting costly so it's time to replace it, amid calls to reduce biomass electricity in generation portfolios. 

"And unfortunately in 1960 and 1963 asbestos was used on the elbow sections of the piping insulation and of course that must be removed for us to proceed," said Steele.  

Steele said the city doesn't know how much the project will cost yet as the tenders just closed Thursday afternoon. He said the city plans to announce the cost along with the successful bidder who will do the asbestos removal April 6. 

The city said there won't be any interruption of power or services during the upgrades, even as major facilities like the Bruce nuclear reactor undergo refurbishment elsewhere. Work is expected to start May 1 and take about three weeks to finish. 

 

 

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SaskPower exploring geothermal power plant in efforts to reach 2030 targets

SaskPower Geothermal Power aims to deliver renewable baseload energy in Saskatchewan, complementing wind and solar. With DEEP's 5 MW pilot near Estevan tapping aquifers, it supports grid reliability alongside LED streetlights and flare gas.

 

Key Points

SaskPower Geothermal Power is a baseload plan using DEEP's aquifers to deliver zero-emission power in Saskatchewan.

✅ 5 MW DEEP pilot near Estevan targets hot sedimentary aquifers

✅ Provides 24/7 renewable baseload, complementing wind and solar

✅ Higher upfront costs and timelines challenge rapid deployment

 

It would be a first for Saskatchewan and Canada.

SaskPower‘s efforts to double renewable electricity by 2030 could potentially include geothermal power stations.

 Regina and Saskatoon areas were selected to provide a range of settings to test the new LED streetlights SaskPower is piloting. SaskPower pilot project converting streetlights to LED

 The second project in SaskPower’s flare gas power generation program is contributing 750 kilowatts of electricity to Saskatchewan’s power grid. SaskPower turning waste flare gas into electricity

 SaskPower reporting power outages in some regions as high winds sweep across Saskatchewan. SaskPower launches homeowner energy efficiency assessment tool

“If projections hold true, we’re going to need to find over 2,000 megawatts of renewable power,” Kirsten Marcia, president and CEO of Deep Earth Energy Production (DEEP), said.

“Geothermal is not the only solution here, but we hope to have a very significant place at the table.”

With a power purchase agreement with SaskPower signed in May, and ongoing initiatives such as purchasing power from Flying Dust First Nation to diversify supply, DEEP hopes to build a five megawatt, zero emission power plant near Estevan, where subterranean water is the warmest in Saskatchewan.

Typically, geothermal operations use the water for heat, as in Manitoba's geothermal homes initiative where thousands of residences would be converted; however DEEP’s plant will pass water through an exchanger to create steam, which will drive a turbine and generate energy.

“You think of our potash resources, our oil and gas resources, and at the very bottom of those sedimentary units is thick, 150 metre deep aquifer,” Marcia said. “We could drill it here in Saskatoon, but it’s too shallow to be hot enough, and the same aquifer continues to deepen as we go towards the United States, it’s about 3.4 kilometers in depth, so that’s what gives it the heat.”

But is investment in geothermal power generation worth it for the province? Experts say they’re cautiously optimistic, but initial costs may drive away potential interest, which is why SaskPower is also planning to buy more electricity from Manitoba Hydro as a complementary measure.

“The payback period is going to be much longer,” said Grant Ferguson, an associate professor of geological engineering at the University of Saskatchewan. “So we’re going to run into problems with risk and financing and these sorts of things that might not be in play with something like a wind or solar project.”

Time is also a factor.

Each unit is expected to generate between five and 10 megawatts of power; multiple unites would be required to generate the amount of power needed in Saskatchewan. Nearly a decade of work has gone into DEEP’s first station.

“If we’re looking towards 2030 and we’re taking 10 years for one, then it’s going to take a while to pull all this off,” Ferguson said.

“Maybe if it's on the space of two or three years then we can build these things up.”

The benefit geothermal electricity has over solar and wind generated power? Electricity is consistently being generated, even during record power demand events in Saskatchewan.

“Ideally, this becomes a baseload power supply,” Marcia said, “so unlike wind and solar, which provide an intermittent power supply, geothermal is the only renewable that provides power 24 hours a day, seven days a week.”

DEEP’s first plant is expected to be built in two years. It’s expected the aquifer will be able to support a capacity of roughly 200 megawatts.

 

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Labrador power flowing through Quebec

Labrador Hydro Open Access could enable non-discriminatory electricity transmission through Quebec, unlocking wheeling rights for Muskrat Falls and Gull Island, boosting green energy exports to Ontario and U.S. markets under interprovincial trade rules.

 

Key Points

Applying open, non-discriminatory transmission rules so Labrador power can wheel through Quebec to U.S. markets.

✅ Aligns with U.S. open access and non-discrimination standards

✅ Enables wheeling rights for Muskrat Falls and Gull Island

✅ Expands export routes to Ontario and Northeast U.S. grids

 

There's growing optimism that hydroelectric power from Labrador may soon be flowing through Quebec and into other markets in Canada and the United States as demand grows.

That was one of the revelations in a new interprovincial free trade agreement that was unveiled Friday.

If such an agreement on electricity transmission were reached, it would open the door to huge markets for Labrador hydroelectric power, including excess power from the controversial Muskrat Falls Project, and possibly end a bitter stalemate that has long soured relations between the two neighbouring provinces. 

"The best-case scenario is we move electricity through Quebec and into markets. It could be Ontario among others. It could be the U.S. It could be anywhere," Ball said Friday.

 

Rules based on principle of open access

The new trade deal sets out specific rules around the transmission of electricity across provincial borders, and are based on open access and non-discrimination rules in the United States.

The Muskrat Falls transmission network will bypass Quebec in moving power to the North American market, but at a considerable cost, though a ratepayer agreement aims to shield consumers. (Jacques Boissinot/Canadian Press)

Those rules allow Quebec to freely export electricity from the Upper Churchill and other power sources into the U.S., and Dwight Ball says this province wants the same rules to apply to power from the Muskrat Falls project, and potential projects such as Gull Island.

As part of the trade talks, Ottawa and other provinces asked that Newfoundland and Labrador and Quebec engage in talks about electricity transmission, including what are known as wheeling rights, and related rate mitigation talks are ongoing. Ball said that will happen.

"I'm not here to pre-judge what the outcome will be. All I'm saying is if there's an opportunity to bring benefit to our province we want to be at that table," said Ball.

"Right now we're seeing support from other provinces. We're seeing support from the federal government. We believe in using the resources that we have to support a national policy on green energy.  And if that leads us into a development in Labrador, so be it. That would be a good thing for our economy. But we have to get at that table first."

 

Deal comes into effect in July

The new, open access rules will come into force if either of the two provinces sign off on them within 36 months of the trade deal coming into effect on July 1.

It's nearly a certainty that the Ball government will endorse such a framework, since the province has long argued for permission to use excess transmission line capacity in Quebec to send Labrador power to other markets.

"You could argue that the U.S. rules would apply right now, but we all know that's not happening in the way we'd like to see it happen," said Ball. "So we're going to get at the table and see if we can get that access more streamlined." 

As part of the trade deal, both Newfoundland and Labrador and Quebec will maintain their monopolies over power production and the right to sell it, which means Labrador power can only be transmitted through Quebec.

 

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