Peer-to-peer energy breakthrough could allow solar and wind energy sources to be shared

IEA Grid Expansion Warning highlights stalled investment in power lines and transmission infrastructure, risking renewable energy rollout for solar, wind, EVs, and heat pumps, and jeopardizing climate targets under the Paris Agreement amid connection bottlenecks.

Key Points

IEA alert urging grid investment to expand transmission, connect renewables, and keep 1.5 C climate goals on track.

✅ 80 million km of lines needed by 2040, per IEA

✅ Investment must double to $600B annually by 2030

✅ Permitting delays stall major cross-border projects

Stalled spending on electrical grids worldwide is slowing the rollout of renewable energy and could put efforts to limit climate change at risk if millions of miles of power lines are not added or refurbished in the next few years, the International Energy Agency said.

The Paris-based organization said in the report Tuesday that the capacity to connect to and transmit electricity is not keeping pace with the rapid growth of clean energy technologies such as solar and wind power, electric cars and heat pumps being deployed to move away from fossil fuels, a gap reflected in why the U.S. grid isn't 100% renewable today.

IEA Executive Director Fatih Birol told The Associated Press in an interview that there is a long line of renewable projects waiting for the green light to connect to the grid, including UK renewable backlog worth billions. The stalled projects could generate 1,500 gigawatts of power, or five times the amount of solar and wind capacity that was added worldwide last year, he said.

“It’s like you are manufacturing a very efficient, very speedy, very handsome car — but you forget to build the roads for it,” Birol said.

If spending on grids stayed at current levels, the chance of holding the global increase in average temperature to 1.5 degrees Celsius above pre-industrial levels — the goal set by the 2015 Paris climate accords — “is going to be diminished substantially,” he said.

The IEA assessment of electricity grids around the globe found that achieving the climate goals set by the world’s governments would require adding or refurbishing 80 million kilometers (50 million miles) of power lines by 2040 — an amount equal to the existing global grid in less than two decades.

Annual investment has been stagnant but needs to double to more than $600 billion a year by 2030, the agency said, with U.S. grid overhaul efforts aiming to accelerate upgrades.

It’s not uncommon for a single high-voltage overhead power line to take five to 13 years to get approved through bureaucracy in advanced economies, while lead times are significantly shorter in China and India, according to the IEA, though a new federal rule seeks to boost transmission planning.

The report cited the South Link transmission project to carry wind power from northern to southern Germany. First planned in 2014, it was delayed after political opposition to an overhead line meant it was buried instead, while more pylons in Scotland are being urged to keep the lights on, industry says. Completion is expected in 2028 instead of 2022.

Other important projects that have been held up: the 400-kilometer (250-mile) Bay of Biscay connector between Spain and France, now expected for 2028 instead of 2025, and the SunZia high-voltage line to bring wind power from New Mexico to Arizona and California, while Pacific Northwest goals are hindered by grid limits. Construction started only last month after years of delays.

On the East Coast, the Avangrid line to bring hydropower from Canada to New England was interrupted in 2021 following a referendum in Maine, as New England's solar growth is also creating tension over who pays for grid upgrades. A court overturned the statewide vote rejecting the project in April.

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Thermoradiative Diode Power leverages infrared radiation and night-sky cooling to harvest waste heat. Using MCT (mercury cadmium telluride) detectors with photovoltaics, it extends renewable energy generation after sunset, exploiting radiative cooling and low-power density.

Key Points

Technology using MCT infrared diodes to turn radiative Earth-to-space heat loss into electricity, aiding solar at night.

✅ MCT diodes radiate to cold sky, generating tiny current at 20 C

✅ Complements photovoltaics by harvesting post-sunset infrared flux

✅ Potential up to one-tenth solar output with further efficiency gains

Conventional solar technology soaks up rays of incoming sunlight to bump out a voltage. Strange as it seems, some materials are capable of running in reverse, producing power as they radiate heat back into the cold night sky environment.

A team of engineers in Australia has now demonstrated the theory in action, using the kind of technology commonly found in night-vision goggles to generate power, while other research explores electricity from thin air concepts under ambient humidity.

So far, the prototype only generates a small amount of power, and is probably unlikely to become a competitive source of renewable power on its own – but coupled with existing photovoltaics technology and thermal energy into electricity approaches, it could harness the small amount of energy provided by solar cells cooling after a long, hot day's work.

"Photovoltaics, the direct conversion of sunlight into electricity, is an artificial process that humans have developed in order to convert the solar energy into power," says Phoebe Pearce, a physicist from the University of New South Wales.

"In that sense, the thermoradiative process is similar; we are diverting energy flowing in the infrared from a warm Earth into the cold Universe."

By setting atoms in any material jiggling with heat, you're forcing their electrons to generate low-energy ripples of electromagnetic radiation in the form of infrared light, a principle also explored with carbon nanotube energy harvesters in ambient conditions.

As lackluster as this electron-shimmy might be, it still has the potential to kick off a slow current of electricity. All that's needed is a one-way electron traffic signal called a diode.

Made of the right combination of elements, a diode can shuffle electrons down the street as it slowly loses its heat to a cooler environment.

In this case, the diode is made of mercury cadmium telluride (MCT). Already used in devices that detect infrared light, MCT's ability to absorb mid-and long-range infrared light and turn it into a current is well understood.

What hasn't been entirely clear is how this particular trick might be used efficiently as an actual power source.

Warmed to around 20 degrees Celsius (nearly 70 degrees Fahrenheit), one of the tested MCT photovoltaic detectors generated a power density of 2.26 milliwatts per square meter.

Granted, it's not exactly enough to boil a jug of water for your morning coffee. You'd probably need enough MCT panels to cover a few city blocks for that small task.

But that's not really the point, either, given it's still very early days in the field, and there's potential for the technology to develop significantly further in the future.

"Right now, the demonstration we have with the thermoradiative diode is relatively very low power. One of the challenges was actually detecting it," says the study's lead researcher, Ned Ekins-Daukes.

"But the theory says it is possible for this technology to ultimately produce about 1/10th of the power of a solar cell."

At those kinds of efficiencies, it might be worth the effort weaving MCT diodes into more typical photovoltaic networks alongside thin-film waste heat solutions so that they continue to top up batteries long after the Sun sets.

To be clear, the idea of using the planet's cooling as a source of low-energy radiation is one engineers have been entertaining for a while now. Different methods have seen different results, all with their own costs and benefits, with low-cost heat-to-electricity materials also advancing in parallel.

Yet by testing the limits of each and fine-tuning their abilities to soak up more of the infrared bandwidth, we can come up with a suite of technologies and thermoelectric materials capable of wringing every drop of power out of just about any kind of waste heat.

"Down the line, this technology could potentially harvest that energy and remove the need for batteries in certain devices – or help to recharge them," says Ekins-Daukes.

"That isn't something where conventional solar power would necessarily be a viable option."

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IEA Electricity Market Outlook 2023-2025 projects faster demand growth as renewables and nuclear dominate supply, stabilizing power-sector carbon emissions, with Asia leading expansion despite energy crisis shocks and weather-driven volatility.

Key Points

IEA forecast for 2023-2025 electricity demand: renewables and nuclear meet growth as power-sector emissions hold steady.

✅ Asia drives >70% of demand growth

✅ Renewables and nuclear meet most new supply

✅ CO2 intensity declines; grid flexibility vital

The world’s electricity demand growth slowed only slightly in 2022, despite headwinds from the energy crisis, and is expected to accelerate in the years ahead

Renewables are set to dominate the growth of the world’s electricity supply over the next three years as, renewables eclipse coal in global generation, together with nuclear power they meet the vast majority of the increase in global demand through to 2025, making significant rises in the power sector’s carbon emissions unlikely, according to a new IEA report.

After slowing slightly last year to 2% amid the turmoil of the global energy crisis and exceptional weather conditions in some regions, the growth in world electricity demand is expected to accelerate to an average of 3% over the next three years, the IEA’s Electricity Market Report 2023 finds. Emerging and developing economies in Asia are the driving forces behind this faster pace, which is a step up from average growth of 2.4% during the years before the pandemic and above pre-pandemic levels globally.

More than 70% of the increase in global electricity demand over the next three years is expected to come from China, India and Southeast Asia, as Asia’s power use nears half of the world by mid-decade, although considerable uncertainties remain over trends in China as its economy emerges from strict Covid restrictions. China’s share of global electricity consumption is currently forecast to rise to a new record of one-third by 2025, up from one-quarter in 2015. At the same time, advanced economies are seeking to expand electricity use to displace fossil fuels in sectors such as transport, heating and industry.

“The world’s growing demand for electricity is set to accelerate, adding more than double Japan’s current electricity consumption over the next three years,” said IEA Executive Director Fatih Birol. “The good news is that renewables and nuclear power are growing quickly enough to meet almost all this additional appetite, suggesting we are close to a tipping point for power sector emissions. Governments now need to enable low-emissions sources to grow even faster and drive down emissions so that the world can ensure secure electricity supplies while reaching climate goals.”

While natural gas-fired power generation in the European Union is forecast to fall in the coming years, as wind and solar outpaced gas in 2022, based on current trends, significant growth in the Middle East is set to partly offset this decrease. Sharp spikes in natural gas prices amid the energy crisis have in turn fuelled soaring electricity prices in some markets, particularly in Europe, prompting debate in policy circles over reforms to power market design.

Meanwhile, expected declines in coal-fired generation in Europe and the Americas are likely to be matched by a rise in the Asia-Pacific region, despite increases in nuclear power deployment and restarts of plants in some countries such as Japan. This means that after reaching an all-time high in 2022, carbon dioxide (CO2) emissions from global power generation are set to remain around the same level through 2025.

The strong growth of renewables means their share of the global power generation mix is forecast to rise from 29% in 2022 to 35% in 2025, with the shares of coal- and gas-fired generation falling. As a result, the CO2 intensity of global power generation will continue to decrease in the coming years. Europe bucked this global trend last year, however. The CO2 intensity of Europe’s power generation increased as a result of higher use of coal and gas amid steep drops in output from both hydropower, due to drought, and nuclear power, due to plant closures and maintenance. This setback will be temporary, though, as Europe’s power generation emissions are expected to decrease on average by about 10% a year through 2025.

Electricity demand trends varied widely by region in 2022. India’s electricity consumption rose strongly, while China’s growth was more subdued due to its zero-Covid policy weighing heavily on economic activity. The United States recorded a robust increase in demand, driven by economic activity and higher residential use amid hotter summer weather and a colder-than-normal winter, even as electricity sales projections continue to decline according to some outlooks.

Demand in the European Union contracted due to unusually mild winter weather and a decline in electricity consumption in the industrial sector, which significantly scaled back production because of high energy prices and supply disruptions caused by Russia’s invasion of Ukraine. The 3.5% decrease in EU demand was its second largest percentage decline since the global financial crisis in 2009, with the largest being the exceptional contraction due to the COVID-19 shock in 2020.

The new IEA report notes that electricity demand and supply worldwide are becoming increasingly weather dependent, with extreme conditions a recurring theme in 2022. In addition to the drought in Europe, there were heatwaves in India, resulting in the country’s highest ever peak in power demand. Similarly, central and eastern regions of China were hit by heatwaves and drought, which caused demand for air conditioning to surge amid reduced hydropower generation in Sichuan province. The United States also saw severe winter storms in December, triggering massive power outages.

These highlight the need for faster decarbonisation and accelerated deployment of clean energy technologies, the report says. At the same time, as the clean energy transition gathers pace, the impact of weather events on electricity demand will intensify due to the increased electrification of heating, while the share of weather-dependent renewables will continue to grow in the generation mix. In such a world, increasing the flexibility of power systems, which are under growing strain across grids and markets, while ensuring security of supply and resilience of networks will be crucial.

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Lion Electric Battery Plant Quebec secures near $100M public investment for an automated battery-pack assembly in Saint-Jérôme, fueling EV manufacturing, R&D, local supply chains, and heavy-duty zero-emission vehicle competitiveness and jobs.

Key Points

Automated battery-pack plant in Saint-Jérôme boosting EV manufacturing and strengthening Quebec's supply chain.

✅ $100M joint federal-provincial investment announced

✅ 135 jobs in 2023; 150 more long-term positions

✅ R&D hub to enhance heavy-duty EV battery performance

Canadian Prime Minister of Canada, Justin Trudeau, and the Premier of Quebec, François Legault, have announced an equal investment totalling nearly $100 million to Lion Electric, as a B.C. battery plant announcement has done in another province, for the establishment of a highly automated battery-pack assembly plant in Saint–Jérôme, in the Laurentians. This project, valued at nearly $185 million, will create 135 jobs when construction of the plant is completed in 2023. It is also expected that 150 additional jobs will be created over the longer term.

For the announcement, Mr. Trudeau and Mr. Legault were accompanied by the Minister of Innovation, Science and Industry, François-Philippe Champagne, by Quebec's Minister of Economy and Innovation, Pierre Fitzgibbon, and by Marc Bédard, President and Founder of Lion Electric.

The battery packs assembled at the new plant will be used in Lion Electric vehicles. This strategic investment will allow the company to improve its cost structure, and better control the design and shape of its batteries, making it more competitive in the heavy-duty electric vehicle market, as EV assembly deals put Canada in the race. Ultimately, the company will be able to increase the volume of its vehicle production. Lion Electric will be the first Canadian manufacturer of medium and heavy-duty vehicles to have state-of-the-art, automated battery-pack manufacturing facilities.

The company will also establish a research and development innovation centre within its manufacturing plant, which will allow it to test and refine products for future use, including batteries for emergency vehicles such as ambulances. The company will test innovations from research and development, including energy storage capacity and battery performance. The results will make these products more competitive in the North American market, where a Niagara Region battery plant signals growing demand.

The company said it expects to employ 135 people at the plant when it is operational by 2023. It also plans to invest in a research and development facility that could create a number of spinoff jobs.

"When we talk about an economic recovery that's good for workers, for families and for the environment, this is exactly the kind of project we mean," Trudeau said at a news conference in Montreal.

Trudeau toured Lion Electric's factory in Saint-Jérôme, Que., last March, just before the pandemic. (Ryan Remiorz/The Canadian Press)
It was the prime minister's first trip to Montreal in more than a year. He said one of the reasons he decided to attend the announcement was to illustrate the importance of the green economy and how Canada can capitalize on the U.S. EV pivot for future job growth.

The project also aligns with the Legault government's desire to create a supply chain within Quebec that is able to feed the electric vehicle industry, where Canada-U.S. collaboration could accelerate progress.

At Monday's announcement, Economy Minister Pierre Fitzgibbon spoke at length about the province's deposits of lithium and nickel — key components in electric vehicle batteries — as well as its supply of low-emission hydroelectricity.

"If we play our cards right, we could become world leaders in this market of the future," Fitzgibbon said.

Currently, many of those strategic minerals found in Quebec are exported to Asia where they are turned into battery cells, and then imported back to Quebec by companies like Lion, said Mickaël Dollé, a chemistry professor at the Université de Montréal.

By opening a battery assembly plant in Quebec, Lion could help stimulate more cell-makers, such as the Northvolt project near Montreal, to set up shop in the province. Further localizing the supply chain, Dollé said, means better value and a greener product. 

But other countries have the same goal in mind, he said, and the window for the province to establish itself as an important player in the emerging electric vehicle battery industry is closing quickly, as major Ford Oakville deal commitments accelerate competition.

"The decision has to be taken now, or in the coming months, but if we wait too long we may miss our main goal which is to get our own supply chain in Canada," Dollé said.

What's in a name?
Monday's announcement was closely watched in Quebec for what it foretold about the political future as well as the economic one.

By coming to Montreal and touring a vaccination clinic before making the funding announcement, Trudeau fed speculation in the province that he is preparing to call an election soon.

Intrigue also surrounded the informal meeting Trudeau had with Legault on Monday. The Quebec premier and members of his government have repeatedly expressed frustration with Trudeau during the pandemic.

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Canada EV Manufacturing Strategy catalyzes electric vehicles growth via batteries, mining, and supply chain localization, with Unifor deals, Ford and FCA retooling, and government incentives safeguarding jobs and competitiveness across the auto industry.

Key Points

A coordinated plan to scale EV assembly, batteries, and mining supply chains in Canada via union deals and incentives.

✅ Government-backed Ford and FCA retooling for EV models.

✅ Battery cell, module, and pack production localizes value.

✅ Mining-to-mobility links metals to the EV supply chain.

As of a month ago Canada was just a speck on the global EV manufacturing map. We couldn’t honestly claim to be in the global race to electrify the automotive sector, even as EV shortages and wait times signalled surging demand.

An analysis published earlier this year by the International Council on Clean Transportation and Pembina Institute found that while Canada ranked 12th globally in vehicle production, EV production was a miniscule 0.4 per cent of that total and well off the average of 2.3 per cent amongst auto producing nations.

As the report’s co-author Ben Sharpe noted, “Canada is a huge auto producer. But nobody is really shining a light on the fact that if Canada’s doesn’t quickly ramp up its EV production, the steady decline we’ve seen in auto manufacturing over the past 20 years is going to accelerate.”

National strategy
While the report received relatively scant attention outside industry circles, its thesis was not lost on the leadership of Unifor, the union representing Canadian autoworkers.

In an August op-ed, Unifor national president Jerry Dias laid out the table stakes: “Global automakers are pouring hundreds of billions of dollars into electric vehicle investments, but no major programs are landing in Canada. Without a comprehensive national auto strategy, and active government engagement, the future is dim … securing our industry’s future requires a much bigger made-in-Canada style effort. An effort that government must lead.”

And then he got busy at the negotiating table.

The result? All of a sudden Canada is (or rather, will be) on the EV assembly map, just as the market hits an EV inflection point globally on adoption trends.

Late last month, contract negotiations between Unifor and Ford produced the Ford Oakville deal that will see $2 billion — including $590 million from the federal and Ontario governments ($295 million each) — invested towards production of five EV models in Oakville, Ont.

Three weeks later, Unifor reached a similar agreement with Fiat Chrysler Automobiles on a $1.5-billion investment, including retooling, to accommodate production of both a plug-in hybrid and battery electric vehicle (including at least one additional model). 

Workforce implications
The primary motivation for Unifor in pushing for EVs in contract negotiations is, at minimum, preserving jobs — if not creating them. Unifor estimates that retooling the Ford plant in Oakville will save 3,000 of the 3,400 jobs there, contributing to Ontario's EV jobs boom as the transition accelerates. However, as VW CEO Herbert Diess has noted, “The reality is that building an electric car involves some 30 per cent less effort than one powered by an internal combustion engine.”

So, when it comes to the relationship between jobs and EVs, at first glance it might not seem to be a great news story. What exactly are the workforce implications?

To answer this question, and aid automakers and their suppliers in navigating the transition to EV production, the Boston Consulting Group (BCG) has done a study on the evolution of labour requirements along the automotive value chain. And the results, it turns out, are both illuminating and encouraging — so long as you look across the full value chain.

Common wisdom “inaccurate”
The study provides an in-depth unpacking of the similarities and differences between manufacturing an internal combustion engine (ICE) vehicle versus a battery EV (BEV), and in doing so it arrives at a surprising conclusion: “The common wisdom that BEVs are less labor intensive in assembly stages than traditional vehicles is inaccurate.” 

BCG’s analysis modeled how many labour hours were required to build an ICE vehicle versus a BEV, including the distribution of labour value across the automotive value chain.

While ICE vehicles require more labour associated with components, engine, motor and transmission assembly and installation, BEVs require the addition of battery manufacturing (cell production and module and battery pack assembly) and an increase in assembly-related labour. Meanwhile, labour requirements for press, body and paint shops don’t differ at all. Put that all together and labour requirements for BEVs are comparable to those of ICE vehicles when viewed across the full value chain.

Value chain shifting to parts suppliers
However, as BCG notes, this similarity not only masks, but even magnifies, a significant change that was already underway in the distribution of labour value across the value chain — an accelerating shift to parts suppliers.

This trend is a key reason why the Canadian Automotive Parts Manufacturers’ Association launched Project Arrow earlier this year, and just unveiled the winner of the EV concept design that will ultimately become a full-build, 100 per cent Canadian-equipped zero-emission concept vehicle. The project is a showcase for Canadian automotive SMEs.

The bulk of the value shift is into battery cell manufacturing, which is dominated by Asian players. In light of this, both the EU and UK are working hard to devise strategies to secure battery cell manufacturing, including projects like a Niagara Region battery plant that signal momentum, and hence capture this value domestically. Canada must now do the same — and in the process, capitalize on the unique opportunity we have buried underground: the metals and minerals needed for batteries.

The federal government is well aware of this opportunity, which Minister of Industry, Science and Economic Development Navdeep Bains has coined “mines to mobility.” But we’re playing catch up, and the window to effectively position to capture this opportunity will close quickly.

Cooperation and coordination needed
As Unifor’s Dias noted in an interview with Electric Autonomy after the FCA deal, the scale of the opportunity extends beyond the assembly plants in Oakville and Windsor: “This is about putting workers back in our steel plants. This is about making batteries. This is about saying to aluminum workers in Quebec and B.C. … to lithium workers in Quebec … cobalt workers in Northern Ontario, you’re going to be a part of the solution…It is a transformative time. … We’re on the cusp of leading globally for where this incredible industry is going.”

With their role in securing Ford’s EV production commitment, the federal and Ontario governments made clear that they understand the potential that EVs offer Canada, including how to capitalize on the U.S. auto sector's pivot as supply chains evolve, and their role in capitalizing on this opportunity.

But to ultimately succeed will require more than an open chequebook, it will take a coordinated industrial strategy that spans the full automotive value chain and extends beyond it into batteries and even mining, alongside Canada-U.S. collaboration to align supply chains. This will require effective cooperation and coordination between governments and across several industrial sectors and their associations.

Together they are Team Canada’s pit crew in the global EV race. How we fare will depend on how efficiently and effectively that crew works together. 

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Ontario Hydrogen Innovation Fund accelerates clean electricity integration, hydrogen storage, grid balancing, and electrolyzer pilot projects, supporting EV production, green steelmaking, and clean manufacturing under Ontario's Low-Carbon Hydrogen Strategy via IESO-administered funding.

Key Points

A $15M program funding hydrogen storage, grid pilots to integrate low-carbon hydrogen into Ontario's power system.

✅ Administered by IESO; applications opened April 2023.

✅ Supports existing, new, and research hydrogen projects.

✅ Backs grid storage, capacity, demand management pilots.

The Ontario government is establishing a Hydrogen Innovation Fund that will invest $15 million over the next three years to kickstart and develop opportunities for hydrogen to be integrated into Ontario’s clean electricity system, including hydrogen electricity storage. This launch marks another milestone in the implementation of the province’s Low-Carbon Hydrogen Strategy, supporting a growing hydrogen economy across the province, positioning Ontario as a clean manufacturing hub.

“When energy is reliable, affordable and clean our whole province wins,” said Todd Smith, Minister of Energy. “The Hydrogen Innovation Fund will help to lay the groundwork for hydrogen to contribute to our diverse energy supply, supporting game-changing investments in electric vehicle production and charging infrastructure across the province, green steelmaking and clean manufacturing that will create good paying jobs, grow our economy and reduce emissions.”

Hydrogen Innovation Fund projects would support electricity supply, capacity, battery storage and demand management, and support growth in Ontario’s hydrogen economy. The Fund will support projects across three streams:

Existing facilities already built or operational and ready to evaluate how hydrogen can support Ontario’s clean grid amid an energy storage crunch in Ontario.
New hydrogen facilities not yet constructed but could be in-service by a specified date to demonstrate how hydrogen can support Ontario’s clean grid.
Research studies investigating the feasibility of novel applications of hydrogen or support future hydrogen project decision making.

The Hydrogen Innovation Fund will be administered by the Independent Electricity System Operator, which is opening applications for the fund in April 2023. Natural Resources Canada modelling shows that hydrogen could make up about 30 per cent of the country's fuels and feedstock by 2050, as provinces advance initiatives like a British Columbia hydrogen project demonstrating scale and ambition, and create 100,000 jobs in Ontario. By making investments early to explore applications for hydrogen in our clean electricity sector we are paving the way for the growth of our own hydrogen economy.

“As a fuel that can be produced and used with little to no greenhouse gas emissions, hydrogen has tremendous potential to help us meet our long-term economic and environmental goals,” said David Piccini, Minister of the Environment, Conservation and Parks. “Our government will continue to support innovation and investment in clean technologies that will position Ontario as the clean manufacturing and transportation hub of the future while leading Canada in greenhouse gas emission reductions.”

The province is also advancing work to develop the Niagara Hydrogen Centre, led by Atura Power, which would increase the amount of low-carbon hydrogen produced in Ontario by eight-fold. This innovative project would help balance the electricity grid while using previously unutilized water at the Sir Adam Beck generating station to produce electricity for a hydrogen electrolyzer, reflecting broader electrolyzer investment trends in Canada. To support the implementation of the project, the IESO entered into a contract for grid regulation services at the Sir Adam Beck station starting in 2024, which will support low-carbon hydrogen production at the Niagara Hydrogen Centre.

These investments build on Ontario’s clean energy advantage, which also includes the largest battery storage project planned in southwestern Ontario, as our government makes progress on the Low-Carbon Hydrogen Strategy that laid out eight concrete actions to make Ontario a leader in the latest frontier of energy innovation – the hydrogen economy.

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