Jupiter Power secures US$70 million for 320MWh ERCOT projects

The two BESS projects total 160MW/320MWh of energy storage capacity although no more details were given on them.

However, First Citizens’ Energy Finance group’s criteria for project financing indicates the projects have committed equity and are in late stage development with all requirements for construction or operation in place.

Jupiter Power, which was acquired by asset manager BlackRock late last year, only lists six projects on its website in ERCOT, all already operational totalling 655MWh of capacity. But none of them can combine to add up to 160MW/320MWh, and in any case it already secured debt financing for that portfolio in April 2022.

It has been quiet on announcements since becoming part of the Blackrock having announced numerous projects over 2022. It enlisted Energy Vault, the company known for its gravity-based technology, to deploy 220MWh of BESS in Texas and California in August, and a month later announced plans for 2.4GWh of ‘US-localised battery storage’ with the firm.

The firm has 340MWh of projects in or ‘near’ construction including its first in California, it said at the time of the BlackRock acquisition.

The ERCOT, Texas market, is the most active in the US along with California, as developers seek to capitalise on a big ancillary services market and increasing price volatility amidst massive growth in renewable generation. It accounted for 70% of BESS deployments in the US in the first quarter.

However, average revenues may begin to fall from next year as ancillary service market begin to saturate and state-of-charge (SOC) requirements for those services limit participation, Energy-Storage.news recently wrote in a Premium article. The state continues to see a severe heatwave with temperatures consistently hitting the high 30s, and BESS units are helping grid operator ERCOT to manage the challenges that come with this.

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UK BESS developer questions 2-hour duration’s suitability for net zero

The projects contribute to a staggering pipeline of BESS in the UK, totalling 71.4GW/100.9GWh, according to Solar Media Market Research’s UK Battery Storage Project Database Report, or as high as 118GW according to National Grid ESO figures cited by Balance Power’s commercial manager Nick Provost.

But Provost has questioned whether the 2-hour duration of most new BESS projects is adequate to decarbonise the grid in a report published on the company’s website.

“The key takeaway is that the commercial business models that developers are following today don’t align with or are unlikely to provide the technical needs that are needed to deliver a net zero grid,” Provost told Energy-Storage.news.

“In most cases the best internal rate of return (IRR) if you have a piece of land for BESS is to develop a 2-hour system. A classic project developed today is a 50MW/100MWh system. But if we actually reduced the power to 25MW to make it 4-hours or 12.5MW to make it 8-hours, that actually better aligns with net zero, because you still get all the megawatt-hours but you don’t need as many grid upgrades so projects connect quicker.”

“Our entire industry works in MW at the moment, which has been fine up until this point, but we need to transition to MWh as that will provide security of supply.”

Provost’s report estimates that 8-hour durations would be the optimal solution for providing a balance between sufficient power (MW) to deliver flexibility, while minimising the cost and time of connecting the required energy storage capacity (MWh) to the grid.

Energy-Storage.news then asked Provost what he thought needs to change to incentivise this, considering that most projects today still make the majority of revenues from ancillary services which reward MW power, not MWh capacity (even if those services are starting to saturate).

A relatively simple change would be to change the ‘de-rating factors’ for energy storage assets in the UK Capacity Market to better incentivise longer duration projects, he said. The de-rating factor is the percentage of the clearing tariff that assets will actually receive based on their technology. The figure is 95% for gas peaker plants, 46% for 4-hour energy storage systems, 24% for 2-hour ones, and around just 5% for solar PV, figures which aim to reflect the reliability of each technology in providing standby power.

But the overall key missing component is is a revenue forecast to determine how much an 8-hour project could make, Provost’s report added.

Building projects at 2-hours duration now and increasing the duration later is an option, by either reducing the power output or adding energy storage capacity, but both have big downsides. Halving the power means an over-spec’d transformer while adding capacity requires extra land.

“UK developers will often have secured planning based on the minimum amount of land they need because the size impacts planning costs and project risk,” he said. “Even if the land was available you’d need another planning process.”

Replacing the technology entirely to a longer duration one – if lithium-ion BESS is no longer the most cost-effective in, say, 10 years time – would also dent the commercials of a project if it was part-way through its expected lifetime.

See the full report from Balance Power here.

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Energy Storage Awards 2023: Last call for nominations

Nominations will be open until 24 July 2023, and are open to any projects, product launches and other activities to have taken place over the past year within Europe (22 June 2022 to 31 July 2023) – although representing entities do not have to be based or headquartered in Europe.

Entry is super-simple, with a nominations form to fill out, accompanied by up to three documents of supporting information.

Energy-Storage.news is proud to be involved, in association with the events team, and editor Andy Colthorpe is among the judges this year, together with noted industry names and academics from the European Association for Storage of Energy (EASE), BloombergNEF, S&P Global the Faraday Institute and more.

The Energy Storage Awards 2023 are you and your company’s chance to put your best foot forward and be represented in front of the entire industry – Energy-Storage.news has over a million visitors a year and more than 22,000 newsletter subscribers, while our events are routinely described as the best in the business by attendees from far and wide.

There are 12 categories in this year’s awards, which you can read more about on the official event site:

Developer of the Year

System Integrator of the Year

Trading and Optimisation Team of the Year

Product of the Year

Breakthrough R&D/Innovation of the Year

Newcomer/Startup of the Year

Challenge of the Year

Grid-scale Standalone Energy Storage Project of the Year

Grid-scale Co-located or Hybrid Energy Storage Project of the Year

Distributed Energy Storage Project of the Year

Outstanding Contribution to Energy Storage

Grid Operator-led Project of the Year

Winners will be announced at a ceremony on 28 September 2023, at the Park Plaza London Riverbank. See here for Entry Criteria and to fill out your nomination.  

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Cyprus to build ‘central energy storage systems’, hybrid storage with renewable energy

It said the government will be deploying centralised energy storage systems and at the same time launched a public consultation into how best to direct funding to support renewable energy sources that can be combined, or hybridised, with energy storage system (ESS) technology.

The network of central energy storage systems will be installed “by the State”, MECI said, and they will be owned by the national energy supplier Cyprus Energy Authority, through its business unit for networks. The systems will be administered by the Cyprus Transmission System Operator (TSOC), which as the name implies, is the national transmission system manager.

Central energy storage

The ministry said at least €40 million (US$45 million) will be allocated for the central storage systems that will be state built, owned and administered.

While it didn’t mention in a public announcement how technology providers, contractors and other partners will be chosen, MECI did say that any battery energy storage system (BESS) projects must be completed within 18 to 24 months after receiving required approvals. Whereas for non-battery systems, a longer timeline for implementation will be allowed.

Hybrid renewables

Meanwhile the government is budgeting to fund between €10 million and €40 million of the cost of renewable energy projects “with the possibility of energy storage”. Respondents have just a few days to provide input into the first phase of the public consultation on this initiative, which is open until just before midnight on 26 July 2023.

EU and national funding

The island country with a population of about a million has been a full Member State of the European Union (EU) since 2004.

Cyprus’ National Energy and Climate Plan has a key objective of making renewable energy at least 22.9% of final energy consumption across all sectors including electricity, heat and cooling, and transport by 2030.

For the electricity sector, that means a share of 30.3% renewables, with 14% for transport and a much higher 39.4% target for heating and cooling. In 2019, the electricity sector’s renewable energy share stood at just 9.8%.

On 8 July, the EU and Cyprus signed a Partnership Agreement, which cements a commitment from the EU to invest a total €1 billion into the country and its Just Transition Fund (JTF) between 2021 and 2027, while settling on terms for how that spending should be directed.

The JTF has a dedicated budget of €101 million, including funding to be spent in areas like strengthening transmission and distribution (T&D) networks to accommodate energy storage and renewable energy, as well as supporting small and medium-sized businesses to adopt new technologies including renewables. It will also support skilling up of Cyprus’ workforce in green technology industries.

MECI said its support plan for hybrid renewables will be paid for through a combination of JTF money, as well as with revenues from its national Pollutants Fund, as well as dedicated funds for renewable energy systems (RES) and energy efficiency (EE).

The €10 million to €40 million funding for hybrid renewables support is subject to approval through the state’s 2024 budget, while the €40 million expected to be allocated for centralised ESS is subject to EC approval of the plan.

Latest beneficiary of EU’s energy storage push

The EU, focusing on raising renewable energy targets in the wake of the Russian invasion of Ukraine with the REPowerEU plan and implementing the various pillars of the European Green Deal, has directed funding or approved state aid for energy storage in numerous European countries in recent months.

Most recent announcements covered by Energy-Storage.news include the approval of €1.1 billion state aid in Hungary, €150 million in grants for renewable energy and storage in Slovenia, funding from the EU-wide Recovery and Resilience Facility for Estonia.

Other recipients include Romania, Croatia and Finland, while Greece is using EU funding towards an ongoing 400MW tender scheme, with projects in the latest round eligible for grants of up to €200,000 (US$218,000) per MW of installed power.

European Commissioner for energy Kadri Simson has described energy storage as the “centrepiece” of the energy transition and in May welcomed the formation of a European Energy Storage Coalition of stakeholders.

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Bifacial Perovskite Solar Cells Potentially More Efficient

According to scientists at the U.S. Department of Energy’s National Renewable Energy Laboratory (NREL), a bifacial perovskite solar cell, which allows sunlight to reach both of its sides, holds the potential to produce higher energy yields at lower overall costs.

The dual nature of a bifacial solar cell enables the capture of direct sunlight on the front and the capture of reflected sunlight on the back, allowing it to outperform its monofacial counterparts.

Kai Zhu, a senior scientist in the Chemistry and Nanoscience Center at NREL, was lead author of Highly Efficient Bifacial Single-Junction Perovskite Solar Cells, a new paper published in the journal Joule. His co-authors from NREL are Qi Jiang, Rosemary Bramante, Paul Ndione, Robert Tirawat and Joseph Berry. Other co-authors are from the University of Toledo.

Past bifacial perovskite solar cell research has yielded devices considered inadequate in comparison to monofacial cells, which have a current record of 26% efficiency. Ideally, the NREL researchers noted, a bifacial cell should have a front-side efficiency close to the best-performing monofacial cell and a similar back-side efficiency.

The researchers were able to make a solar cell where the efficiency under illumination from both sides is close together. The lab-measured efficiency of the front illumination reached above 23%. From the back illumination, the efficiency was about 91%–93% of the front.

Before constructing the cell, researchers relied on optical and electrical simulations to determine the necessary thickness. The perovskite layer on the front of the cell had to be sufficiently thick to absorb most of the photons from a certain part of the solar spectrum and not block them. On the back of the cell, the NREL team had to determine the ideal thickness of the rear electrode to minimize resistive loss.

According to Zhu, simulations guided the design of the bifacial cell. Without that assistance, the researchers would have had to experimentally produce cell after cell to reach their findings. Ultimately they found the ideal thickness for a perovskite layer is around 850 nanometers. By comparison, a human hair is approximately 70,000 nanometers.

To evaluate the efficiency gained through bifacial illumination, the researchers placed the cell between two solar simulators. Direct light was aimed at the front side, while the back side received reflected light. The efficiency of the cell climbed as the ratio of reflected light to the front illumination increased.

Researchers estimate that a bifacial perovskite solar module would cost more to manufacture than a monofacial module; however, bifacial modules could end up being better financial investments over time because they generate 10%-20% more power.

The U.S. Department of Energy Solar Energy Technologies Office funded the research.

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Winding up of UK BESS specialist EPC/ICP firm G2 Energy confirmed as bulk of team joins Mitie

That now appears to have been confirmed by G2 Energy Limited’s profile on the UK government’s official company registry Companies House. An ‘Extraordinary resolution to wind up’ was filed on 7 July which followed a ‘Creditors voluntary liquidation – Commencement of winding up’ case starting four days earlier (3 July).

CEO Kelvin Ruck, COO Nigel Hughes and 45 other ex-G2 colleagues are now joining outsourcing and energy service group Mitie to head up a new unit focusing on the the battery energy storage system (BESS) sector, Energy-Storage.news can reveal.

G2 Energy has not announced anything publicly but a senior source from its management team told Energy-Storage.news:

“One of the main issues was the unsympathetic clients/employers who used the contracts to drive G2 into this position rather than working with us – they were warned of our position but decided to just apply the contract conditions with very unreasonable payless notices, exacerbating the cashflow constraint that they caused,” they said.

“These clients now have their own problems with projects being delayed while they find alternative resources in a very constrained environment at a cost premium, rather than working with us during a very challenging trading period. The advice would be to ‘look after your contractors, before you lose them all’.”

The company is an engineering, procurement and construction (EPC) firm and independent connection provider (ICP) which has worked on major BESS projects in the UK in the past few years. ICPs are licensed to design new connections to the network, dig and fill trenches on and around the property to be connected, and install electrical switches and transformers.

By 2018 when the market was just picking up, G2 Energy had already worked on over 100MW of battery projects, as reported by Energy-Storage.news at the time.

Since then, it has provided its services for, amongst others, the 196MWh Pillswood project (Europe’s largest), a soon-to-be part community-owned 30MWh project in Bristol, while in December it secured the EPC agreement for a 102MWh project with Econergy Renewable Energy and Trina Storage, in South Yorkshire.

Other independent EPCs and ICPs have reportedly faced issues in the past few months too, and there has been much discussion on LinkedIn in comments on various posts about the closure of G2.

“Too many companies struggling in the energy game… only winners are the DNO’s (distribution network operators) …. Contractors never win but always give it their all…. Some DNO’s need to stop battering contractors and actually work with them,” said one user, a construction manager at a separate EPC firm.

Another, an infrastructure-focused recruiter, lamented “schemes being developed by large venture capital investors of whom commercially appear to want the project built, but place all the risk with everyone else,” in a post they referred back to which actually predated the G2 Energy reports.

The UK market reached over 3GW/3.4GWh of operational grid-scale BESS at the end of H1 2023, according to figures from Solar Media Market Research’s UK Battery Storage Project Database Report.

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Canada’s energy storage pioneer NRStor: ‘Solving the needs of customers large and small’

Not surprisingly so, given the rapid rise of energy storage south of the border has put the US into a leading position among global markets.

California recently surpassed 5GW of battery energy storage system (BESS) resources on the CAISO grid, the country as a whole deployed about 4GW/12GWh in 2022 according to Wood Mackenzie Power & Renewables, and Joe Biden’s Inflation Reduction Act is already driving immense growth in investments and business activity.

Yet there is quite a lot to be seen in Canada too: a recent Guest Blog from trade association Energy Storage Canada’s executive director Justin Rangooni spelled out many of the key developments, including Ontario’s record-breaking procurement of storage resources, to the Canadian government’s own (forthcoming) tax credit incentive schemes for clean energy.

We also looked at Canada, through the prism of its two leading provinces for energy storage adoption, Ontario and Alberta. In our article ‘Canada’s energy storage leaders have valuable lessons to teach’ (PV Tech Power journal, Vol.35), we spoke with experts and industry stakeholders including today’s interviewee, Jason Rioux of Ontario-based developer NRStor.

Jason reveals some of the many things he and NRStor have learned through a decade of energy storage projects, from different technologies to different business models, from working with industry partners to working with government and regulators. Publication of this interview feels timely given the Ontario government’s new Powering Ontario’s Growth report, which puts energy storage, alongside renewables and nuclear, at the heart of meeting the province’s rapidly growing demand for electricity.

You can also read Jason Rioux’s views on trading energy from personal experience, and why batteries and other energy storage technologies are the far better investment long-term than natural gas, in another recent news story, here.

Could you start off with a brief introduction to NRStor and some of its activities, for the benefit of our international readers?

I’m the chief development officer with NRStor, one of the energy storage development pioneers in Canada. The company has been around for about 10 years, and has been involved in a lot of the early market advocacy, market education work that happened in the earlier part of the last decade, where energy storage wasn’t considered a serious contender for infrastructure and meeting the energy system needs that we well understand today.

NRStor has been developing, owning and operating energy storage projects of various technology types, of various scales, and application types.

Our project development and asset deployment track record ranges from residential scale Tesla Powerwall-type products, all the way up to megawatt-scale projects facing the grid, providing services to system operators, and utilities alike. Our largest project to date is the 250MW/1,000MWh Oneida energy storage project.

So, the company is very much focused on solving the needs of customers, be it system operators or large energy users, or residential customers. Using energy storage to solve problems that haven’t been able to be solved cost-effectively, or technically in any other way to date.

It feels like a lot of the global market is settled, at least for the time being, on lithium-ion batteries as the technology of choice. But as you mentioned different technology types, it’s interesting to note NRStor’s involvement in the world-first advanced-compressed air energy storage (A-CAES) demonstration project with technology provider Hydstor. NRStor has also done some work with flywheels. Any interesting learnings from that diversity of portfolio, and is NRStor likely to do other non-lithium projects?

As the energy storage industry started to take off, Ontario happened to have early mover adoption activities in the last decade, trying out various technology types.

I think it [provided] to the Ontario system operator, the IESO, in doing some early procurements for mostly single digit megawatt-scale storage technology types the chance for the IESO to get experienced with various technologies and for technology suppliers to get their feet wet in their first projects and developers to get some experience.

The flywheel energy storage project we built was using another Canadian clean tech company called Temporal Power. They were a Canadian technology inventor company, we were their first customer, deploying a first commercial-scale flywheel storage project that provides frequency regulation to the grid. That project was our first project and it’s still running today. It’s continued to provide excellent service to the Ontario market, it has provided a myriad of services actually, and we keep adjusting how the facility operates to provide new types of services to the market.

The things we’ve tried out on that facility are: we provided fast frequency regulation. The ISO [decision] tested out unlocking the full potential of fast-responding storage projects. We’ve provided synthetic inertia services testing to the ISO, we’ve done renewable pairing and renewable smoothing services demonstrations as well, paired with solar and paired with wind and other novel kind of services. It’s been quite the little testbed of a project for us and Ontario.

Another interesting project was the first compressed air energy storage project that was fuel-free in the world on a commercial scale. It’s on a legit, real-world repurposed salt cavern at one of the largest salt mines in Canada. This was Hydrostor’s first commercial project, it provided a lot of learnings. Doing anything for the first time is hard work. We had to change the law, for example, in Ontario. It was illegal to put air underground, at the time of the development of that project, whereas it’s always been that you’re allowed to put toxic chemicals in the ground for the oil and gas industry, but no one ever thought somebody would want to put air. So it was never written into the regulations.

The Hydrostor A-CAES plant in Goderich, Ontario. Image: Hydrostor.

When these first projects get through all of the heavy lifting, it sets the stage for compressed air energy storage projects of the future to be able to move ahead without similar roadblocks, so to speak.

I think it’s relatively expected and commonplace that lithium-ion batteries today are the most commercially viable, bankable technology class that can reach the gigawatt-hour scale projects in the near term with speed, and with sufficient capacity and duration that meet some of the needs of grids transitioning across Canada and around the world, certainly.

A lot of our projects are using that technology type, but we continue to work on other projects across Canada that are applying other types of technologies and in industrial processes. We don’t try to solve every problem we find with a lithium-ion battery.

NRSTor continues to be focused on Canada, and Ontario in particular. Regular readers may remember that the company spun out NRSTor C&I and sold it to Blackstone, since when the former subsidiary has been rebranded Aypa Power and takes on a lot of projects in the US. What’s the strategy behind continuing to focus on Ontario, and has NRStor considered international development activities?

We’ve been enticed and teased by international opportunities over the last decade, that’s for sure. We’ve just had so much to work on in Canada. It’s our home base, we have excellent market intelligence, we’ve got excellent relationships that have been developed over more than the last decade.

We understand the market, we’ve grown to understand many different technology types, we’ve grown to understand many different contracting methods. Eventually we’ll take our experiences with our technology scale-up, real projects deployed, maybe a bigger balance sheet as a company, and then move to international markets. So it’s on the roadmap, but to be honest, we’re very busy at home here in Canada.

For Energy-Storage.news, the bulk of our coverage of Canada a few years ago was focused on the Global Adjustment Charge (GAC) market in Ontario. Heavy industrial users of electricity get levied hefty demand charges under GAC for using power from the grid at peak times, which BESS technology has been used to mitigate. It’s fairly clear that the market is kind of migrating on from that, but is that something NRStor is still involved in, and have those types of projects helped create a baseline knowledge and market experience for the storage industry in Canada?

The Global Adjustment market in Ontario is a unique one. It’s effectively a high risk, high reward capacity payment that is incenting loads to manoeuvre, and incenting storage. There’s enough money in that game to make investments in storage assets behind-the-meter so that industrial customers incur savings and subsidise storage projects to be financially viable.

There’s no long-term contracts. They’re complicated projects to finance, the reform around the regulatory world around these tariff classes for customers is always subject to change, and so that takes a certain type of investor to want to earn a healthy return, to take on those kinds of risks.

NRStor (C&I) as we spun that out, we haven’t focused on Global Adjustment abatement projects for industrial since that transaction occurred. We’ve been focused on utility-facing projects, smaller behind-the-meter fleets of distributed batteries. [On the other hand] while we’ve stayed away from GAC abatement projects, we have been evolving and developing more progressive prosumer business models with large energy users that serve the needs of the grid in the way the grid operators want to have visibility and control, whilst providing onsite benefits to these large energy users. So there’s a new world evolving around all of this.

We heard from Patrick Bateman, a consultant working with Energy Storage Canada, that perhaps as close to 95% of new energy storage capacity additions in Canada in the years up to 2030 will be in Ontario or Alberta. At the same time, there are other provinces making significant steps forward, such as Nova Scotia. Energy Storage Canada has modelled a need for between 8GW and 12GW of storage across the country by the end of this decade to enable it to meet interim goals on the path to net zero emissions.

Do you think the fundamental benefits of energy storage have been recognised in Canada, by stakeholders that include national and local authorities?

Rendering of Oneida, the 250MW/1,000MWh project on which NRStor is among development partners. Image: NRStor.

I do believe that Canada needs about 10,000 megawatts of storage deployed in the next decade and we’d like to get a piece of that action. We know where these projects need to happen.

We’ve been working on it already for the past decade sorting that out, where we’re often in, developing projects, before some of the decision makers and utilities understand how much they need it. We’re in the fog, so to speak, in some markets and some dialogues, while the fog is clearing in other markets and other dialogues.

You’ve got a varied set of stories across the country, because each province has its own [characteristics]. Either, they all manage their own electricity grids, and they’ve got different configurations of markets, or no markets and regulated, provincially-owned or private sector owned regulated entities. We’ve got a mixed bag across this country.

For example, right before the pandemic, we were successful in getting the law changed in Nunavut (Canada’s most northern territory) because it was illegal for third parties to provide clean electricity.

Now the utility is allowed to provide clean electricity and storage to reduce diesel burn in the hundreds of communities we’ve got in northern Canada running on diesel today. There’s varied stories and varied levels of advancement, and you need to be patient. We’ve been very patient to move the needle in the right direction, reduce barriers, and create the opportunities for the entire sector and hoping that we get some good projects for NRStor and our business partners and First Nation partners along the way.

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Facing unprecedented growth in electrical demand, Ontario turns to renewables, storage and nuclear

The province’s electricity demand has remained largely flat for decades, but factors including electrification of transport, buildings and heavy industry, as well as nuclear and fossil fuel power plant retirements and meeting Canada’s net zero goals are set to change that.

Projections from the Independent Electricity System Operator (IESO), which operates Ontario’s electricity networks as well as its wholesale market, see a need to more than double the generation capacity from 42GW today to 88GW in 2050.

Action is already being taken with LT-1, the recent expedited procurement of 4,000MW of new electricity resources – including Canada’s biggest energy storage procurement to date – as a means of shoring up electricity supply margins in the latter half of this decade.

There have also been the announcements in the past few weeks of two new-build nuclear power plants. Ontario was able to quit coal in the mid-2010s, replacing it largely with gas.

The Powering Ontario’s Growth report acknowledges that nuclear and hydroelectric are currently the province’s lowest cost energy resources, with solar and wind contracts signed prior to 2016 being at above-market prices.

Procurements going forward will likely be cheaper, however, with the plan committing to holding competitive solicitations for wind, solar, hydroelectric, battery storage and biogas.

According to the report, from 228MW of grid-connected energy storage in 2023 – the vast majority of which was pumped hydro – Ontario will have 1217MW of mostly battery energy storage system (BESS) assets by 2026. Energy storage gets 27 mentions in the 86-page report.

Energy Storage Canada, the national trade association for the industry, stepped forward to applaud minister Todd Smith and the Ontario government in responding to the plan in a statement sent to Energy-Storage.news.

Highlighting for praise the recent and ongoing expedited LT-1 procurement (which includes “the largest storage specific procurement in Canada”), Energy Storage Canada executive director Justin Rangooni said the government “recognises the critical role clean energy storage resources must play in ensuring reliability, resiliency and helping to reduce Greenhouse Gas (GHG) emissions in Ontario’s electricity grid”.

“It is clear from Powering Ontario’s Growth that energy storage is quickly becoming a critical component of the province’s energy future,” Rangooni said.

“With 2,500MW of energy storage being procured through the IESO’s Resource Adequacy Framework, a renewed commitment to pumped storage, and additional opportunities to enable energy transition, Ontario is quickly becoming a leading jurisdiction for cleantech innovation globally. We applaud these efforts and look forward to continued collaboration with the province and its agencies to sustain a reliable, affordable, and clean energy system.”

Read Energy-Storage.news recent coverage of energy storage industry developments in Ontario here.

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Energix Renewables, First Solar Make PV Module Deal

Asa (Asi) Levinger

Energix Renewables, a company specializing in the development, construction and operation of renewable energy generation projects, has agreed to procure 51 GW DC of ultra-low carbon thin-film solar modules from First Solar Inc. Intended to power Energix projects in Israel, Poland and the United States, the modules will be delivered between 2026 and 2030.

Energix, one of Israel’s largest renewable energy firms with a portfolio of more than 7 GW of projects under development, also contracted First Solar Recycling Services to manage end-of-life handling of decommissioned modules. Prior to this agreement, the company has placed over 3.5 GW DC of orders for First Solar technology since 2017.

“This deal, our largest ever, strongly reflects the long-term strategic partnership we share with First Solar,” says Asa (Asi) Levinger, CEO, Energix. “It also constitutes a significant milestone for Energix’s long-term growth, as we rapidly expand our global pipeline with an emphasis on the U.S.”

First Solar is the first PV manufacturer to have its product included in the Electronic Product Environmental Assessment Tool (EPEAT) global registry for sustainable electronics. Its solar modules have the lowest carbon and water footprint of any commercially available PV module today.

The company’s high-value recycling program will process end-of-life modules from Energix projects. The program provides closed-loop semiconductor recovery for use in new modules, while also recovering other materials including aluminum, glass and laminates.

The largest solar manufacturer in the Western Hemisphere, First Solar is investing approximately $1.3 billion in expanding its U.S. manufacturing footprint from over 6.5 GW DC of annual nameplate capacity currently, to approximately 10.9 GW DC by 2026.

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Germany: System integrator Eco Stor planning 300MW/600MWh BESS

The location was chosen thanks to the presence of an existing substation, which would allow the large grid connection required. It is within the service territory of transmission system operator (TSO) 50 Hertz, one of Germany’s four big TSOs along with TransnetBW, TenneT and Amprion.

The project would comprise six of the company’ ECO STOR ES-50C block configurations, each with a 50MW/100MWh capacity. Each block has a 110kV substation, 16 containers for the inverters and transformers, and 32 containers for the lithium-ion batteries.

A preliminary building permit application is in progress and a decision is expected in the coming weeks, Gallmetzer added. See a render of the project below.

A render of the project, which could come online in 2025:. Image: Eco Stor.

Eco Stor operates out of Norway and Germany and counts Agder Energi Venture and Klaveness Marine Holdings as its main shareholders.

The company has recently deployed and commissioned projects in Germany for investment firm Obton as well as utility Verbund, with both projects developed at the early-stage by Kyon Energy.

This latest project will be larger than the current largest operational system, a 72MW one in Werne deployed and owned by energy firm RWE. RWE is building two which will both surpass it, totalling 80MW/84MWh and 140MW/151MWh, both in North Rhine-Westphalia, for 2024 commissioning.

The largest operational project in Europe by energy capacity is a 196MWh BESS commissioned by investor Harmony Energy in the UK, in late 2022.

Germany now has over 1GW of grid-scale BESS online according to Eco Stor’s figures. While its residential and commercial & industrial (C&I) segments have been very strong, grid-scale projects have only just started to pick up in the last year or two.

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