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A very Finnish thing’: Big sand battery to store wind and solar energy using crushed soapstone

A very Finnish thing’: Big sand battery to store wind and solar energy using crushed soapstone

The battery will be able to store a week’s heat demand in winter – how does it work?

A huge sand battery is set to slash the carbon emissions of a Finnish town.

The industrial-scale storage unit in Pornainen, southern Finland, will be the world’s biggest sand battery when it comes online within a year.

Capable of storing 100 MWh of thermal energy from solar and wind sources, it will enable residents to eliminate oil from their district heating network, helping to cut emissions by nearly 70 percent.

“It’s exciting to build a large-scale thermal energy storage, which will also act as a primary production plant in Pornainen’s district heating network,” says Liisa Naskali, COO at Polar Night Energy, the company behind the innovation.

“This is a significant step in scaling up the sand battery technology.”

 

Sand batteries are getting bigger in Finland

The new 1 MW sand battery has a precursor. In May 2022, Polar Night Energy rigged a smaller design to a power station in Kankaanpää town.

Launched just as Russia cut off gas supplies in retaliation for Finland joining NATO, the project was a timely example of how renewable energy could be harnessed in a new way.

Euronews Green previously spoke to the young Finnish founders, Tommi Eronen and Markku Ylönen, who engineered the technology.

“We were talking about how – if we had the liberty to design a community for ourselves – how could we solve the energy problem in such a confined environment?” Markku said of the inspiration behind Polar Night Energy in 2018.

“Then quite quickly, especially here in the north, you run into the problem of energy storage if you’re trying to produce the energy as cleanly as possible.”

The friends started playing around with ideas, landing on sand as an affordable way to store the plentiful electricity generated when the sun is shining, or the wind blowing at a high rate.

Finding a way to store these variable renewables is the crux of unleashing their full potential. Lithium batteries work well for specific applications, explains Markku, but aside from their environmental issues and expense, they cannot take in a huge amount of energy.

Grains of sand, it turns out, are surprisingly roomy when it comes to energy storage.

The sand battery in Pornainen will be around 10 times larger than the one still in operation at Vatajankoski power plant in Kankaanpää. The start-up also previously connected a pilot plant to the district heating network of Tampere city.

 

So how do sand batteries work exactly?

It’s quite a simple structure to begin with, Polar Night Energy said of its prototype. A tall tower is filled with low-grade sand and charged up with the heat from excess solar and wind electricity.

This works by a process called resistive heating, whereby heat is generated through the friction created when an electrical current passes through any material that is not a superconductor. The hot air is then circulated in the container through a heat exchanger.

The sand can store heat at around 500C for several days to even months, providing a valuable store of cheaper energy during the winter. When needed, the battery discharges the hot air – warming water in the district heating network. Homes, offices and even the local swimming pool all benefit in Kankaanpää, for example.

“There’s really nothing fancy there,” Markku says of the storage. “The complex part happens on the computer; we need to know how the energy, or heat, moves inside the storage, so that we know all the time how much is available and at what rate we can discharge and charge.”

 

How will the sand battery serve residents in Pornainen?

Having refined its charging algorithms, Polar Night Energy is now ready to scale up the storage tech in Pornainen.

Once completed, the new battery will be integrated with the network of Loviisan Lämpö, the Finnish heating company that supplies district heating in the area.

“Loviisan Lämpö is moving towards more environmentally friendly energy production. With the Sand Battery, we can significantly reduce energy produced by combustion and completely eliminate the use of oil,” says CEO Mikko Paajanen.

The project also aligns with Pornainen’s plans for carbon neutrality. Many of its buildings, including the comprehensive school, town hall, and library, rely on district heating.

Mayor of Pornainen Antti Kuusela says the municipality “welcomes all innovative development projects that reduce emissions in district heating operations and contribute to network expansion.”

In total, the sand battery is expected to knock off 160 tonnes of carbon dioxide equivalent emissions per year. As well as weaning the town off oil, woodchip burning is expected to drop by 60 per cent as a result.

The battery’s thermal energy storage capacity equates to almost one month’s heat demand in summer and a one-week demand in winter in Pornainen, Polar Night Energy says.

Construction and testing of the 13 metres high by 15 metres wide battery is estimated to take around 13 months, meaning it should be keeping residents warm well before winter 2025.

 

Is sand a sustainable material?

“We wanted to find something that can be sourced nearly everywhere in the world,” Markku said. But is sand as ubiquitous as we might think?

Demand for the construction material is set to soar by 45 per cent in the next 40 years, according to a recent Dutch study. Building sand is typically extracted from rivers and lakes, and ‘sand pirates’ are speeding up its loss from these ecosystems.

But as far as the Finnish engineers are concerned, it doesn’t really matter where the sand comes from. Though builders’ sand was used initially (to limit transport emissions), sand batteries work with any sand-like material that has a high enough density, within certain thermodynamic parameters.

In Pornainen, Polar Night Energy has found a sustainable material in crushed soapstone; a by-product of a Finnish company’s manufacture of heat-retaining fireplaces.

“Tulikivi is a well-known and traditional company,” says Naskali. “The soapstone they use is a very Finnish thing.”

“We always choose the thermal energy storage medium based on the customer’s needs. Examining and testing different materials is crucial for us to use materials that are suitable in terms of properties, cost-effectiveness, and promotion of circular economy,” she adds.

Polar Night Energy has big ambitions to take its technology worldwide.

As Markku told us back in 2022, “we want to build a hundred times larger storages around the world as fast as possible.”

 

 


 

 

Source  euronews.green

California’s Compressed Air Batteries

California’s Compressed Air Batteries

Engineers and scientists have been developing ways to store unused energy from renewable sources as the world moves from fossil fuels to renewable energy. We’ve seen different types of batteries making their mark, including lithium-ion batteries, pumped hydro, tanks full of molten salt or silicon and more. Now, California has found a way to move past lithium into an even more sustainable battery – compressed air batteries. Compressed air batteries do not require lithium which is expensive and environmentally damaging to dig up. They store energy like solar and wind and are a 24/7 source of clean power for homes and businesses.

In 2021, Hydrostor opened two new compressed air energy storage facilities in California, which provide almost twice the storage capacity. Their facilities use surplus electricity from the grid to run an air compressor. The compressed air is stored in a big underground tank until the energy is needed. When needed, the energy will be released through a turbine to generate electricity that is fed back into the grid. Reheating the air as it is fed into the turbine increases the system’s efficiency.

Hydrosor’s system is optimized for system sizes of over 100 megawatts with 5 hours up to multi-day storage duration. This is longer than the four-hour standard for lithium-ion. Hydrostor projects that it can produce 60% to 65% of the electricity it consumes, which is a larger energy loss than lithium-ion batteries or similar types of storage. Hydrostor says its systems will store up to 10 GWh of energy, providing between eight and 12 hours of energy over a full discharge at close to its maximum rate.

Earlier this year, California’s Central Coast Community Energy (3CE) approved a 25-year contract with Hydrostor to construct a compressed-air energy storage facility, making it the world’s largest compressed-air energy storage project. Two hundred megawatts of energy would help 3CE serve 447 000 customers between Santa Cruz and Santa Barbara with 100% clean and renewable energy by 2030. This project will help California transition off fossil fuels without causing blackouts.

Compared to lithium-ion batteries that degrade and must be replaced every few years, compressed air batteries can store energy for decades without any loss of efficiency. Compressed air batteries are significantly more expensive than lithium-ion, but the battery’s longevity will outweigh the cost.

Hydrosor has figured out a way to capture and reuse the heat generated when the air is compressed, which means no gas needs to be burned. The company also found a way to dig caverns out of rock rather than salt. These projects have been used elsewhere in places with underground salt domes, but they depend partly on natural gas to heat compressed air as it leaves caverns to make it more efficient. Digging caverns out of rock opens up the possibility of compressed air battery storage worldwide.

3CE’s partnership with Hydrosor will allow for California’s renewable energy to be clean and sustainable. These compressed-air batteries will protect the planet and the people of California and will be an example for other states to implement.

 

 


 

 

Source Happy Eco News

Aquifer Thermal Energy Storage for Renewables

Aquifer Thermal Energy Storage for Renewables

It’s Not All About Energy Generation

When the topic of decarbonization comes up, oftentimes, we think of transportation or energy generation. These issues are important, as vehicle emissions are a major problem, as well as emissions from fossil fuel power generation. However, while important, these issues only partially show the roadblocks to moving towards a green future.

Another component that needs to be addressed in the conversation is energy storage and efficiency in renewable energy.

Wind and solar energy are important and rapidly developing technologies but are dependent on weather conditions that vary from month to month and from year to year. In colder months, when houses need to heat, that is when significantly less sunlight is present, thus driving down the available energy to heat them.

This is why energy storage is crucial to the conversation regarding renewable energy, but other solutions might mitigate this problem if properly implemented. This is how aquifer thermal energy storage (ATES) could help assist in cooling and heating buildings, reducing the reliance on other renewable energy sources.

How About Aquifer Thermal Energy Storage?

Energy storage is a difficult topic to address, as the technologies required to implement large-scale grid energy storage require, ironically, a lot of energy. This isn’t helped by the fact that hydrogen energy storage systems right now lose a significant amount of the energy stored.

This is why reducing the grid energy demand is important to implement renewable energy systems successfully. Aquifer thermal energy storage is an interesting form of renewable energy specific to the heating and cooling of buildings because it ties in directly with the seasons that affect solar energy so much.

It works by utilizing two wells connected to the same groundwater reservoir. Cold groundwater is pumped up to cool the building during the summer, then stored. The same process happens in winter but in reverse. Warm groundwater is pumped up into the building, then stored.

Aquifer thermal energy storage systems can also store excess heat from industrial operations, similar to the geothermal systems being deployed in decommissioned oil wells. This process can help bridge the gap between the seasonal availability of renewable energy while at the same time decarbonizing the heating and cooling sector.

This system is also useful because it can make energy infrastructure more resilient by reducing the demand currently placed upon it by heating and cooling. According to a study in Science Direct, Aquifer thermal energy storage systems could reduce reliance on fossil fuels for energy by up to 40%.

New Tech can Help but not Solve Inherent Limits

The importance of renewable energy in the transition to a greener world cannot be understated. However, it is also important to recognize that there are limitations to the technology currently available.

Going forward, there are certainly ways that renewable energy, specifically solar, can become more efficient; the issue of seasonal availability will always be there. This is why alternative methods of addressing needs like heating and cooling are as important.

The issue of energy storage is also important because bridging the gap between availability and need is necessary for making renewable energy a viable alternative to our current fossil fuel energy generation system.

 

 

 


 

 

 

Source Happy Eco News

 

Centrica plans battery storage, solar and hydrogen at former gas power plant

Centrica plans battery storage, solar and hydrogen at former gas power plant

British Gas owner Centrica has today (24 January) confirmed that it has acquired the four-acre site for the former Knapton Generating Station, near Malton in North Yorkshire, from Third Energy.

Gas-fired power generation ceased at Knapton in late 2019, as Third Energy had fired the plant using fracked gas before the UK Government imposed a moratorium on fracking. Third Energy was initially planning to create a low-carbon ‘energy park’ at the site but Centrica, as new owner, is now taking up that mantle.

Centrica has proposed the creation of a 28MW battery energy storage facility on the site. The facility will be developed in stages and the first part will be a 56MWh grid-connected battery. Centrica claims that this battery would be able to power 14,000 homes for two hours.

Centrica has also confirmed that it will explore the potential for installing solar panels in the surrounding area. A co-located battery with renewables like solar can help overcome the challenge of intermittent generation, storing generated electricity when conditions are favorable and demand is low, then providing the electricity to the grid during times of low generation and high demand.

Additionally, Centrica will investigate whether Knapton would be a suitable location for off-grid hydrogen production.

 

SSE Renewables

In related news, SSE Renewables has opened a public consultation on plans to co-locate battery energy storage and solar panels with its existing Richfield Wind Farm at Bridgetown in County Wexford, Ireland.

Richfield (pictured) is an 18-turbine wind farm that has been operational since 2006. It has a total generation capacity of 27MW.

 

 

SSE Renewables is seeking to develop a 21MWp solar farm on lands near the wind farm. It also wants to develop a co-located 10MW battery energy storage system which, like Centrica’s, would be able to power thousands of local homes for two hours.

The proposed solar farm would be located in the townlands of Hooks and Yoletown while the proposed battery energy storage system would be co-located adjacent to the existing substation at Richfield Wind Farm. SSE Renewables intends to submit a planning application to the County Council this spring, following a full public consultation.

SSE Renewables will need to, also, apply for permission for grid connection. At present, Ireland does not permit grid connections for ‘hybrid’ technologies, where projects are co-located.

“While some regulatory hurdles still need to be overcome to allow for hybrid grid connections, we’re ready at SSE Renewables to work closely with key government and regulatory stakeholders so that we can remove any remaining barriers and support the delivery of important solar and battery technology projects co-located at wind farm sites,” said the business’s onshore renewables development and construction director Heather Donald.

Ireland is notably aiming to generate 80% of its electricity from renewable sources by 2030, Wind is currently the leading renewable generation method for Ireland.

 

 


 

 

Source edie

How automotive batteries are being turned into solar power storage

How automotive batteries are being turned into solar power storage

As concern over climate change and the need for clean energy sees an increasing number of people switch to electric cars, these vehicles are fast gaining a larger market share.

But some experts are asking how green the batteries that run them really are?

They’re raising questions about the environmental impact of lithium mining, respect for human rights and alleged child labour in cobalt mines, the high energy costs of production, and a recyclability rate of barely 10%.

Rita Tedesco, ECOS Head of energy transition says that the recycling of materials of batteries “at this moment is neither interesting for recyclers nor for manufacturers because it’s much cheaper to extract virgin materials than to recycle them.”

But a Spanish company is trying to give used car batteries a ‘second life’.

As part of the EU project, Stardust, its reconditioning them to store solar energy, adding at least 10 years to their life.

Critics say European Union legislation on sustainable practices in battery recycling is largely outdate.

But discussions are currently underway on proposed legislation which could regulate the production chain from extraction to the recycling and reuse processes.

Watch the video in the player above.

 

 


 

 

Source euronews

 

Plans in the works for UK’s first lithium refinery and largest battery recycling facility

Plans in the works for UK’s first lithium refinery and largest battery recycling facility

Business Secretary Grant Shapps has been in the North East today (7 November) for both of the announcements, made by Green Lithium and Altiluim respectively.

Green Lithium has announced that Teesport, Middlesborough, will be the location for its refinery. The facility will provide materials to industries such as automotive, energy storage and consumer technology. It will employ around 1,000 people during the construction phase and 250 in its operations.

 

 

The UK Government has provided Green Lithium with more than £600,000 of grant funding for its work, in a bid to ensure that the UK remains competitive as the net-zero transition continues, and to help make supply chains more resilient. 89% of the world’s lithium processing currently takes place in East Asia.

Shapps said: “We know that geopolitical threats and global events beyond our control can severely impact the supply of key components that could delay the rollout of electric vehicles in the UK.”

Green Lithium has stated that the proposed facility will produce 50,000 tonnes of battery-grade lithium each year once it enters full operations. It wants to begin production in 2025. The firm takes its name from the fact that its refining process claims to produce 80% less greenhouse gas emissions.

 

Battery recycling

Green Lithium’s plan, in the long-term, is to co-locate the refinery with battery recycling capacity.

In related news, cleantech start-up Altilium has announced plans to build the UK’s “largest planned recycling facility” for electric vehicle batteries after the Government confirmed a total of £3m of grant funding.

A decision for the final location of the plant will be made in 2023, the company has stated, and an 18-month construction period is envisioned. As such, it is aiming for a 2025 start-date for production.

Altilium has stated that Teesside’s status as a freeport, the support of local authorities and the fact that there are skilled workers in chemical processing in the region were all key factors in its decision on location.

Just last week, Britishvolt, which is currently constructing a gigafactory for car batteries near Blyth, avoided collapse by securing £1.7bn of additional funding. The gigafactory is now set to open in the last half of 2025. The firm blamed “difficult external economic headwinds including rampant inflation and rising interest rates,” for its challenges.

 


 

Source edie

Made in America: A lithium supply chain for EV batteries

Made in America: A lithium supply chain for EV batteries

With the U.S. supplying 1 percent of the world’s lithium, there’s nowhere to go but up.

About 30 miles east of Reno, Nevada — past Tesla’s sprawling Gigafactory battery plant and the arid dusty grasslands of Northern Nevada — a startup is developing a large factory that could help unlock lithium, a key ingredient in electric vehicle batteries, from the earth.

The six-year-old company, Lilac Solutions, makes small white beads that can extract lithium from salty water deposits called brines, found around the world in places such as Argentina and Chile — and also Nevada and California. So-called ion-exchange beads are already used for various industrial applications such as cleaning water, but these are the first used for extracting lithium.

The U.S. is a bit player in the global lithium mining and processing game, dwarfed by other countries. The U.S. produces about 1 percent of the world’s lithium, while Australia, Chile, Argentina and China collectively produce over 90 percent. For decades, the only lithium that trickled out of the U.S. came from a small mine in Nevada run by chemical company Albemarle.

But as global sales of EVs have begun to rise dramatically — expected to grow from just under 10 percent of new passenger vehicle sales in 2021 to 23 percent by 2025 — lithium demand has gone through the roof. The global demand for lithium is expected to rise from 500,000 metric tons of lithium carbonate equivalent in 2021 to 3 to 4 million metric tons by 2030. The problem is clear: Relying on other countries for essentially all the critical minerals that make up EV batteries is not just a liability, it’s a missed opportunity.

That’s why a collective effort is underway to shift the tectonic plates under the world’s lithium supply chain to include the U.S. Mining giants, automakers, tech startups, lithium speculators, state and local governments and the Biden administration have all been trying to kickstart America’s domestic lithium initiatives. New lithium projects, from mining to processing, are proposed across states including California, Nevada, North Carolina, Tennessee and Maine.

American automakers including General Motors, Tesla and Ford will need hundreds of thousands of tons of lithium to meet growing demand for lithium-ion-powered electric vehicles.
Earlier this month, President Joe Biden unveiled a plan to dole out close to $3 billion in grants to 20 companies that are manufacturing, processing or mining key minerals, including lithium, for electric vehicle batteries. Lilac Solutions was chosen to negotiate a $50 million grant to help build its planned factory in Fernley, Nevada, near Reno.

The Biden administration’s Department of Energy funding follows the newly established law, the Inflation Reduction Act, which ties some tax credits for electric vehicles to battery minerals that are extracted, processed or recycled in the U.S. This spring the administration also used the Defense Production Act to increase the American production of battery minerals.

While China, Australia, Chile, Argentina and others are likely to dominate the lithium supply chain for the foreseeable future, domestic U.S. sources for mining, processing and recycling lithium will be important to help bolster the emerging American EV industry.

 

Mine the brine

Lilac, founded in 2016 and based in Oakland, California, has been quietly attracting interest from mining partners such as Australia’s Lake Resources as well as big-name investors. Last year, the company closed on a $150 million round of series B funding from Bill Gates’ Breakthrough Energy Ventures and Chris Sacca’s Lowercarbon Capital. Lilac’s investors also include T. Rowe Price, MIT’s The Engine and Tesla backer Valor Equity Partners.

The startup has drawn a who’s who of funders because of its potential ability to unlock lithium from the world’s brines. Much of the current global lithium supply is dug out of hard rock in mines like in Australia. But there are untapped resources in salty water deposits, where the lithium exists in low concentration and the mixture has high impurities. Lilac says its beads can suck out the lithium from the solution and leave the rest of the brine mixture intact to be returned back to the environment.

The massive brine lithium mines of South America — found in places such as Chile’s Atacama desert — use huge amounts of water and land and take 12 to 18 months to produce lithium through solar evaporation. A technology like Lilac’s could offer a more efficient, more sustainable method across a much smaller footprint.

Part of Lilac’s Series B funding is being spent on getting the Fernley factory into production, Lilac CEO Dave Snydacker told GreenBiz last month. The $50 million from the DOE will help accelerate production, and the agency said Lilac’s funding will create 150 new jobs.

Snydacker said the plant will come online in phases over the next two years and eventually will be able to make enough beads to support the extraction of 200,000 tons per year of lithium. That’s the equivalent of close to half of the amount of lithium produced globally last year. The funding doesn’t just add to Lilac’s war chest, it also adds validation and the spotlight of the White House.

At the event where Biden unveiled the EV battery minerals grants, 10 executives of companies, many of them startups, appeared behind Biden on a screen and four made remarks about how the funding would be used. Three of the four speakers were leaders of lithium production and processing companies: Albemarle; American Battery Technology Company; and ICL-IP America.

Albemarle plans to use a $150 million grant from the DOE to build a lithium concentrator plant at a mine in Kings Mountain, North Carolina. A concentrator increases the amount of lithium per volume and is one step in the process to get it ready to put into batteries. When it’s up and running, the Kings Mountain lithium supply chain would be able to produce and process enough lithium for 750,000 electric cars per year.

It makes sense for U.S. companies to try to tap into domestic lithium when it’s done sustainably and in a sensitive way for local communities.
Albemarle is also doubling the size of its lithium mine, Silver Peak, in Nevada, about 200 miles southeast from Fernley and Tesla’s Gigafactory. In Nevada alone, there are 17,000 prospecting claims for lithium, the Guardian recently reported.

 

Long road for U.S. lithium

Becoming a player in the global lithium supply chain won’t be easy for U.S. stakeholders. Companies looking to build new mines or reopen older ones face lengthy environmental review processes and are often challenged by local Indigenous communities. And rightly so, mining companies have long histories of polluting lands and neglecting the needs of groups that might use the lands as sacred sites, communal purposes or for hunting and fishing.

Most of the domestic critical mineral deposits needed for EV batteries — lithium, cobalt, nickel, copper — are near Native American reservations. Lithium Americas Corp. has faced resistance from both Native American tribes and environmentalists over its proposed lithium mine, Thacker Pass, in Nevada. By some estimates, Thacker Pass could contain the largest hard rock lithium deposit in the U.S.

American automakers including General Motors, Tesla and Ford will need hundreds of thousands of tons of lithium to meet growing demand for lithium-ion-powered electric vehicles. The industry won’t be able to source all of that domestically and fast enough, and South American lithium mines are likely to play a key role in the growing American EV boom.

But it makes sense for U.S. companies to try to tap into domestic lithium when it’s done sustainably and in a sensitive way for local communities. Investors are eager to put money into U.S. lithium initiatives — it can be cheaper to finance U.S. projects versus international ones — and there are shipping efficiencies if mining, processing and battery production projects can all be on the same continent.

With America supplying just 1 percent of the world’s lithium, there’s nowhere to go but up when it comes to American-made and -processed lithium. And for Lilac Solutions, if the technology works economically at a commercial scale as its supporters hope it does, its Nevada factory could be a key way for an American-made tech to be the one to help unlock the world’s lithium.

 

 


 

 

Source GreenBiz

Fonterra trials sustainable organic battery at UHT plant

Fonterra trials sustainable organic battery at UHT plant

Fonterra has partnered with US energy storage company, PolyJoule, to trial an industrial-scale organic battery at its Waitoa UHT site in New Zealand.

Made from electrically conductive polymers, the battery is an organic-based compound that acts like a metal. Fonterra describes it as a low-cost, sustainable and long-life battery capable of providing energy security and distributed electricity generation in the country.

The battery was first installed last year on a Fonterra farm at Te Rapa, where it was cycled daily, supporting dairy shed operations for ten months. With the move to the co-op’s Waitoa UHT site, the battery can be hit by power disturbances leading to downtime and waste.

Fonterra COO, Fraser Whineray, said: “As a significant electricity user at about 2.5% of the national grid, a sustainable and secure electricity supply is vital to the co-operative’s local sales and exports”.

 

 

He continued: “At Fonterra, we have a strategy to lead in sustainability, and innovation partnerships are a critical ingredient to achieving this. The PolyJoule battery has a remarkable discharge rate, which may ultimately link with ultra-fast charging our fleet, including Milk-E, our electric milk tanker.”

PolyJoule CEO, Eli Paster, commented that he “sees great opportunity for growth in New Zealand both in terms of supporting energy security and job creation in the manufacturing and technology sectors”.

He continued: “We both have sustainability front and centre of our strategy and understand the importance of a reliable, green supply of electricity for quickly chilling the raw milk on farm, processing and distribution…Since PolyJoule batteries do not rely on lithium, nickel or lead, the materials are easier to source, and the batteries are safer and easier to manufacture anywhere in the world, including New Zealand.”

“When you look at where the grid is heading, and the number of batteries needed for the region, building a manufacturing base in New Zealand could create hundreds of new jobs and a new green energy hub.”

 


 

Source  FoodBev Media

 

Barbados creates national energy storage policy, eyes billions of investment

Barbados creates national energy storage policy, eyes billions of investment

The government of Barbados has created a national energy storage policy and sees billions of investment potential in the sector, a minister has said.

Minister of Energy Kerrie Symmonds said on Monday (22 August) that the government had created the policy with the anticipation that storage would be the next frontier in renewable energy investment, according to local news outlet Barbados Today.

The most significant part of the policy is that all large-scale renewable resources, “such as five or ten megawatts”, Symmonds said, would have to include energy storage.

The plan is to have centralised energy storage assets owned by utilities as well as privately-owned systems, including small systems owned by households, for which the government has so far granted 4,000 licenses.

Speaking in the annual general meeting of the Barbados Renewable Energy Association (BREA), Symmmonds said: “It is anticipated that energy storage systems will be unlocking US$3.5 billion in investment for this country. Government does not contemplate a single storage solution but instead is contemplating several grid-related services.”

Energy-Storage.news has asked the Barbados government’s communications department if the quoted figure is US dollars or Bajan dollars, the latter of which would equate to US$1.75 billion based on today’s exchange rate of 1:0.5, and will update the story in due course.

Symmonds continued: “Services which reduce or eliminate the need for energy curtailment will be of the greatest interest to the Government and will also be a type of service that should be of the greatest interest to independent power producers and investors.”

As Energy-Storage.news reported earlier this year, Barbados is targeting 100% renewable energy use and carbon neutrality by 2030. In April, the Inter-American Development Bank issued a request for expressions of interest (IOE), on behalf of the country, for consulting services to help develop a competitive procurement framework for utility scale renewable energy capacity and energy storage.

It emphasised that the government wished the procurement to be technology-agnostic, something also alluded to in Symmonds’ recent comments.

 


 

Source Energy Storage News

Tesla maintains 2030 target of 1,500GWh annual energy storage deployment

Tesla maintains 2030 target of 1,500GWh annual energy storage deployment

Tesla is still aiming for annual energy storage deployments of 1,500GWh by 2030, which would require an average CAGR of 90% over the decade; something it achieve in the first quarter of this year.

The target was outlined in the previous impact report (2020) and repeated in its latest report for 2021. It is 375 times higher than last year’s deployment figure of 4GWh.

The target is certainly ambitious given it is nearly ten times what BloombergNEF reckons the entire global energy storage market by annual deployments will be by that point; 58GW/178GWh.

Tesla would need to maintain its current growth trajectory to reach its target, which implies a 93.4% CAGR from 2021 to 2030. The company’s storage deployments increased by 90% in the first quarter of this year, despite supply chain constraints.

 

Tesla’s Megapack, which have a maximum capacity of 3MWh per unit, continue to be selected for projects around the world. Image: Courtesy of Arevon.

 

By the end of the decade, it also aims to be selling 20 million EVs, which is more than 20x its 2021 figure of 940,000.

The Austin-headquartered company sells its home energy storage solution, the 13.5kWh Powerwall, as a product, which complements its solar roof and EV charging solutions. Its utility-scale energy storage solutions are the Power Pack and Megapack, the latter of which starts at 3MWh per unit.

It was recently revealed that it will supply Power Packs to sister company SpaceX for an expansion of the on-site energy sources at its Starbase launch facility in Texas, while its Megapack unit was used in a recently-commissioned 730MWh battery energy storage system (BESS) at Moss Landing.

That 4GWh figure achieved in energy storage last year gave it a market share of over 15% of the global market last year of 25GWh, Tesla said, citing S&P Global figures. BloombergNEF’s slightly lower estimate for the 2021 market gives Tesla a higher market share, of 18.2%.

 


 

Source Energy Storage News