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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

Apple aims for 100% recycled cobalt in batteries by 2025

Apple aims for 100% recycled cobalt in batteries by 2025

Apple has unveiled plans to increase the use of recycled materials in its products, with a new target of using 100% recycled cobalt in all Apple-designed batteries by 2025.

The tech giant will also aim to use entirely recycled rare earth elements in magnets for its devices and 100% recycled tin soldering and gold plating in all Apple-designed printed circuit boards by the same year.

“Every day, Apple is innovating to make technology that enriches people’s lives, while protecting the planet we all share,” said Tim Cook, Apple’s CEO. “From the recycled materials in our products, to the clean energy that powers our operations, our environmental work is integral to everything we make and to who we are. So we’ll keep pressing forward in the belief that great technology should be great for our users, and for the environment.”

 

Reducing Apple’s carbon footprint

The announcement is part of Apple’s broader efforts to reduce its carbon footprint and become more environmentally friendly.

In 2022, the company significantly expanded its use of recycled metals, with over two-thirds of all aluminium, nearly three-quarters of all rare earth materials, and more than 95% of all tungsten in Apple products sourced from 100% recycled material.

Apple’s rapid progress in this area brings the company closer to its ultimate goal of making all products with only recycled and renewable materials and advances its aim to achieve carbon neutrality for every product by 2030.

“Our ambition to one day use 100% recycled and renewable materials in our products works hand in hand with Apple 2030: our goal to achieve carbon neutral products by 2030,” said Lisa Jackson, Apple’s vice president of Environment, Policy, and Social Initiatives. “We’re working toward both goals with urgency and advancing innovation across our entire industry in the process.”

If Apple is able to achieve this goal, it will show major steps towards achieving a more sustainable future for the company.

 

 


 

 

Source Sustainability

Air Conditioning in a Camping Tent – Just Add Water

Air Conditioning in a Camping Tent – Just Add Water

The fabrics currently used to make tents are engineered to block out winds and water to help keep their inhabitants dry and comfortable, but they tend to work both ways, preventing hot air from escaping from the tent. The tent can feel sweltering, even with plenty of ventilation.

You can always pack a portable air conditioner to drop the temperature inside your tent, but those require an ingredient that is often in short supply at rural campsites: electricity. Running a portable AC unit or even a simple fan on a solar panel for an extended period is impossible, and you do not want to carry batteries in your backpack.

Al Kasani, a researcher at the University of Connecticut’s Center For Clean Energy Engineering, drew inspiration from the way plants wick water from the ground and then sweat to cool themselves. Subsequently, he designed a self-cooling tent fabric that retains its thin and lightweight nature; with an added twist – it is fortified with titanium nanoparticles that absorb moisture from reservoirs at the base of the tent. This releases water across its surface, rapidly evaporating, resulting in a cooling effect that reduces internal temperature by up to 20 degrees.

Using either water sourced from a faucet at a campsite or water drawn from a stream in a rural setting, Kasani estimates that a gallon of water can keep a tent cool for up to 24 hours. You don’t need purified, clean water, evaporative cooling works with any water.

This upgraded fabric won’t be available in camping gear for a while—the material is still in the research phase—but according to the university, “industry interest has been high in Kasani’s technology.”

It will be interesting to see this type of product enter the mainstream. Any success with a passive cooling system like this will have spinoffs that can help in other ways. Suppose you can cool a camping tent by 20 degrees. In that case, you could also provide cooling shelters to protect vulnerable people living on the streets without access to air conditioning. A similar protection could be created for refugees or hospitals in hotter regions. Advances in technology might even find a way to use it to cool traditional buildings and reduce energy costs in warehouses. The potential is almost endless.

 

 


 

 

Source Happy Eco News

Old Growth Trees Sequester More Carbon, Help Prevent Wildfires

Old Growth Trees Sequester More Carbon, Help Prevent Wildfires

As we progress through the 21st century, one of the most important issues of our time is carbon. We create much of it by burning fossil fuels, extracting natural resources, or simply by living our day-to-day lives; we create carbon.

We create much more of it than we should, and the research into climate change backs this up. Many of us have devised innovative ways to counteract and slow down our carbon output, while good solutions are ultimately artificial. As it turns out, nature is our most important ally in fighting the devastating effects of climate change.

According to Frontiers in Forests and Global Change research, old-growth large-diameter trees are the most important carbon sinks we have and are significantly more effective at removing and storing carbon from our atmosphere than any other technology we have available in the present day.

Oregon, USA, and the Blue Mountains Complex region, in particular, has been world-renowned for its natural beauty and resources for hundreds of years. The timber industry makes up much of the natural resource extraction sector. However, despite this fact, this area significantly lacks protections guaranteeing the safety of its natural beauty from those who would profit from taking what is there until there is nothing left.

One of the central issues for those living in Oregon is wildfires, which destroy land and towns and devastate those living there. Thus, “chainsaw medicine,” as it’s called in the region, is implemented to reduce the number of trees that can be burned to safeguard their communities from destruction and to turn a profit at the same time. However, recent developments in research in forestry have concluded that this might actually be accelerating the problem and making it worse, not better.

Large-diameter trees comprise only 7% of the total number of trees in the Blue Mountains Complex, yet they sequester 50% of the carbon emitted in the region into their bodies. These trees are incredibly carbon-dense and eat up the carbon in the atmosphere cleaning the air and providing important stability to the soil that prevents landslides.

On top of that, trees that are standing or dead actually prevent wildfires due to wind and humidity. The two main contributors to massive wildfires that spiral out of control are dry, windy conditions that lead sparks that would otherwise be contained and extinguished to engulf an entire forest. The forestry industry cuts down large swaths of the forest leading to large open areas with no shade to regulate the temperature and no obstructions to the wind that blows through freely.

And while global climate change does make historic wildfires much worse than they otherwise would be, indigenous peoples for hundreds of years used controlled burns in order to modify their landscape and regenerate the soil that benefits from ash in the dirt.

This new research has the capability to seriously challenge the conventional view on wildfires, as legislation is currently being introduced that can protect the pristine forests of Oregon from the industry that seeks to extract the trees and release all that carbon that otherwise would be contained in the bark.

As the world changes and new technologies are being developed and implemented in order to address our climate crisis, mother nature once again proves to us that often the right choice is to use what we already have. We like to believe that we are the most ingenious and intelligent life on the planet, but ultimately we come from the dirt and will return to it.

It only makes sense that we should begin respecting the solutions that come from the ground and dig our roots deeper to protect what is already here. New legislation that can bring about what is good for the environment has to be of top priority because, at the end of the day, we are not defending nature; we are nature defending itself.

 

 


 

 

Source Happy Eco News

Schneider Electric moves forward on sustainability plan

Schneider Electric moves forward on sustainability plan

Schneider Electric – a European multinational based in France that produces specialised digital automation and energy management solutions – has been making headway in the march of electricity use. All and all, it is part of a grand plan of sustainability for the company.

In a sustainability impact report covering the years 2021-2025, the company has laid out a number of targets which it hopes to achieve. Among these are the following: 80% green revenue; saving 800 million tonnes of CO2 emissions for its customers; having 1,000 top suppliers to reduce emissions by 50%; getting 50% of green material into its products; and having all of its packaging free from single-use plastic.

 

A new approach to PE

Lately, Schneider has been doubling down on its efforts.

Last month it introduced ‘Innovation at the Edge,’ in which it seeks to partner with, invest in and incubate start ups via its venture capital fund, SE Ventures. Pivoting on its strengths, the fund aims to address the problems of the future. As it said in a statement: “We know to solve the climate crisis the world must become more sustainable, digital and electric. We also know the technologies exist today, but we have to move faster. Therefore, we pursue combinations of climate technology that address this challenge, and initiatives and business models to speed their deployment.”

Another measure Schneider has adopted to spur sustainable transformation is its Industrial Digital Transformation Consulting and Deployment Service, itself launched just last week. The remit of this “specialised global service” is, according to a press release, “to help industrial enterprises achieve future-ready, innovative, sustainable, and effective end-to-end digital transformation.”

Among the areas in which it hopes to guide its clients are in discovery, diagnosis, strategy, design, implementation, and ongoing customer success.

According to Marc Fromager, SVP Industrial Automation Services, Schneider Electric: “Successful industrial digital transformation requires a global vision that is agile enough to support local neds. Successful programmes encompass efficiency, sustainability, and employee empowerment, underpinned by robust cybersecurity.

“What elevates Schneider Electric isn’t our unmatched combination of digital transformation experience across a myriad of industries, supported by our world-leading energy management and automation technology and software – all delivered by local experts with the full backing of our global teams.”

 

 


 

 

Source Sustainability

‘No time to waste’: Tokyo makes solar panels mandatory for nearly all new homes

‘No time to waste’: Tokyo makes solar panels mandatory for nearly all new homes

Nearly all houses in Tokyo will have to install solar panels after April 2025.

The regulation – passed by the Japanese capital’s local assembly on Thursday – requires 50 major construction firms to equip homes of up to 2,000 square metres with renewable energy power sources.

The rule will help the city transition to green energy, city counsellors declared.

“In addition to the existing global climate crisis, we face an energy crisis with a prolonged Russia-Ukraine war,” said Risako Narikiyo, a member of the local assembly.

“There is no time to waste.”

 

Why is Tokyo making solar panels mandatory?

Tokyo is the world’s largest city, with a population of nearly 14 million people in its central metropolitan area. Per year, its residents emit an average of 8.6 tonnes of CO2 each.

The IPCC recommends that to meet our decarbonisation goals we should exceed no more than 2.3 tonnes of carbon each, per year.

Tokyo hopes to bring down its emissions footprint significantly in the coming decades. The city’s Metropolitan Government aims to halve greenhouse gas emissions by 2030 compared with 2000 levels, and to be emission-free by 2050.

But Tokyo lags in its uptake of renewable energy. Just four per cent of buildings with the capacity for solar panels currently have them.

The new rule will help change this.

Overall, the measure will save residents money, the metropolitan government says.

The 4 kilowatt panels will cost around 980,000 yen (€6,725) to install, but the government estimates that this will be covered by electricity sales revenue within 10 years. Subsidies will reduce this pay off time to around six years.

 

 


 

 

Source euronews.green

Clean energy developer Low Carbon to build 75MW of new solar projects

Clean energy developer Low Carbon to build 75MW of new solar projects

Solar plants planned for Buckinghamshire, Derbyshire, and Essex hailed as an ‘important addition’ to developer’s growing portfolio
Renewables developer Low Carbon has announced it is to build three large-scale solar farms in England using a multi-bank financing facility from NatWest, Lloyds Bank, and AIB.

The company said the plants, which have a combined capacity of more than 75MW are to be funded through the new financing facility, which was set up in September with the aim of supporting 1GW of new renewable energy capacity.

Work on the 23.4GW Fox Covert Solar Farm in Buckinghamshire is due to commence immediately, while work on the other two sites – the 28.8MW Inkersall Road Solar Farm in Derbyshire an the 23MW St Clere’s Solar Farm in Essex – will start next year, according to the update.

Roy Bedlow, CEO and founder of Low Carbon, said the rapid creation of renewable energy capacity would help protect homes and businesses from soaring energy prices. “Only by accelerating the rollout of clean, affordable energy can we fully decarbonise and achieve our shared climate goals,” he said. “Today’s announcement also marks an important step towards Low Carbon’s own strategic targets of net zero and 20GW of new renewable energy capacity by 2030.”

Low Carbon said the projects were “an important addition” to its growing project portfolio in the UK, Europe and North America and would help avoid approximately 16,000 tonnes of CO2e emissions annually.

Bouygues Energies & Services will deliver the design an build of all three projects, according to the update.

The announcement comes as the UK solar farm sector continues to face an uncertain policy environment, with Defra undertaking a review of planning rules that could restrict the development of new projects on agricultural land.

The industry has warned the proposals would seriously restrict new project development while having a negligible impact on food security. Trade group Solar Energy UK has said the mooted reforms could jeopardise billions of pounds of planned investment, drive up energy bills, and undermine energy security.

 

 


 

 

Source BusinessGreen

COP27: UK’s Miliband works towards clean power ‘anti-Opec’

COP27: UK’s Miliband works towards clean power ‘anti-Opec’

With one eye on the halls of power in Westminster and one eye on the hallway at COP27, British Shadow Secretary of State for Climate Change and Net Zero Ed Miliband has said that, under a Labour government, the UK would be prepared to form an ‘anti-Opec’ alliance that would be established to serve the interests of the renewable energy industry.

In the event of an alliance being created, countries would be able to source components more cheaply, increase the use of alternative forms of energy, and increase the export of electricity across increasingly sophisticated grids.

Miliband has pointed to Denmark, the Netherlands, Austria, Portugal, Costa Rica and Kenya as potential partners.

The former leader of the Labour Party – a party that is committed to 100% low-carbon electricity by 2030 – is due to spend the coming days at this year’s UN Climate Conference, which is currently being held in Sharm El Sheikh, Egypt. Among other sundry tasks, he will be spending his time gauging support for this new idea.

Pooling resources

“The potential clean power alliance is like an anti-Opec,” said Miliband to The Guardian. “I say anti-Opec because Opec is a cartel, a group of countries that works together to keep prices high. This would be a way in which countries join together to be the vanguard and say, ‘We’re going to deliver on clean power and it will help to cut prices, not just for us but for others.’”

Among the greatest sources for optimism in this proposal, so Miliband has said, is the decline in prices for renewables seen over the last decade. “It is now cheaper ro save the planet than to destroy it,” he said.

The Labour Party platform already has a number of policies on it that will help alleviate the burden of the climate crisis on both the UK and the world, among these being a promise to lift a ban on onshore windfarms that has been in effect since 2015 as well as a cessation to the granting of oil and gas licences in the fossil fuel-rich North Sea.

 

 


 

 

Source Sustainability

 

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

Major milestone for Greek energy as renewables power 100% of electricity demand

Major milestone for Greek energy as renewables power 100% of electricity demand

Renewable energy met all of Greece’s electricity needs for the first time ever last week, the country’s independent power transmission operator IPTO announced.

For at least five hours on Friday, renewables accounted for 100 per cent of Greece’s power generation, reaching a record high of 3,106 megawatt hours.

Solar, wind and hydro represented 46 per cent of the nation’s power mix in the eight months to August this year, up from 42 per cent in the same period in 2021, according to Greece-based environmental think-tank The Green Tank.

Green Tank called it, a “record of optimism for the country’s transition to clean energy, weaning off fossil fuels and ensuring our energy sufficiency.”

“European countries like Greece are rapidly accelerating away from fossil fuels and towards cheap renewable electricity. The milestone reached by Greece proves that a renewables-dominated electricity grid is within sight,” Elisabeth Cremona, an analyst at energy think tank Ember, told Euronews Green.

“This also clearly demonstrates that the electricity system can be powered by renewables without compromising reliability. But there remains more to do to ensure that renewables overtake fossil fuels in Greece’s power sector across the whole year.”

 

What’s the big picture for Greece’s energy transition?

It’s a significant milestone in the history of the country’s electricity system, and follows the bright news that renewables fully met the rise in global electricity demand in the first half of 2022.But Greece’s transition to clean energy hasn’t been entirely straightforward.

 

 

Solar panels soak up the sun’s rays at a new photovoltaic park near Kozani, Greece, pictured in August this year.

 

Like other European countries, Greece has cut its reliance on Russian gas following the war in Ukraine by increasing liquefied natural gas (LNG) imports to meet its needs. It has also boosted coal mining, pushing back its decarbonisation plan.

Using IPTO data, The Green Tank finds that renewables – excluding large hydro sources – surpassed all other energy sources, leaving fossil gas in second place as it decreased slightly for the first time since 2018.

Greece aims to more than double its green energy capacity to account for at least 70 per cent of its energy mix by 2030. To help hit that target, the government is seeking to attract around €30 billion in European funds and private investments to upgrade its electricity grid.

It plans to have 25 gigawatt of installed renewable energy capacity from about 10 gigawatt now but analysts say Athens might reach that target sooner.

IPTO has been investing in expanding the country’s power grid to boost power capacity and facilitate the penetration of solar, wind and hydro energy.

 


 

Source  euronews.green