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We're hiring engineers, production associates, process technicians and operator positions at our lithium-ion battery recycling plant located near Reno, Nevada. Join our growing team and help us recycle battery metals that provide a renewable, sustainable, domestic energy source. Visit:

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Taming the Edge: How lithium could help us control #fusion plasmas. This video captures the first flashes of lithium being injected into the #plasma of our ST40 tokamak, marking the start of our exploration into its effects. Why lithium? In fusion research, we aim for H-mode, a high-performance state with improved plasma confinement. Future fusion power plants are expected to operate in this mode. But H-mode brings a challenge: ELMs (Edge Localised Modes) are bursts of energy at the plasma edge, similar to mini solar flares. These can reduce plasma temperature and damage the divertor with intense heat and particles. Pioneering work by PPPL and others has shown that lithium can suppress ELMs and increase energy confinement time, leading to higher temperatures. On ST40, we’re currently injecting lithium powder during plasma shots to explore its effects. As part of our upcoming ST40 LEAPS upgrade – in partnership with the U.S. Department of Energy and Department for Energy Security and Net Zero – we’ll go further, coating plasma-facing components with solid lithium using the ‘lithium evaporation’ technique. We’ll be experimentally testing several mechanisms. One key focus is how lithium absorbs hydrogen isotopes and reduces their recycling back into the plasma, lowering the density at the plasma edge, leading to a more stable edge pressure gradient. We’re starting to understand more about lithium’s effect on plasma performance, and early results show lithium isn't getting into the plasma core, which is good news for avoiding diluting the fusion fuel in future plants. The physics is complex, and we’re still learning. But each step brings us closer to fusion energy. By incorporating lithium into ST40, the world’s highest field spherical tokamak, we’re advancing our understanding of this critical enabling technology. #Fusion #FusionEnergy #Innovation #Limitless #EnergyTransition

Tokamak Energy

66,652 views • 1 year ago

💎Scientists and engineers from the UK Atomic Energy Authority (UK Atomic Energy Authority) and the University of Bristol (University of Bristol) have successfully created the world’s first carbon-14 diamond battery. This new type of battery has the potential to power devices for thousands of years, making it an incredibly long-lasting energy source. The battery leverages the radioactive isotope, carbon-14, known for its use in radiocarbon dating, to produce a diamond battery. Several game-changing applications are possible. Bio-compatible diamond batteries can be used in medical devices like ocular implants, hearing aids, and pacemakers, minimising the need for replacements and distress to patients. Diamond batteries could also be used in extreme environments – both in space and on earth – where it is not practical to replace conventional batteries. The batteries could power active radio frequency (RF) tags where there is a need to identify and track devices either on earth or in space, such as spacecraft or payloads, for decades at a time, thus reducing costs and extending operational lifespan. “Diamond batteries offer a safe, sustainable way to provide continuous microwatt levels of power. They are an emerging technology that use a manufactured diamond to safely encase small amounts of carbon-14,” said Sarah Clark, Director of Tritium Fuel Cycle at UKAEA. The carbon-14 diamond battery works by using the radioactive decay of carbon-14, which has a half-life of 5,700 years, to generate low levels of power. It functions similarly to solar panels, which convert light into electricity, but instead of using light particles (photons), they capture fast-moving electrons from within the diamond structure. Professor Thomas Scott, Professor in Materials at the University of Bristol, said: “Our micropower technology can support a whole range of important applications from space technologies and security devices through to medical implants. We're excited to be able to explore all of these possibilities, working with partners in industry and research, over the next few years.” A team of scientists and engineers from both organisations worked together to build a plasma deposition rig, a specialised apparatus used for growing the diamond at UKAEA’s Culham Campus. This development is the result, in part, of UKAEA’s work on fusion energy. The expertise gained in fusion research is helping to accelerate innovation in related technologies.

UK Atomic Energy Authority

12,493 views • 1 year ago

ELON MUSK: “I DIDN’T EXPECT THAT… WE’LL WORK HARDER” In 2017, when South Australia was hit with severe blackouts and skyrocketing electricity prices, people were forced to choose between keeping their lights on or putting food on the table When Elon heard about this in an interview, he was moved and acted on it instantly He made a bold promise: to build the world’s largest lithium-ion battery (the Hornsdale Power Reserve) in 100 days, or it would be free He could have stepped back and let Tesla’s management handle the crisis, like most CEOs would. Instead, he took it personally, working days and nights with his team to make it happen In interviews, you could clearly see how genuinely moved he was when he heard about it. This wasn’t just another headline; it was about helping real people, changing lives, and fixing a broken grid His answer was simple: “We’ll work harder.” And he meant it. Tesla finished the job in just 63 days, stabilizing the grid and powering tens of thousands of homes - 37 days before the deadline he had promised Tesla Powerpacks helped stabilize the grid by building the world’s largest lithium‑ion battery at that time and cut cost up to 90%, dramatically improving South Australia’s grid stability People went from fearing blackouts to having reliable electricity backed by clean energy storage This is what sets Elon apart: not just visionary ideas, but the humanity and urgency to solve problems that truly matter, that actually help people, even when nobody’s watching.. Here's the timeline: March 10, 2017: Elon Musk tweets that Tesla can solve South Australia’s energy crisis by installing a 100 MW battery system within 100 days of contract signature, or it’s free July 6, 2017: The South Australian government selects Tesla to build the world’s largest lithium-ion battery September 29, 2017: The grid connection agreement is signed, officially starting the 100‑day countdown November 23, 2017: Tesla announces construction is effectively complete, with regulatory testing beginning immediately December 1, 2017: Official completion and full operation The battery was completed in just 63 days - Musk powered tens of thousands of families with 37 days to spare

X Freeze

93,881 views • 7 months ago

Zack Polanski speaking at the Bakers, Food and Allied Workers Union, "The government are very good at recognising the problems, at recognising the crisis, the supply chain issues, the energy crisis in Iran, the energy crisis from Ukraine" "But very rarely do they seem to have solutions, things to actually do about it. And when they do have solutions, rarely are they solutions of the scale we need" "So if we look at the energy crisis, for instance, we've heard recently that energy bills in this country could go up 200 pound per year, on average for a household" "That's completely unacceptable" "And far too often I don't hear the solutions from the government that are just so obvious to ramp up our investment in renewable energy to make sure that we're insulating every single home in Britain that needs it" "So it is both warm in the winter and cool in the summer as well as creating hundreds of thousands of good green jobs that could be in public sectors that could be unionised so people are paid properly and treated with dignity and, and care and to remove the subsidies from the fossil fuel companies" "The same people who are destroying our planet should not be getting subsidised by the government at a time when we're in the climate crisis" "But as you know, well it's not just an energy crisis, it's a crisis for food too. Because what we've seen in Iran or implicated by Iran is a fertiliser crisis" "We know how devastating and damaging that already is for our supply chains and for the food that we produce" "And this badly needs intervention, it badly needs help. And what did we see this government do? Well, they cut tariffs on chocolates and biscuits" "Now don't get me wrong, there is room to do this and that will provide a small relief for some families" "That's not a long term plan for UK businesses and UK food production" "That's not a Long term plan to invest in resilience and in our food supply chains, in our energy" "It's not a long term plan that takes these issues seriously, not in the next few weeks or months, but goes we need to fundamentally rethink our systems change and how we provide food security as one of the most fundamental things in our society"

Farrukh

31,310 views • 1 month ago

This battery is about to change the world in 3 months, or make this guy a fool | Fred Lambert, Hacker News Donut Lab lit the EV and energy storage industry on fire last week with its announcement of a 400 Wh/kg solid-state battery cell that can last for 100 years. At face value, if true, we are looking at the single most disruptive announcement in the history of the electric vehicle industry and energy storage as a whole. We aren’t just talking about a better motorcycle battery. If the claims of a 5-minute charge, 100,000-cycle life, and ~400 Wh/kg energy density are accurate and scalable, as Donut Lab claims, this is the holy grail of energy storage. Battery breakthrough announcements generally don’t catch fire like this, but Donut Lab’s did because it said that the cell was already in production and will be in a production vehicle, Verge’s electric motorcycle, this quarter. It gave credibility to the claim, pushing everyone to report on it. Now, we have interviewed Donut Lab’s CEO and investigated the technology. At this point, it looks like either this battery changes the world within the next 3 months, or it will make the CEO look like a fool. In this article, we discuss the impact of the battery, whether real or not, as well as clues about the secret sauce behind its chemistry. The Holy Grail of Energy Storage Consider the implications. A battery that lasts 100,000 cycles is effectively immortal in human terms. You could charge it every single day for 270 years, and it would still be working. It means the battery outlives the vehicle, not just once, but ten times over. It changes the economics of transportation entirely: you buy the battery once, and you swap it into your next five cars. The power density required for a 5-minute charge and the 400 Wh/kg of energy density opens the door to commercial electric aviation, a sector currently strangled by the weight and slow charging speeds of lithium-ion. It solves the grid storage problem by offering a medium that doesn’t degrade, meaning utility companies could amortize the cost over a century rather than a decade. If this is real, the internal combustion engine didn’t just die today; it was buried 100 feet deep, and every other battery is not far behind. But, and this is a massive “but”, extraordinary claims require extraordinary proof, and Donut Lab has yet to release that proof. And that brings us to the man making them. The Man Betting His Reputation I spoke with Marko Lehtimäki, the CEO of Donut Lab and Chairman of Verge Motorcycles. My goal was simple: ask him about the chemistry behind his battery and, if that doesn’t work, look him in the eye and figure out if he’s selling vaporware or if he’s sitting on the breakthrough of the century. Marko isn’t a random guy shouting about a battery breakthrough that will change the world. He is a legit entrepreneur. A computer scientist who built a no-coding app builder years before “vibe coding” was even a thing and sold it to SAP. After the successful exit, he became an investor and serial entrepreneur with his biggest, or most well-known, company being Verge Motorcycles, which has real products on the road. By announcing that this “miracle battery” is already in production and will be shipping in customer vehicles within 10 weeks, he is betting his entire personal reputation on this technology. If he misses this timeline or if the specs are fake, Donut Labs and Verge Motorcycles might not survive the credibility loss. He has a lot to lose here. In my article about the battery announcement last week, I noted that Marko’s presentation was incredible. He basically described a perfect battery: record energy density, incredible charge rate, unprecedented longevity, no rare metals, a cost lower than traditional Li-ion cells, and in scalable production right now. Sounds too good to be true? The only thing he didn’t share was details about the chemistry, beyond saying it doesn’t use lithium or other rare metals. What’s the point of protecting the chemistry if the battery is already in production and it will be in a product shipped this quarter? If that’s true, the battery will be reverse-engineered before the snow completely melts. We discussed it with Marko during our interview. His logic is that once the bikes ship, competitors will tear them down and figure it out anyway. But that won’t happen for another 10 weeks or so, and the head start is critical for a technology this disruptive. In the meantime, Donut Lab’s goal with the announcement was to get the attention of OEMs and ship them battery packs for validation. Marko said: We are right now shipping demo packs to OEMs under NDAs and under tight disclosures so that they can test that all of that is true, which serves our business very well [better than disclosing the chemistry]. But these programs with OEMs are likely to take a long time before they become public. Shorter term, there’s Verge Motorcycles shipping bikes with the battery by the end of the quarter. Before that, Marko also said that we should soon see third-party testing of those cells: We rather right now ship it to authorized research and science center that tests everything without opening it and telling everybody what’s in there. In short, we should have a good idea whether the claims are true or not in just a few weeks no matter what. What does Marko, or Donut Lab, have to gain by lying about this? I also discussed this with Marko and the only thing I could come up with is if he happens to be raising capital right now, but he shut that down: There are a million investors chasing us right now, but we are literally not talking to anybody. We tell investors that we can discuss terms after we have done all our disclosures. Marko insisted that Donut Lab is not taking any investment until they have proven their cells work. In short, it’s hard to find an upside for Donut Lab in making this announcement if the claims are not true. It doesn’t mean that they are, but it makes you think. The Investigation: What Is the “Donut Battery”? So, what is the secret sauce? Marko wouldn’t say, but after digging into public records, supply chains, and research papers, I believe we have a pretty good idea. Let me preface this by saying that I’m not a chemist or physicist, but I’ve been a journalist covering electric vehicles for more than a decade, and I’m pretty good at connecting the dots, and in this case, I’ve had the help of a couple of great sources, too. I’m not saying that this is the Donut Lab battery, but since they are not sharing much, we have to speculate, and all evidence points to a Finnish nanotechnology startup called Nordic Nano and its Chief Scientist, Dr. Bela Bhuskute. Donut Lab invested in Nordic Nano in October 2025, just months before this announcement. At the time of writing this, the press release has fewer than 200 views. The announcement went under the radar, and while Marko said that Nordic Nano is more of a “solar company” during our interview, the announcement mentions both solar and energy storage. Dr. Bhuskute’s research at Tampere University focuses on amorphous Titanium Dioxide nanostructures, which could benefit many different technologies, including batteries. It fits the “miracle” specs perfectly: - 100,000 Cycles: Traditional solid-state batteries are crystalline (like a brick wall) and crack when ions rush in. Dr. Bhuskute’s amorphous Titanium Dioxide is disordered (like a sponge) and “breathes,” allowing it to expand and contract without breaking. - 5-Minute Charge: This chemistry stores energy via “pseudocapacitance,” which is basically like Velcro. Ions stick to the surface almost instantly rather than having to burrow deep inside the material. - The Manufacturing: Nordic Nano uses a “nanofluid” printing process for its solar product using the technology. This aligns with Donut Lab’s description of a “clay-like” material that enables an easier manufacturing process. Some call this “battery printing”, which could explain Donut Lab’s ability to bring this to production in record time. When I asked Marko for the volumetric energy density (Wh/L), he claimed he “couldn’t remember”. Volumetric energy density is one of the few specs that Donut Lab hasn’t released. This battery is lighter than lithium-ion, but it could be bigger due to the amorphous nature of the titanium dioxide. However, the CEO claimed it has a higher volumetric density than traditional Li-ion batteries, without providing a specific number. If that’s true, not only could electric vehicles and energy storage switch to this new chemistry, but even personal electronics, such as smartphones. In 2025, Nordic Nano has been making moves, including securing a former large retail location in Imatra, Finland, near the Russian border: It could be where the company has set up production. Following investment from the Finnish government, Nordic Nano had to elaborate a bit on its products and confirmed that it is working on “solar energy systems and energy storage solutions”: The company’s range of products includes two product families: solar energy systems and energy storage solutions: The ultra-thin and flexible solar film collects twice the amount of energy compared to traditional silicon-based solar panels. Solid-state salt batteries are manufactured by printing from nanofluid, which enables the efficient use of space and the production of batteries in varying shapes. Furthermore, the company confirmed that it is using a “screenprinting” manufacturing method. This is not new. Other companies have produced battery cells with this technology with varying degrees of success. It appears that the bet is that the amorphous rather than crystalized titanium dioxide nanostructure could be more easily adapted and scaled with this manufacturing technology. Electrek’s Take I’m naturally skeptical, and this screams “too good to be true”, but I can’t find anything that categorically rejects the claims. I get battery breakthrough announcements in my inbox every week, and most of the time they never amount to anything. If I decide to spend some time researching them and talking to experts, I generally quickly hit a problem or two that make them commercially unviable. This announcement is different. We can’t really investigate the actual breakthrough; we can only speculate about it, since it is guarded. Marko’s logic for guarding the chemistry is sound, and the incentives to lie about what they have aren’t clear if he is not currently raising money. Then, because they claim this is already in production and will be in a deliverable product within weeks, we will know whether the claims are true in short order, and their reputations, especially Marko’s, are on the line. During my interview, Marko didn’t seem too worried about it. It doesn’t sound like someone who needs to quickly figure out how to deliver this, but rather someone who has a couple of aces in their hand and is looking to maximize them. It’s also strange that this innovation and then production quickly comes from a relatively small company. I thought researching Donut Lab would make me more skeptical about the claims, but it’s the contrary. It confirms that their technology stems from years of research, backed by university and government funding for its commercialization. Could it be that this critical research went under the radar and a small electric motorcycle startup in need of a significant bump in energy density stumbled upon it? Then, a savvy entrepreneur quickly found a way to optimize the impact of this potentially groundbreaking tech by spinning out a startup from the motorcycle company to market the battery to a broader market. Maybe? This could be real, or it could be hype. Again, I’m still skeptical, but I can’t point to anything specific that would disprove any claim made about this miracle battery. Again, if this is true, we are talking about a complete reset of the entire energy and transportation sectors. Donut Lab would become one of the biggest companies in the world. A Nobel Prize would be coming to Dr. Bhuskute and her colleagues in the near future. If it’s not, Marko and Donut Lab’s reputation would be destroyed. There might also be a middle conclusion where the battery is nearly as good as they claim, but when you ramp up production, other problems arise, such as scrap, which has been the undoing of another company that recently tried screenprinting batteries. Who knows? But it sounds like we should find out soon. Within weeks, we should get independent verifications of the specs. Then the bikes get delivered within months. You can fake a presentation, but there are things you can’t fake.

Owen Gregorian

123,291 views • 6 months ago

As the world stands on the brink of a technological and economic revolution, India needs a new vision for growth, production, and participation—one that directly addresses our two biggest challenges: the job crisis and the lack of opportunity for 90% of Indians. Jobs come from production, which Make In India has failed to revive. But we have an opportunity with the revolution in energy and mobility - with renewable energy, batteries, electric motors and optics, and AI to bring these together. India must master a central role in this revolution, and boost production to give our youth hope for the future. Although China is 10 years ahead, we can catch up - with the right vision. An INDIA government would realign education, enlist experts, widely spread finance, and align our trade and foreign policies. Production is also the foundation of our national security. In a world where wars are not fought between armies but between industrial systems, our dependence on Chinese imports like motors and batteries puts us at risk. Internally, India is fighting against inequality that is increasing social tensions by excluding the 90%. We must conduct a caste census to understand where Dalits, Adivasis, OBCs and minorities stand today; and with the help of AI understand how best to ensure they have a fair share in the nation’s wealth and opportunities. It is only these two tracks in parallel - production and participation - which will create a robust growth story for India and a bright future for all our youth.

Rahul Gandhi

1,273,371 views • 1 year ago

Future is Here: Sustainable Transport Revolution Begins with India’s First EV Cargo Truck Launched India’s first EV-powered cargo truck, indigenously manufactured by Blue Energy Motors in Pune. This is a defining step in India’s electric mobility revolution, truly our 'Tesla Moment' in the cargo transport sector. While electrification of public transport has seen rapid progress, the need for decarbonisation of cargo handling vehicles was long overdue. Cargo trucks contribute significantly to vehicular emissions, and this innovation is a major stride towards sustainability and a cleaner logistics ecosystem. Stated that India needed its own indigenous manufacturer to revolutionise the cargo transportation sector. Appreciated Blue Energy Motors for delivering on this vision by launching a state-of-the-art, Made-in-India EV truck, fulfilling the dream of Hon PM Narendra Modi Ji’s Make in India mission initiated in 2014. This journey began with an MoU signed in Davos and Blue Energy Motors has honoured the commitment with successful execution. The introduction of battery-swapping technology is a game changer and is poised to revolutionise the EV sector. Maharashtra will continue to strengthen EV infrastructure along the Mumbai–Pune corridor. Under the state’s renewable energy vision, by 2030, 52% of energy generation will be from renewable sources, and by 2035 it will reach 75–80%, creating a robust foundation for a sustainable future. Congratulated the promoters, developers, engineers, designers and workers of Blue Energy Motors for their vision and contribution to India’s clean mobility revolution. Blue Energy Motors #Maharashtra #Pune

Devendra Fadnavis

41,595 views • 9 months ago