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A Wallbox EV charger for electric car is displayed during the “Mondial de l’Auto” at Parc des Expositions on October 15, 2024 in Paris, France.

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Silicon anodes appear to be leading the way in the race to commercialize next-generation battery technologies for electric vehicles.

The buzz around silicon-based anodes, which promise improved power and faster charging capabilities for EVs, has been growing in recent months — just as the hype around solid-state batteries seems to have fizzled.

It comes as increasing EV sales continue to drive up global battery demand, prompting auto giants to team up with major cell manufacturers on the road to full electrification.

While some OEMs (original equipment manufacturers) have inked deals with solid-state battery developers, carmakers such as Mercedes, Porsche and GM have all bet big on silicon anodes to deliver transformative change in the science behind EVs.

A recent report from consultancy IDTechEx described the promise of advanced silicon anode materials as “immense” for improving critical areas of battery performance, noting that this potential hadn’t gone unnoticed by carmakers and key players in the battery industry.

It warned, however, that challenges such as cycle life, shelf life and — perhaps most importantly — cost, need to be addressed for widespread adoption.

Venkat Srinivasan, director of the Collaborative Center for Energy Storage Science at the U.S. government’s Argonne National Laboratory in Chicago, said silicon anodes appear to have the edge over solid-state batteries.

“If there’s a horse race, silicon does seem to be ahead at least at this moment, but we haven’t commercialized either one of them,” Srinivasan told CNBC via videoconference.

How silicon could enable cheaper EVs, electric flight and more powerful batteries

Srinivasan said five years ago silicon-anode batteries had a calendar life of roughly one year, but recent data appears to show a dramatic improvement in the durability of these materials, with some tests now projecting a three to four-year calendar life.

Unlike the cycle life of a battery, which counts the number of times it can be charged and discharged, the calendar life measures degradation over time. Typically, the calendar life of a battery refers to the period in which it can function at over 80% of its initial capacity, regardless of its usage.

Srinivasan said solid-state batteries, long billed as the “holy grail” of sustainable driving, still have a long way to go before they can match the recent progress made by silicon anodes.

“That transition still has to be made in solid-state with their metal batteries and that’s why I think you’re hearing from people that, hey, it looks like that promise hasn’t panned out,” Srinivasan said.

“That doesn’t mean we won’t get there. It may happen in a few years. It just means that it feels like today silicon is in a different part of the technology readiness level.”

Silicon anodes vs. solid-state batteries

Analysts say silicon anodes theoretically offer 10 times the energy density as graphite, which are commonly used in battery anodes today. Yet, these same materials typically suffer from rapid degradation when lots of silicon is used.

“Silicon anodes and solid-state batteries are two emerging technology trends in the EV battery market aimed at pushing the boundaries of high-performance battery cells,” Rory McNulty, senior research analyst at Benchmark Mineral Intelligence, told CNBC via email.

A researcher checks the electromagnet de-ironing machine at the Daejoo Electronic Materials Co. R&D center in Siheung, South Korea, on Thursday, June 22, 2023.

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It has typically been the case that better battery performance comes at the cost of longevity or safety, McNulty said. Silicon anodes, for example, are known to swell significantly during charging, which reduces the battery’s longevity.

By comparison, McNulty said solid-state batteries were claimed to greatly improve the stability of the electrolyte to high performance electrode materials, combating the challenges of using high energy density materials such as silicon and lithium.

As the name suggests, solid-state batteries contain a solid electrolyte, made from materials such as ceramics. That makes them different from conventional lithium-ion batteries, which contain liquid electrolyte.

Especially in the West, advances in the area of silicon anodes [are] seen as strategic opportunity to catch up with China.

Georgi Georgiev

Battery raw materials analyst at Fastmarkets

Japan’s Toyota and Nissan have both said they are aiming to bring solid-state batteries into mass production over the coming years, while China’s SAIC Motor Corp reportedly said in early September that its MG brand would equip cars with solid-state batteries within the next 12 months.

Nonetheless, analysts remain skeptical about when solid-state batteries will actually make it to market.

A strategic opportunity?

“Silicon based anodes promise to be the next-generation technology in the anode field, providing a solution for faster charging,” Georgi Georgiev, battery raw materials analyst at consultancy Fastmarkets, told CNBC via email.

Georgiev said several industry players have been looking into the potential of silicon anodes, from well-established anode suppliers in China and South Korea to new players like Taiwan’s ProLogium and U.S. manufacturers Group14 and Sila Nanotechnologies.

“Especially in the West, advances in the area of silicon anodes [are] seen as strategic opportunity to catch up with China, which dominates the graphite-based anode supply chains with Chinese anode producers holding 98% of the global anode market for batteries,” Georgiev said.

“However, there are significant technical challenges going to 100% silicon anode such as silicon expansion affecting the longevity of the batteries and currently there are several routes to produce silicon anodes,” he added.

A FEV x ProLogium Technology Co. 100% silicon composite anode next-generation battery at the Paris Motor Show in Paris, France, on Tuesday, Oct. 15, 2024.

Bloomberg | Bloomberg | Getty Images

Taiwanese battery maker ProLogium debuted the world’s first fully silicon anode battery at the Paris Motor Show last month, saying it’s new fast-charging battery system not only surpassed traditional lithium-ion batteries in performance and charging efficiency but also “critical industry challenges.”

ProLogium, citing test data, said it’s 100% silicon anode battery could charge from 5% to 60% in just 5 minutes, and reach 80% in 8.5 minutes. It described the advancement as an “unmatched achievement in the competitive EV market,” which will help to reduce charging times and extend the range of EVs.

Fastmarkets’ Georgiev said a big question mark over the commercialization of silicon anodes is the cost of production and whether any of the major silicon-anode producers “could produce material at scale with a consistent quality and at a competitive price — [a] major requirements of OEMs.”

“At this stage silicon anodes are used more as an additive to graphite-based anodes and in the years to come we expect to see increase of silicon share in anode, but in combination with graphite, while 100% silicon anodes will take longer time to enter the mass market,” he added.

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Honda’s super low-cost electric motorcycle revealed in new patent images

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Honda's super low-cost electric motorcycle revealed in new patent images

Honda’s patent filings offer a clear glimpse into the company’s plans for an ultra-affordable electric motorcycle, integrating a proven chassis with a simple electric powertrain. It’s a clear glimpse into how the world’s most prolific motorcycle maker plans to challenge the nascent electric motorcycle market.

The filings in Honda’s new patent show a bike built around the familiar platform of the Honda Shine 100, a best-selling commuter in India, reimagined in electric form for a cost-effective future of urban mobility.

According to Cycle World’s Ben Purvis, Honda’s patent sketches outline a design that repurposes the Shine’s sturdy frame and chassis mounting points to house an electric motor and compact battery setup. Positioned where the engine once sat, a mid-motor drives the rear wheel via a single-speed reduction gear and chain – mirroring the essentials of the original gasoline-powered commuter bike.

Instead of a traditional fuel tank, the design features two lithium-ion battery packs, angled forward on either side of the spine frame and fitting neatly into the existing geometry.

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What makes the bike revealed in this patent even more interesting isn’t just its clever packaging, but rather the platform. By leveraging the proven Shine chassis, Honda can significantly cut development costs, manufacturing complexity, and market price. That’s a big statement given that surviving in price-sensitive markets like India demands simplicity and reliability. And by piggybacking off a proven platform, Honda can dramatically reduce the time to market from the time the boardroom bigwigs give the project the final green light.

Honda’s patent images show an electric motorcycle built on the same platform as the Honda Shine 100

The design still seems to feature styling that would be fairly consistent with the Shine 100, even down to a gas cap-like circular protrusion likely on top of a faux-tank. Some electric motorcycles in the past have used this location to hide a charging port, keeping similar form and function to outdated fuel tanks and fill ports, though it’s not clear if that is Honda’s intention.

It’s not clear what power level Honda could be targeting, but the Shine bike from which Honda’s creation draws its design inspiration could provide some clues. The Honda Shine 100 features a 99cc engine that provides around 7.3 horsepower (around 5.5 kW) and has a top speed of 85 km/h (53 mph), solidly planting it in the commuter segment of motorcycles.

The electric motorcycle in Honda’s design would be unlikely to target much higher performance as it would drastically increase the required battery capacity, and thus similar speeds of around 80-85 km/h (50-53 mph) would seem likely.

There also appears to be no active cooling, which would also limit the amount of power that Honda would be likely to draw continuously. The patent describes a channel formed by the two battery packs, leading to the speed controller and creating ducted cooling that pulls heat out of the batteries and electronics without drawing extra power.

Honda hasn’t released a final design, but I ask AI to create one based on the patent images. I’d ride that!

This emerging design is just one piece of Honda’s broader electric two-wheeler strategy. Their entry-level EM1 e: and Activa e: scooters launched with mobile battery packs and budget-friendly pricing. Meanwhile, high-tech concepts continually push the envelope. But this Shine-based bike aims squarely at the heart of mainstream affordability – a move likely to resonate with millions of new electric riders in developing regions like India where traditionally-styled small-dsiplacement motorcycles reign supreme.

Honda hasn’t revealed a timeline or pricing yet, but Honda’s patents offer real hope to fans of the brand’s electric efforts. If scaled effectively, this could be the first truly mass-market electric motorcycle from a major OEM, with a sticker price likely far below the $5,000 mark usually seen as a floor for commuter electric motorcycles from major manufacturers. That would also dramatically undercut models from brands like Zero or Harley-Davidson’s LiveWire, even as those brands rush to bring their own lower-cost models to market.

Electrek’s Take

Honda’s patent reveals a clever, no-frills EV designed to democratize electric two-wheeling, especially in developing markets that are even more price-sensitive than Western electric motorcycle customers.

Using a trusted frame, simple electric drive, and passive cooling, I’d say it definitely prioritizes cost over complexity, which is exactly what urban commuters need. If Honda can bring this to market, it would not just add another electric bike to the mix… it could create a new baseline for affordability in affordable electric mobility. Now we’re just waiting for the rubber to hit the road!

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Musk will ask Tesla shareholders to vote on bailout for twitter/xAI

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Musk will ask Tesla shareholders to vote on bailout for twitter/xAI

Tesla shareholders will vote on whether to invest into xAI, Tesla CEO Elon Musk’s private company, according to a post by Musk on twitter today.

Elon Musk is not just the CEO of Tesla, the electric car company that you may have heard about from time to time in Electrek’s coverage, but several other companies as well. And, famously, Musk companies often share resources – there has been much talk of incorporating SpaceX technology into Tesla vehicles, and putting xAI/twitter’s “MechaHitler”…. er, I mean, “Grok”…. feature into Tesla cars, among other collaborations that have happened over his various companies’ histories.

And today, Musk made it official that he will seek greater collaboration between three of his companies: Tesla, xAI, and twitter, in the form of an investment into xAI by Tesla.

The situation is a little more complicated than that, though.

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Tesla is a public company, owned by shareholders. Musk is the largest shareholder, but only owns around 12% of the company himself.

This is a different situation than xAI, which is a private company, owned by Musk. While there are other investors, he can exercise much more direct control over the company, and doesn’t have to put big decisions up to a vote.

One of the recent decisions he made with xAI was to purchase twitter in March. You may say, “wait, I thought he bought twitter back in 2022?,” and you’d be correct. Musk purchased twitter for $44 billion in 2022, which was widely agreed to be far too high a price, and then rapidly saw the company’s valuation drop to under $10 billion.

Then, in March 2025, Musk had xAI purchase twitter in an all-stock deal, valuing twitter company at $45 billion – again, far too high of a valuation, but considering he purchased the company from himself, he could set the price at whatever he wanted.

The move was widely considered to be a bailout of twitter, and the numbers involved considered arbitrary, perhaps partially to help save face for Musk after he made one of the worst business deals of all time.

Now the two are the same entity, and it seems clear that he would like to bring Tesla into the fold, in some way or another.

Musk has already improperly used resources from Tesla, a public company, to boost xAI and twitter, his private companies. Last year, he gave up Tesla’s priority position for highly sought-after NVIDIA H100 GPUs, instead shipping those GPUs to xAI and twitter. Tesla could have used these GPUs for training its FSD/Robotaxi systems, which Musk has claimed is the most important thing to Tesla’s future, but instead graciously sent them to his other company that used them to, uh, train a bot to say Nazi stuff apparently.

xAI has also poached talent from Tesla, multiple times, showing how Musk is using Tesla as a farm team for his private company.

So it hasn’t been a secret that Musk would like to use public money to bail out his private companies, as he’s been setting the stage for for a while now.

Musk has previously “discussed” getting Tesla to invest in xAI in the past, but the idea was never made official until today, when Musk said that he will put the idea to a shareholder vote.

In response to one of his superfans asking for the the opportunity to waste money on an overvalued social media app (which would mark the third time it has been overpaid for in as many years), and the backend fueling “MechaHitler,” Musk said this:

Tesla traditionally holds its annual shareholder meeting around the middle of the year, so if it were a normal year, this shareholder vote might be imminent.

But it’s not a normal year, as just last week Tesla announced an exceptionally late shareholder meeting, pushing it back to November, the latest it has ever held the meeting.

This means that Musk will have around four months to campaign for this idea – something that he’ll perhaps have more time to do, now that he’s no longer cosplaying as a government official.

We don’t know what the structure of the deal might look like yet, but Musk has been clear in the past that he wants more shares in Tesla. After selling many of his shares in order to buy twitter, he later complained that he doesn’t feel comfortable having less than 25% of Tesla. Given that his recent xAI/twitter deal was an all-stock deal, Musk could attempt to fund any investment of Tesla into xAI via shares, giving himself more Tesla shares in exchange for the company gaining a portion of xAI. Though to get him to 25% voting shares in Tesla, that would require either an enormous valuation for xAI, a small valuation for Tesla, or purchasing a large percentage of xAI (or, perhaps, all three, given how much higher TSLA’s valuation is than xAI’s).

We may however have a hint as to how that vote will go, because the last time Musk campaigned for a clearly terrible idea, Tesla shareholders ate it up.

In mid-2024, Musk ended his yearslong absenteeism at Tesla in a flurry of activity, hoping to persuade enough shareholders to vote for his illegal $55B pay package.

That flurry involved firing 10% of the company (supposedly in order to save money – though Tesla’s earnings have dropped drastically since), including important leadership and successful teams, which caused chaos with Tesla’s projects. He also pushed back an all-important affordable car project (which we’ve still heard nothing about) and held Tesla’s AI projects hostage while shifting both resources and staff from Tesla to his private AI company, even as he claims that AI is the future of Tesla.

In the end, these bad decisions worked, and shareholders voted to give their bad CEO his $55B pay package, even though it was later ruled to still be illegal.

So it looks like we’ve got another campaign coming up, and if last time was any indication, expect some really bad decisions along the way. It worked last time, didn’t it?


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E-quipment highlight: Perkins TracStar battery electric power unit

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E-quipment highlight: Perkins TracStar battery electric power unit

The off-highway equipment experts at Perkins and McElroy have teamed up to develop a plug-and-play battery electric power unit designed to help equipment OEMs and upfitters to seamlessly transition from diesel to battery electric power.

Designed to occupy the same space as the companies’ diesel-engined power units, Perkins dropped its new battery power unit into the similarly new McElroy TracStar 900i pipe fusion machine (specialized equipment used to join thermoplastic pipes like HDPE or polypropylene by heat-welding them end-to-end to form a continuous length pf pipe).

Perkins’ battery electric power unit replaces the company’s proprietary 134 hp, 3.6 liter 904 Series Tier V diesel engine, enabling units that are already deployed to be quickly upgraded to electric power – and helping trade allies and development partners to easily retrofit existing equipment in order to add zero-emission options to their operational fleet.

“We’re actively helping customers navigate the shift in power system requirements, with a range of advanced power systems including electric, diesel-electric and alternative fuel compatible engines,” says Jaz Gill, vice president, global sales, marketing at Perkins. “When it comes to the innovative fully integrated battery electric power unit, it can be ‘dropped in’ to a machine to replace a diesel engine. The system consists of a Perkins battery along with inverters, motors and on-board chargers – all packaged up into a compact drop-in system to support seamless transition from diesel to electric for our customers looking to make that move.”

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McElroy believes that an electric, emissions-free power unit like this one will open new opportunities and applications for its customers.

“Their team has done a phenomenal job of integrating their battery electric system into our TracStar 900i,” explains McElroy President and CEO Chip McElroy. “We’re really excited to see what the market thinks about this concept.”

Development of the battery electric powered pipe fusion machine was completed in about nine months. Future Perkins-powered electric equipment running the 904 diesel (small excavators, telehandlers, pumps, and gensets) could be developed even more quickly. You can find out more in the company’s promo video, below.

Perkins electric power unit


SOURCE | IMAGES: McElroy, Perkins.

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