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An electric vehicle charging point in Stoke-on-Trent, England.
Nathan Stirk | Getty Images News | Getty Images

The number of electric vehicles on the world’s roads is surging, hitting a record number last year.

That would seem to be good news, as the world tries to wean itself off fossil fuels that are wrecking the global climate. But as electric cars become more popular, some question just how environmentally friendly they are.

The batteries in electric vehicles, for example, charge on power that is coming straight off the electric grid — which is itself often powered by fossil fuels. And there are questions about how energy-intensive it is to build an EV or an EV battery, versus building a comparable traditional vehicle.

Are electric vehicles greener?

The short answer is yes — but their full green potential is still many years away.

Experts broadly agree that electric vehicles create a lower carbon footprint over the course of their lifetime than do cars and trucks that use traditional, internal combustion engines.

Last year, researchers from the universities of Cambridge, Exeter and Nijmegen in The Netherlands found that in 95% of the world, driving an electric car is better for the environment than driving a gasoline-powered car.

Electricity grids in most of the world are still powered by fossil fuels such as coal or oil, and EVs depend on that energy to get charged. Separately, EV battery production remains an energy-intensive process.

Producing electric vehicles leads to significantly more emissions than producing petrol cars … which is mostly from the battery production.
Florian Knobloch
Cambridge Centre for Environment, Energy and Natural Resource Governance

A study from the Massachusetts Institute of Technology Energy Initiative found that the battery and fuel production for an EV generates higher emissions than the manufacturing of an automobile. But those higher environmental costs are offset by EVs’ superior energy efficiency over time.

In short, the total emissions per mile for battery-powered cars are lower than comparable cars with internal combustion engines.

“If we are going to take a look at the current situation, in some countries, electric vehicles are better even with the current grid,” Sergey Paltsev, a senior research scientist at the MIT Energy Initiative and one of the study’s authors, told CNBC.

Paltsev explained that the full benefits of EVs will be realized only after the electricity sources become renewable, and it might take several decades for that to happen.

“Currently, the electric vehicle in the U.S., on average, would emit about 200 grams of CO2 per mile,” he said. “We are projecting that with cleaning up the grid, we can reduce emissions from electric vehicles by 75%, from about 200 (grams) today to about 50 grams of CO2 per mile in 2050.”

Similarly, Paltsev said MIT research showed non-plug-in hybrid cars with internal combustion engines currently emit about 275 grams of CO2 per mile. In 2050, their projected emissions are expected to be between 160 to 205 grams of CO2 per mile — the range is wider than EVs, because fuel standards vary from place to place.

Decarbonization is the process of reducing greenhouse gas emission produced by the burning fossil fuels. Efforts to cut down pollution across various industries are expected to further reduce the environmental impact of EV production and charging over time.

“When you look forward to the rest of the decade, where we will see massive amounts of decarbonization in power generation and massive amount of decarbonization in the industrial sector, EVs will benefit from all of that decarbonization,” Eric Hannon, a Frankfurt-based partner at McKinsey & Company, told CNBC.

Batteries are the biggest emitter

EVs rely on rechargeable lithium-ion batteries to run. The process of making those batteries — from using mining raw materials like cobalt and lithium, to production in gigafactories and transportation — is energy-intensive, and one of the biggest sources of carbon emissions from EVs today, experts said.

Gigafactories are facilities that produce EV batteries on a large scale.

“Producing electric vehicles leads to significantly more emissions than producing petrol cars. Depending on the country of production, that’s between 30% to 40% extra in production emissions, which is mostly from the battery production,” said Florian Knobloch, a fellow at the Cambridge Centre for Environment, Energy and Natural Resource Governance.

Those higher production emission numbers are seen as “an initial investment, which pays off rather quickly due to the reduced lifetime emissions.”

China currently dominates battery production, with 93 gigafactories producing lithium-ion battery cells versus only four in the U.S., the Washington Post reported this year.

“I think the battery is the most complicated component in the EV, and has the most complex supply chain,” George Crabtree, director of the U.S. Department of Energy’s Joint Center for Energy Storage Research, told CNBC, adding that the energy source used in battery production makes a huge difference on the carbon footprint for EVs.

Batteries made in older gigafactories in China are usually powered by fossil fuels, because that was the trend five to 10 years ago, he explained. So, EVs that are built with batteries from existing factories

But that’s changing, he said, as “people have realized that’s a huge carbon footprint.”

Experts pointed to other considerations around battery production.

They include unethical and environmentally unsustainable mining practices, as well as a complex geopolitical nature of the supply chain, where countries do not want to rely on other nations for raw materials like cobalt and lithium, or the finished batteries.

Mining raw materials needed for battery production will likely be the last to get decarbonized, according to Crabtree.

Recycling and decarbonizing the grid

Today, very few of the spent battery cells are recycled.

Experts said that can change over time as raw materials needed for battery production are in limited supply, leaving firms with no choice but to recycle.

McKinsey’s Hannon outlined other reasons for companies to step by their recycling efforts. They include a regulatory environment where producers, by law, would have to deal with spent batteries — and disposing them could be more expensive.

“People who point to a lack of a recycling infrastructure as a problem aren’t recognizing that we don’t need extensive recycling infrastructure yet because the cars are so new, we’re not needing many back,” he said.

Most auto companies are already working to ensure they have significant recycling capacity in place before EVs start reaching the end of life over the next decade, he added.

It’s not silver bullet for climate change mitigation. Ideally, you also try to reduce the number of cars massively, and try to push things such as public transport
Florian Knobloch
Cambridge Centre for Environment, Energy and Natural Resource Governance

Knobloch from Cambridge University said a lot of research is going into improving battery technology, to make them more environmentally sustainable and less reliant on scarce raw materials. More efforts are also needed in decarbonizing the electricity grid, he added.

“It’s very important that more renewable electricity generation capacity is added to the grid each year, than coal generation capacity,” Knobloch said.

“Nowadays, it’s much easier to build large scale solar or offshore wind compared to building new fossil fuel power plant. What we see is more renewable electricity coming into the grid all over the world.”

Still, he pointed out that generating electricity by using renewable sources will still emit greenhouse gases as there are emissions from producing the solar panels and wind turbines. “What we look at is how long will it take until the electricity grid is sufficiently decarbonized so that you see large benefit from electric vehicles,” Knobloch added.

Policies needed for societal change

Experts agree that a transition from gasoline-powered cars to EVs is not a panacea for the global fight against climate change.

It needs to go hand-in-hand with societal change that promotes greater use of public transportation and alternative modes of travel, including bicycles and walking.

Reducing the use of private vehicles requires plenty of funding and policy planning.

MIT’s Paltsev, who is also deputy director at the university’s joint program on the science and policy of global change, explained that there are currently about 1.2 billion fuel-powered cars on the road globally –that number is expected to increase to between 1.8 billion to 2 billion.

In comparison, there are only about 10 million electric vehicles currently.

People underestimate how many new cars have to be produced and how much materials will be needed to produce those electric vehicles, Paltsev said.

The International Energy Agency predicts that the number of electric cars, buses, vans and heavy trucks on roads is expected to hit 145 million by 2030.

Even if everyone drove EVs instead of gasoline-powered cars, there would still be plenty of emissions from the plug-in vehicles due to their sheer volume, according to Knobloch.

“So, it’s not silver bullet for climate change mitigation. Ideally, you also try to reduce the number of cars massively, and try to push things such as public transport,” he said. “Getting people away from individual car transport is as important.”

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Volvo Penta teams up with e-power to equip Boels with next-gen Battery Energy Storage Systems (BESS)

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Volvo Penta teams up with e-power to equip Boels with next-gen Battery Energy Storage Systems (BESS)

Veteran marine and industrial power solutions company Volvo Penta has joined forces with energy solutions provider e-power to build battery energy storage systems (BESS). Volvo Penta’s battery systems for energy storage will power BESS units built by e-power that can be catered to a range of applications, most notably construction rental clients like Boels Rentals in Europe.

Volvo Penta is a provider of sustainable power solutions that currently serves land and sea applications under the Volvo Group umbrella. As more and more of the world goes all-electric, the global manufacturer has also adapted, sharing cultural values with Volvo Group to engineer new and innovative sustainable power solutions.

Nearly 100 years later, Volvo Penta remains an industry leader in marine propulsion systems and industrial engines. As more and more of the world goes all-electric, the Swedish manufacturer has also adapted, sharing cultural values with Volvo Group to engineer new and innovative sustainable power solutions.

For example, all Volvo Penta diesel engines now run on hydro-treated vegetable oil (HVO), reducing well-to-wheel emissions by up to 90% across the marine and industrial power industries. On the zero-emissions side, Volvo Penta has expressed its dedication to fossil-free power solutions, including battery electric components to serve heavy-duty applications such as terminal tractors, forklifts, drill rigs, and feed mixers, to name a few.

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To leverage its battery electric value chain, Volvo Penta has also ventured into battery systems for energy storage (or BESS subsystems). These energy-dense, purpose-built BESS subsystems can provide portable, sustainable energy for all-electric charging and reduce grid dependency.

Volvo battery
Source: Volvo Penta

Volvo Penta to deploy battery systems for energy storage

Volvo Penta recently announced a strategic partnership with e-power, a Belgian power solutions provider. Together, Volvo Penta and e-power will develop a scalable Battery Energy Storage System (BESS) for Boels Rental.

The collaboration continues a long-standing partnership between all three companies. Boels – one of the largest construction rental companies is a long-time customer of e-power generators that utilize Volvo Penta engines. As the company shifts toward electrification and sustainability, it will again turn to those companies to deliver reliable performance.

Volvo Penta’s BESS subsystem comprises battery packs, a Battery Management System (BMS), DC/DC converters, and thermal management, combining to offer a compact, high-density, and transport-friendly solution optimized for rental operations. The company shared that this BESS design is integration-ready, enabling other OEMs like e-power to adapt and scale systems to customer-specific needs. Per e-power business support director, Jens Fets:

We’ve built our reputation on reliability and efficient power systems. Working again with Volvo Penta, this time on battery energy storage, allows us to meet the growing demand for energy in a silent, low-emissions, compact and mobile design—especially in rental applications.

The deployment of these new battery energy storage systems will help Boels cater to its customers’ growing demand for clean, silent, and mobile energy solutions in construction and other industrial applications. 

Aside from being more quickly adaptable to customer needs, Volvo Penta says its BESS architecture marks an overall shift in rental power systems. This is welcome news for all who support a cleaner, more sustainable future across all industries.

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2026 Mercedes-Benz GLC EV exterior leaks ahead of schedule

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2026 Mercedes-Benz GLC EV exterior leaks ahead of schedule

That didn’t take long! Just a few hours after Mercedes revealed the screen-heavy interior of its upcoming 2026 GLC EV, photos of the new crossover’s exterior – and that controversial grille! – leaked on Instagram and Reddit. We’ve got them here.

Two days ahead of the GLC EV’s officially schedule global debut, images that reportedly show the new 2026 Mercedes undisguised have leaked on Instagram and Reddit. They show the blocky new light-up grille on the nose of a very smooth, jellybean-like crossover shape that, despite Mercedes’ insistence that it’s moving away from the EQ series’ design language, looks an awful lot like an EQ Mercedes.

Check out the leaked images from kindleauto’s Instagram account, below, and see if you agree with that assessment.

If you need to see more before you feel comfortable commenting on the new SUV’s looks, there’s a few more angles over on the r/mercedes_benz subreddit.

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Leaked exterior pictures of the upcoming GLC EV
byu/Quick_Coyote_7649 inmercedes_benz

As with everything else on the internet, take those unofficial images with a grain of salt and maybe wait until the GLC EV’s official reveal in a few days’ time before casting your final vote on the new look – but there’s very little reason to believe the new Mercedes will look terribly different from what you see here.

Will the new grille and tech-forward interior with its massive, 39″ screen and MB.OS software be enough to turn the tide for Mercedes-Benz, enabling it to finally gain some traction in the electric crossover market? That remains to be seen, but the recently updated Tesla Model Y and crisply-styled new BMW iX3 with its 500 miles of range will make it an uphill battle, for sure.

We got a sneak peek at the new GLC back in July, when Mercedes-Benz Group CEO, Ola Källenius said that, “We’re not just introducing a new model – we’re electrifying our top seller.” Back then, we learned that the new GLC EV would have a wheelbase 3.1″ longer than the current ICE-powered model, as well as more head- and leg-room for its occupants and an extra 4.5 cubic feet (for 61.4 total) of cargo space.

Källenius also promised an innovative new 800V electric architecture and the latest battery tech, which will enable the electric GLC to add around 260 km (~160 miles) of WLTP range in just ten minutes thanks to more than 300 kW of charging capability.

SOURCES | IMAGES: kindleauto; Quick_Coyote_7649.


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E-quipment highlight: John Deere TE 4×2 Electric Gator UTV

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E-quipment highlight: John Deere TE 4x2 Electric Gator UTV

For more than 30 years, John Deere’s go-anywhere Gator has been a trusted tool for ranchers, landscapers, and hobby farmers. But the all-electric TE 4×2 version of Big Green’s little truckster rarely gets to steal the spotlight from its ICE-powered 6×4 cousins.

We’re going to change that.

Unlike some of those other UTV brands that just recently entered the electric vehicle game, John Deere introduced its first all-electric Gator way back in 1998.

That OG E-Gator was designed from the ground up for quiet work in places like golf courses, university and hospital campuses, luxury resorts, and corporate grounds – but its go-anywhere design and quiet running made it a favorite of hunters and ranchers, too. Fitted with eight heavy, 12V lead-acid batteries, the ’98 Gator could deliver 6 hours of runtime between overnight charges.

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We haven’t come a long way, baby


TE 4×2 loaded w/ attachments; via John Deere.

If it ain’t broke, don’t fix it. That seems to be the mentality at Deere when it comes to the all-electric Gator. The TE 4×2 hasn’t chased trends or tried to reinvent itself with flashy autonomous tech. Instead, it’s relied solid, work-horsey reasons. Instead, the UTV has leaned on the formula that’s made it a winner for more than 25 years: bulletproof reliability, low maintenance, and a design that just works. Even the added weight of the low-tech batteries compared to more energy-dense li-ion deals makes sense in this application, providing weight over the drive wheels that delivers sure-footed traction on slippery grass or muddy trails.

That’s not to say the Gator hasn’t changed at all over the last few decades. The electrical system has been upgraded to 48V, and its high-capacity, deep-cycle batteries (12 kWh total capacity) give the TE 4×2 dependable, all-day runtime (up to 8 continuous hours) with the benefit of modern chargers, regenerative braking (!), and updated safety features.

The TE 4×2 electric Gator is available from your local Deere dealer with prices starting at $15,699. And, if you’re looking for an endorsement: my personal Gator is easily my favorite thing … maybe I should try to change my Twitter X handle to “GatorJo”?

Let me know what you think of that idea in the comments.

SOURCE | IMAGES: John Deere.


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Your personalized solar quotes are easy to compare online and you’ll get access to unbiased Energy Advisors to help you every step of the way. Get started here.

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