BEVERLY, Mass. — It’s a gray November morning, and we’re on board a long, yellow school bus.
The bus bounces over this Boston suburb’s patched streets in a way that would be familiar to anyone who ever rode a bus to class. But the bus is quiet – and not just because there are no kids on board.
This school bus is electric.
Right now, only a tiny fraction of the roughly 480,000 school buses in America are battery-powered. Most still use gasoline or diesel engines, just as they have for decades. But thanks to fast-maturing electric-vehicle technology – and the new incentives available under the Bipartisan Infrastructure Law and the Inflation Reduction Act – electric school buses are set to become much more common over the next decade.
“It’s like a big huge go-kart,” said the bus driver on that November day, who’s been driving school buses, mostly gas-powered, for over three decades. “When you accelerate, you move. When you stop accelerating, you stop. And you don’t hear any sound.”
“Driving a diesel bus is not like driving a go-kart,” she said.
Greener pastures
Environmental activists have been working for years to try to replace diesel and gasoline school buses with new electric models. Until recently, they faced some big challenges: Only a couple of companies made fully electric school buses, prices were very high, and the need for new “refueling” and maintenance infrastructure to replace tried-and-true diesel proved too daunting for many school officials.
That’s starting to change. Over the last couple of years, more companies — including long-established school-bus manufacturers — have begun making electric school buses, government subsidies have increased, and regulators and nonprofits have worked to educate school districts, utilities and the general public about the advantages.
But this isn’t like selling electric vehicles to drivers. School districts have to navigate a confusing array of subsidies and restrictions — and deal with the awkward fact that right now, a new EV bus costs a lot more than a traditional diesel-powered bus (in fact, three to four times as much).
It’s hard to make a battery-electric version of a long-haul truck, like EV startup Nikola is working on, as the batteries required to deliver the distance weigh a lot and take hours to recharge.
But the case for a school bus — which needs only limited range of mileage, and has plenty of idle time to recharge — is much simpler. And the advantages to the traditional buses are clear.
They’re much better, and their savings are much greater once you actually get them into the depot.
Sue Gander
Director at the World Resources Institute
Not only do electric school buses, or ESBs, help the environment — by not expelling diesel fumes or other emissions —they’re also better for the children they carry, particularly those suffering from chronic respiratory conditions such as asthma.
Like other electric vehicles, ESBs are also likely to have lower maintenance costs over time than their internal-combustion counterparts.
Plus, the buses’ large batteries can store and deliver energy to power buildings and other devices, whether temporarily in an emergency or as part of a larger renewable-energy strategy.
Driving up costs
All of those advantages come with a price tag, however.
ESBs are expensive: Battery-electric versions of small “Type A” school buses cost roughly $250,000, versus $50,000 to $65,000 for diesel; full-size “Type C” or “Type D” buses can range from $320,000 to $440,000 in electric form, versus about $100,000 for diesel.
“They’re much better, and their savings are much greater once you actually get them into the depot,” Sue Gander, a former U.S. Environmental Protection Agency official, told CNBC in a recent interview. “But the upfront is such that, without [government] incentives, you can’t break even [in comparison to diesel buses].”
Gander leads the World Resources Institute’s Electric School Bus Initiative, a project funded in part by the Bezos Earth Fund established by Amazon’s founder, Jeff Bezos. The initiative works with school officials, utility companies and ESB manufacturers to try to accelerate the adoption of zero-emission school buses.
“We think for the next three or four years, as costs come down, as scale goes up, we’ll need to have those incentives in place to make the numbers work,” she said.
And like other electric vehicles, ESBs will require new infrastructure: At minimum, a school district or bus operator will need to install chargers and retrain their mechanics to service the new buses’ battery-electric drivetrains and control systems.
A Thomas Built electric school bus in Beverly, Massachusetts.
John Rosevear | CNBC
For small school districts, and those in low-income areas, the costs and challenges can be daunting.
Duncan McIntyre is trying to make it easy, or at least easier, for school districts to go electric. After years in the solar-energy business, he founded a company, Highland Fleets, that aims to make the switch to electric buses simple and affordable for school districts and local governments around the country.
“You’ve got more expensive equipment, but it operates much cheaper,” he said, noting that — as with other EVs — the costs of charging and maintaining an electric school bus are considerably lower than with gas or diesel buses.
The last piece, he says, “which everyone overlooks, is that those bus batteries can send power back to the grid to meet peak demand. And that’s an energy market’s opportunity to create additional revenue.”
Government incentives
The Bipartisan Infrastructure Law passed late last year includes $5 billion in subsides for low- and zero-emission school buses over the next five years.
The EPA, charged with administering those subsidies, said in September about 2,000 U.S. school districts had already applied for the subsidies, with over 90% of those applications requesting electric buses. (The remainder were seeking subsidies for low-emissions buses powered by propane or compressed natural gas, the agency said.)
Not all of those applications, which combined amount to nearly $4 billion in subsidies, will be approved immediately. The EPA awarded about $1 billion in funds in October, giving priority to low-income, rural, and tribal communities. It expects to distribute another $1 billion in 2023.
California offers state-level subsidies, through its Air Resources Board, of up to $235,000 per bus, plus an additional $30,000 per bus for charging equipment. The agency set aside $122 million for the program this year.
Colorado has made available $65 million in funding for a similar program. And New York, Connecticut, Maryland and Maine all moved to set up similar programs this year, with New York the first to target a 100% electric school bus fleet by 2035.
The money is helpful, but Gander said school districts still need to think through all of the aspects of going electric.
“It’s really about supporting school districts, helping them understand where do electric buses fit into my fleet at the moment? And how do I plan for continuing to add them in to my fleet as I go along?” Gander said. “How do I develop the infrastructure? How do I access the funding and financing that’s out there? And how do I involve the community in this process?”
Newly published data from the Federal Energy Regulatory Commission (FERC), reviewed by the SUN DAY Campaign, reveal that solar accounted for over 75% of US electrical generating capacity added in the first nine months of 2025. In September alone, solar provided 98% of new capacity, marking 25 consecutive months in which solar has led among all energy sources.
Year-to-date (YTD), solar and wind have each added more new capacity than natural gas has. The mix of all renewables remains on track to exceed 40% of installed capacity within three years; solar alone may be 20%.
Solar was 75% of new generating capacity YTD
In its latest monthly “Energy Infrastructure Update” report (with data through September 30, 2025), FERC says 48 “units” of solar totaling 2,014 megawatts (MW) were placed into service in September, accounting for 98% of all new generating capacity added during the month. Oil provided the balance (40 MW).
The 567 units of utility-scale (>1 MW) solar added during the first nine months of 2025 total 21,257 MW and were 75.3% of the total new capacity placed into service by all sources. Solar capacity added YTD is 6.5% more than that added during the same period a year earlier.
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Solar has now been the largest source of new generating capacity added each month for 25 consecutive months, from September 2023 to September 2025. During that period, total utility-scale solar capacity grew from 91.82 gigawatts (GW) to 158.43 GW. No other energy source added anything close to that amount of new capacity. Wind, for example, expanded by 11.07 GW while natural gas’s net increase was just 4.60 GW.
Between January and September, new wind energy has provided 3,724 MW of capacity additions – an increase of 28.6% compared to the same period last year and more than the new capacity provided by natural gas (3,161 MW). Wind accounted for 13.2% of all new capacity added during the first nine months of 2025.
Renewables were 88% of new capacity added YTD
Wind and solar (plus 4 MW of hydropower and 6 MW of biomass) accounted for 88.5% of all new generating capacity while natural gas added just 11.2% YTD. The balance of net capacity additions came from oil (63 MW) and waste heat (17 MW).
Utility-scale solar’s share of total installed capacity (11.78%) is now virtually tied with that of wind (11.80%). If recent growth rates continue, utility-scale solar capacity should surpass that of wind in FERC’s next “Energy Infrastructure Update” report.
Taken together, wind and solar make up 23.58% of the US’s total available installed utility-scale generating capacity.
Moreover, more than 25% of US solar capacity is in the form of small-scale (e.g., rooftop) systems that are not reflected in FERC’s data. Including that additional solar capacity would bring the share provided by solar and wind to more than a quarter of the US total.
With the inclusion of hydropower (7.59%), biomass (1.05%) and geothermal (0.31%), renewables currently claim a 32.53% share of total US utility-scale generating capacity. If small-scale solar capacity is included, renewables now account for more than one-third of the total US generating capacity.
Solar soon to be No. 2 source of US generating capacity
FERC reports that net “high probability” net additions of solar between October 2025 and September 2028 total 90,614 MW – an amount almost four times the forecast net “high probability” additions for wind (23,093 MW), the second fastest growing resource.
FERC also foresees net growth for hydropower (566 MW) and geothermal (92 MW) but a decrease of 126 MW in biomass capacity.
Meanwhile, natural gas capacity is projected to expand by 6,667 MW, while nuclear power is expected to add just 335 MW. In contrast, coal and oil are projected to contract by 24,011 MW and 1,587 MW, respectively.
Taken together, the net new “high probability” net utility-scale capacity additions by all renewable energy sources over the next three years – the Trump administration’s remaining time in office – would total 114,239 MW. On the other hand, the installed capacity of fossil fuels and nuclear power combined would shrink by 18,596 MW.
Should FERC’s three-year forecast materialize, by mid-fall 2028, utility-scale solar would account for 17.3% of installed U.S. generating capacity, more than any other source besides natural gas (39.9%). Further, the capacity of the mix of all utility-scale renewable energy sources would exceed 38%. The inclusion of small-scale solar, assuming it retains its 25% share of all solar energy, could push solar’s share to over 20% and that of all renewables to over 41%, while the share of natural gas would drop to less than 38%.
In fact, the numbers for renewables could be significantly higher.
FERC notes that “all additions” (net) for utility-scale solar over the next three years could be as high as 232,487 MW, while those for wind could total 65,658 MW. Hydro’s net additions could reach 9,927 MW while geothermal and biomass could increase by 202 MW and 32 MW, respectively. Such growth by renewable sources would swamp that of natural gas (29,859 MW).
“In an effort to deny reality, the Trump Administration has just announced a renaming of the National Renewable Energy Laboratory (NREL) in which it has removed the word ‘renewable’,” noted the SUN DAY Campaign’s executive director Ken Bossong. “However, FERC’s latest data show that no amount of rhetorical manipulation can change the fact that solar, wind, and other renewables continue on the path to eventual domination of the energy market.”
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The Century is considered the most luxurious Toyota, and now it’s being spun off into its own high-end brand. Despite the rumors, the ultra-luxury brand won’t be as electric as expected.
Toyota sets new luxury brand up to fail with ICE plans
First introduced in 1967, the Century was launched in celebration of Toyota’s founder, Sakichi Toyoda’s 100th birthday.
The Century has since become a symbol of status and wealth in Japan, often used as a chauffeur car by high-profile company officials.
The new Century brand is set to rival higher-end automakers like Rolls-Royce and Bentley, but it won’t be as electric as initially expected. Toyota’s powertrain boss, Takashi Uehara, told CarExpert that the luxury brand’s first vehicle will, in fact, have an internal combustion engine.
Although no other details were offered, Uehara confirmed, “Yes, it will have an engine.” As to what kind, that has yet to be decided, Toyota’s powertrain president explained.
The Toyota Century Concept (Source: Toyota)
Like the next-gen Lexus supercar and upcoming Toyota GR GT, Uehara said the Century model could include a V8 engine.
The Century has been Toyota’s only vehicle with a V12 engine. In 2018, Toyota dropped the V12 in favor of a V8 hybrid powertrain for its third-generation.
A custom-tailored Century on display at the Japan Mobility Show (Source: Toyota)
Toyota’s Century launched its first SUV in 2023, currently on sale in Japan with a V6 plug-in hybrid system alongside the sedan.
Already widely considered the biggest laggard in the shift to fully electric vehicles, Toyota doubled down, developing a series of new internal combustion engines for upcoming models.
Century is one of the five global brands the Japanese auto giant introduced in October, along with Daihatsu, GR Sport, Lexus, and Toyota.
Electrek’s Take
It’s not surprising to see Toyota sticking with ICE for its ultra-luxury Century brand, but it will likely be a costly move.
Chinese auto giants, such as BYD and FAW Group, are quickly expanding into new segments, including high-end models under luxury brands such as Yangwang and Hongqi.
These companies are now expanding into new overseas markets, like Europe and Southeast Asia, where Japanese brands like Toyota have traditionally dominated, to drive growth.
Top luxury brands, including Porsche, BMW, and Mercedes-Benz, are already struggling to keep pace with Chinese EV brands. How does Toyota plan to compete with an “ultra-luxury” brand that still sells outdated ICE vehicles? We will find out more over the coming months and years as new sales data is released.
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SparkCharge has partnered with the Massachusetts Clean Energy Center (MassCEC) and Zipcar to launch the Northeast’s first off‑grid, mobile DC fast‑charging hub for shared EVs. The goal is to bring fast, reliable EV charging infrastructure into communities without having to wait for costly or slow grid upgrades.
The hub sits at Zipcar’s maintenance facility in East Boston, an Environmental Justice community. It’s funded through MassCEC’s InnovateMass program and gives onsite mechanics the ability to quickly recharge a rotating fleet of Zipcar EVs before they’re dispatched across Greater Boston. Members and rideshare drivers who rent Zipcars will get steadier access to charged EVs.
“Electrification should never be limited by where the grid is or how long it takes,” SparkCharge founder and CEO Joshua Aviv said. “With this program in East Boston, we’re showing how fleets can deploy at scale, in any community, and deliver clean mobility today.”
At the center of the setup is SparkCharge’s Mobile Battery‑Powered Trailer, which delivers 320 kW of DC fast charging without the delays and big price tags that usually come with fixed infrastructure. The trailer can recharge from Zipcar’s existing onsite power between sessions, topping up its high‑capacity batteries without stressing the local grid. Since it avoids major grid upgrades entirely, the model is designed to deploy quickly and at zero upfront cost for fleets.
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MassCEC says the project shows what community‑first fast charging can look like. “Every resident deserves access to clean, reliable transportation,” said Leslie Nash, MassCEC’s senior director of Technology‑to‑Market. “By partnering with SparkCharge and Zipcar in East Boston, we’re showing how Massachusetts is leading the way in clean transportation innovation.”
The hub also plays into Massachusetts’ push to hit its net‑zero 2050 targets. As shared mobility grows, electrifying fleets will be key to cutting emissions in dense urban corridors. This project introduces a scalable charging option to a part of Boston that is underserved by public charging, helping to keep Zipcar’s EVs reliably on the road.
“For twenty‑five years, Zipcar has been a leader in shared mobility, and we’re proud to take another step toward a more sustainable future,” said Angelo Adams, Zipcar’s president. “Working with SparkCharge and MassCEC allows us to bring fast, reliable EV charging directly to our members and rideshare drivers.”
Zipcar, which is owned by car rental company Avis Budget, announced on December 1 that it was shutting down its UK operations by December 31, 2025. An Avis Budget spokesperson stated that the reason was “to streamline operations, improve returns, and position the company for long-term sustainability and growth,” adding that “all other markets remain unaffected.”
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