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Let’s talk about the Ramcharger 1500 — and why it’s different from a plug-in hybrid.

The American car buyer is a hard one to satisfy.
The freedom of the open road is embedded in our consciousness in a way it is in few (if any) other countries. A typical American consumer may want to be able to embark on a summer road-trip across the United States’ vast distances, to cram in a family of five and all their camping supplies (and maybe a dog and a canoe!), or to hitch up a trailer to haul a boat or RV wherever they might want to adventure.
We may not use all those features most of the time, but we don’t want to make a major purchase like a car, truck, or SUV to meet the average use case; if we can afford to, we buy for the edge case.
That’s why I can’t stop thinking about a recent announcement made by Stellantis, the Euro-American conglomerate behind brands like Dodge, Jeep, Ram and Alfa Romeo.
For model year 2025, Stellantis will electrify its full-size Ram 1500 pickup, following in the footsteps of GM and Ford. But unlike its rivals, Stellantis will offer the Ram 1500 REV in both an all-electric model (with 350-500 mile range) and a "range extender" Ramcharger 1500 that features around 140 miles of electric range — plus a V6 engine mated to a generator to power the vehicle when the battery is depleted.
I think it’s brilliant.
This kind of range-extended EV seems like the ideal near-term product to satisfy some of the trickiest American market segments to electrify: namely the uniquely American demand for full-size pickups and massive SUVs.
I’ve been a critic of plug-in hybrid vehicles as a bridge to an electrified future in the past. But I’ve leveled that critique against the popular “parallel” plug-in hybrid architecture, which features both a conventional internal combustion engine and mechanical transmission plus a battery and electric motor/generator.
Despite Toyota’s reputation for hybrids, Stellantis is actually the undisputed king of plug-in hybrids in the U.S. already, with plug-in hybrid versions of popular models like the Jeep Wrangler and Cherokee and the Chrysler Pacifica minivan selling at a record pace in recent months.
While this common plug-in hybrid architecture could be right for many Americans reluctant to fully electrify (especially those without access to dedicated Level 2 charging), they suffer from one big drawback: they carry around the full drive train — and all the baggage and cost — of both a conventional gas-burning vehicle and a full battery EV. Duplicate drivetrains means they’ll never be cheaper than a pure internal-combustion or electric car. And with limited space on board to cram in a big battery, these vehicles sport a modest 20-40 mile all-electric range.
(Listen to this recent episode of Shift Key for more on my problems with plug-ins and a discussion of recent U.S. electrified vehicle trends)
In contrast, a “range-extended EV” or “series” plug-in hybrid (or whatever we start calling this other third thing) like the new Ramcharger is a fully electric-drive vehicle. There’s no mechanical transmission to power the wheels. It simply has a compact gasoline engine, tuned to run at a single, most-efficient speed, married to a generator that can produce electricity to run the electric motors when the battery is depleted.
Thanks to the extended range provided by the gasoline generator, these vehicles can drop battery mass and cost, squeeze in a gasoline engine and fuel tank, and still come out comparable on cost as a pure EV with substantially longer range than parallel plug-in hybrids.
The Ram 1500 EV needs a massive 229 kilowatt-hour (kWh) pack to deliver an as-advertised 500 mile range. (The 168-kWh battery for the 350-mile-range version is also huge, 85% larger than the pack in my extended range Mustang Mach-E which gets about 300 miles range.)
In contrast, the Ramcharger has a 92 kWh pack and offers about 145 miles of all-electric range.
The range-extended series hybrid thus sheds 137 kWh of batteries vs. the 500 mile range EV. At about $100+ per kWh to manufacture and assemble those incremental battery cells, that saves Stellantis at least $14,000 to manufacture the truck. A new V6 engine costs about $5,000-10,000 retail and surely much less for an automaker to manufacture, so swapping batteries for the V6 nets a significant cost savings.
The economics and capabilities of a range-extended EV thus make a lot of sense, especially for massive vehicles like the full-size trucks and SUVs so many Americans love. And they squash any concerns about range anxiety that might give buyers pause — especially those interested in towing something, which decimates the range of the all-electric pickups on the market today.
At the same time, more range-extended EVs on the road would reduce demand for D.C. fast chargers — which are especially scarce in the more rural areas of America where the full-size pickup is king. You can still charge these vehicles at a D.C. fast charger (if you can find one), but you can also pull into any gas station to extend range on road trips.
Meanwhile, a 100+ mile electric range is sufficient to cover around 99% of trips taken in personal vehicle in America. Plus, even when running in generator mode, a series electric drive train with regenerative braking is more efficient than a pure internal combustion drive (especially when the internal combustion generator can bypass the battery to directly power the electric motors, as it can in the Ramcharger). Near-term adoption of range-extended EVs could deliver substantial reductions in both emissions and gas use.
Sound familiar? That’s because this was exactly how the original Chevy Volt and BMW i3 range extended option were configured way back in 2011. Why GM didn’t continue down this path to electrify their massive Silverados, Sierras, and Escalades is beyond me.
Stellantis isn’t the only automaker going down this path. Mazda has struggled to get a competitive EV out, with their MX-30 offering a paltry 100-mile range. So they’re launching a range-extended version with a compact 830cc rotary engine (one of Mazda’s core IPs), which could turn the compact SUV into a truly viable product. Across the Atlantic, Nissan also offers a series hybrid drivetrain marketed as e-POWER in Europe and the U.K.
Building range-extended battery EVs is also a good way for manufacturers to develop experience with all-electric vehicle architecture and achieve economies of scale in production. A series hybrid can ride on the same all-electric platform as a full battery electric variant — as in the case of the Ram 1500 REV and Ramcharger — which is key to keeping manufacturing costs low. (Several Chinese automakers took this route.) In contrast, a parallel plug-in hybrid always shares a platform with its pure fossil fueled siblings.
Finally, the U.S. is embarking on a strategic effort to onshore and “friend shore” the whole EV battery and critical minerals supply chain. It’s going to be a serious challenge. Cutting the size of battery packs in electric full-size pickup and SUVs in half makes that a lot easier.
So are range-extended EVs with 100 mile range the electrified vehicle Americans are waiting for? If they're demanding big vehicles, towing capacity, and long-distance travel away from cities and interstates — e.g. exactly the segments hardest to satisfy with a pure EV — the answer might be yes.
Editor’s note: A previous version of this article used “personal vehicle miles traveled” instead of trips taken in personal vehicles. It’s been updated.
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The tension between the two GOP energy philosophies — one admitting renewables, the other firmly rejecting — could tank a permitting reform deal.
The fate of a House GOP permitting deal stands on a knife’s edge.
During a dramatic vote on the House floor Tuesday, far-right Republicans and opponents of the offshore wind industry joined with Democrats in a nearly-successful attempt to defeat a procedural vote on the SPEED Act, a bill to streamline implementation of the National Environmental Policy Act.
Speaking with reporters off the House floor, GOP lawmakers said that the bill — which has the backing of both the oil and gas sector and some large trade groups that represent renewables companies — faced opposition from a handful of Republicans over language that would block the federal government from rescinding previously-issued permits for energy projects. The tactic is one Trump has used repeatedly to stymie offshore wind projects. Republican hardliners feared that a future version of the deal would take that language further, restricting the president’s power to stall solar and wind permit applications through extralegal bureaucratic delays.
The vote to consider SPEED ultimately passed with a margin of 215 to 209 votes, with two Republicans — Representatives Anna Paulina Luna and Christopher Smith — voting no. Though the bill is alive for now, the outcome casts a pall over the prospects for any permitting deal this Congress because, as Heatmap’s reporting has made clear, there is little shot of a grand deal on NEPA reform without exactly the sort of executive power restrictions Republican objectors feared.
That the bill nearly came up short also illustrates a shift in the GOP’s thinking on energy policy that has gone largely unnoticed. Vestiges of the party remain committed to the philosophy of “all of the above,” but the new generation of lawmakers is more likely to be anti-renewables at all costs. Combined with today’s hyper-partisan environment and narrow majorities in both chambers, that tension makes legislating on energy almost impossible.
Republicans used to approach energy policy in a laissez faire, let-a-thousand-flowers bloom fashion. This fuel-type agnosticism characterized Republicans’ approach to energy policy under the first Trump administration, as well as during the Biden era. Former House Speaker Kevin McCarthy repeated the “all of the above” mantra to nudge his party closer to anything resembling a climate policy, and subscribed to the idea that any permitting deal would have to benefit all types of energy projects.
The SPEED Act closely resembles a McCarthy-era approach to energy policy: just make everything go faster.
It is true that the bill would bind the hands of the executive in some ways, requiring them to get consent from the project developer in order to voluntarily vacate a previously-issued NEPA approval. If someone sued the government because they believed a NEPA approval was invalid and got a federal court to agree, the judge overseeing the case would be barred from immediately vacating the approval or issuing an injunction on construction. This is a big reason why the oil and gas industry supports the bill, as it’s a way to shield the sector from environmentalists filing lawsuits against fossil-based extraction and fuel transportation projects (e.g. pipelines).
But there’s a small irony in the SPEED Act spinning out over offshore wind concerns, which is that if it were enacted today, not even its supporters think it would actually stop the administration from messing with wind projects. As pro-fossil pundit Alex Epstein noted on X, the bill would only limit the president’s authority to revoke approvals under NEPA. It would do nothing to erode presidential power under any other statute, including another one of the administration’s favorite tools against offshore wind, the Outer Continental Shelf Lands Act.
I spoke with two separate energy industry attorneys who confirmed this interpretation. “It would be welcome for whatever the next administration would look like,” Peter Whitfield, a partner at Sidley Austin who works on energy projects, told me of the SPEED Act. “It might not be helpful now.” The bill’s clean energy backers are looking at the legislation as a “long range” play, he said: “They’re not looking at year one, two, three — they’re looking at years eight and after. I think that’s why there is so much enthusiasm in the renewable energy space for reform.”
Another attorney, who requested anonymity because they did not have permission from their firm, confirmed that the bill would stop the Trump administration from exploiting NEPA in the future, but said that nothing in the legislation requires agencies to move forward on energy projects.
It’s that eight-years-from-now future that seems to have the anti-renewables conservative wing in Congress worried. The House is expected to vote on the SPEED Act as soon as tomorrow, but lawmakers will first consider amendments offered by the Republicans who nearly killed the bill, including one that would explicitly bar offshore wind projects from benefiting under any of its NEPA changes.
If those amendments fail, the odds of final House passage are uncertain, although some Democrats who voted against the procedural motion may wind up voting for the final bill. If they succeed and the bill moves to the Senate, Democrats aim to add new ideas on transmission and the renewables permitting freeze that may upset frazzled Republicans even more.
“We would expect that senators wouldn’t endorse a House product,” Frank Macchiarola, chief advocacy officer for American Clean Power, told me in an interview last week. Macchiarola said the language in the House bill “goes a long way towards addressing the problem” of Trump’s war on renewables permits, but that it is “not a perfect product,” though he declined to speak on the record about what would get it closer to ideal. If I had to guess, I’d say that senators will try to provide new avenues for companies to compel an end to the review process, whether through legal challenges or other means of protest.
In other words, grab your popcorn — more drama is coming.
On EU’s EV reversal, ‘historic’ mineral deals, and India’s nuclear opening
Current conditions: Yet another powerful atmospheric river, this one dubbed Pineapple Express, is on track to throttle the Pacific Northwest this week • Bolivia is facing landslides • Western Australia is under severe risk of bushfire.
The Ford Motor Company expects to pay roughly $19.5 billion in charges, primarily from its electric vehicle business. In a press release, the automaker said it would refocus on hybrids and “efficient gas engines,” ramp up manufacturing of batteries for a standalone business, and boost truck production. The battery business aims to churn out 20 gigawatts of capacity every year starting in 2027. But the charges the company faces stem from its decision to abandon multibillion-dollar investments the carmaker made in new assembly lines for electric vehicles, demand for which slowed last year and dipped at the end of this year after the Trump administration phased out federal tax credits in September. “This is a customer-driven shift to create a stronger, more resilient and more profitable Ford,” Ford CEO Jim Farley said in a press release. “The operating reality has changed, and we are redeploying capital into higher-return growth opportunities: Ford Pro, our market-leading trucks and vans, hybrids and high margin opportunities like our new battery energy storage business.”
Ford isn’t the only one accelerating in reverse away from electric vehicles. Last week I told you about the deal the European Union struck between its center-right and far-right lawmakers to curb environmental regulations. Now the bloc has moved to scrap its 2035 target to ban sales of new combustion-engine vehicles. The move would have marked a dramatic sea change in the West’s transportation policy, all but eliminating sales of traditional gasoline-powered cars in favor of battery-propelled alternatives. It’s a sign of Brussels’ broader effort to pull back from green mandates that European President Ursula von der Leyen blames for the continent’s economic malaise.

It could have been worse. The Treasury guidance issued Friday dictating what wind and solar projects will be eligible for federal tax credits could have effectively banned developers from tapping the write-offs set to start phasing out next July. In the weeks before the Internal Revenue Service released its rules, GOP lawmakers from states with thriving wind and solar industries, including Senators John Curtis of Utah and Chuck Grassley of Iowa, publicly lobbied for laxer rules as part of what they pitched as the all-of-the-above “energy dominance” strategy on which Trump campaigned. Grassley went so far as to block two of Trump’s Treasury nominees “until I can be certain that such rules and regulations adhere to the law and congressional intent,” as Heatmap’s Matthew Zeitlin covered earlier in August.
Since the guidance came out on Friday, both Grassley and Curtis have put out positive statements backing the plan. “I appreciate the work of Secretary [Scott] Bessent and his staff in balancing various concerns and perspectives to address the President’s executive order on wind and solar projects,” Curtis said, according to E&E News. Calling renewables “an essential part of the ‘all of the above’ energy equation,” Grassley’s statement said the guidance “seems to offer a viable path forward for the wind and solar industries to continue to meet increased energy demand” and “reflects some of the concerns Congress and industry leaders have raised.”
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Virginia’s outgoing Republican Governor Glenn Youngkin vetoed more energy bills than he signed last year, killing legislation designed to increase rooftop solar and energy storage, boost utility planning requirements, and make efficiency improvements more available to low-income residents. Now that Democrat Abigail Spanberger is coming in to replace Youngkin as the next governor, those bills are coming back, the Virginia Mercury reported. In a column, lawyer and environmentalist Ivy Main called on Democrats to dream bigger. “Data center development is so far outstripping supply side solutions that if legislators aren’t more aggressive this year, next year they will find themselves further behind than ever,” Main wrote. “As more bills are filed over the coming weeks, we are likely to see plenty of bold proposals. Hopefully, legislators now understand the urgency, and will be ready to act.”
Data centers are now “swallowing American politics,” Heatmap’s Jael Holzman wrote recently. Just 44% of Americans would welcome a data center nearby, according to a poll from September by Heatmap Pro.
The 1984 Bhopal chemical disaster in India never resulted in any serious ramifications for Union Carbide, the Dow Chemical subsidiary responsible for the accident that left more than 3,700 dead from exposure to toxic gases. In 2010, India passed a law that threatened to impose full civil penalties on any private nuclear company that suffered an accident somehow. That legislation has prevented all but Russia’s state-owned nuclear company from entering the Indian market. Hoping to lure American small modular reactor companies to India, the government of Prime Minister Narendra Modi has vowed all year to overhaul the civil liability law. On Monday, Modi-aligned lawmakers proposed legislation to reform the nuclear sector and free foreign vendors from financial responsibility for anything that could potentially happen with their equipment.
The renewables industry, meanwhile, is continuing to boom on the subcontinent. The Japanese industrial giant agreed to invest $1.3 billion into renewable power in India in its latest push into green energy in South Asia, Bloomberg reported.
There’s green hydrogen, made from blasting freshwater with electricity made by renewables. There’s blue hydrogen, the version of the fuel that comes from natural gas mitigated with carbon capture equipment. Gray hydrogen is the traditional kind made with natural gas that spews pollution into the atmosphere. And then there’s pink hydrogen, made like the green kind with clean electricity except generated by a nuclear reactor. Orange is the latest color in the hydrogen rainbow, referring to the version of the gas that comes from a chemical process that accelerates production of the gas in natural formations underground. The startup Vema has announced a 10-year conditional offtake agreement with the off-grid data center power provider Verne to supply over 36,000 metric tons per year of “orange” hydrogen for server farms, Heatmap’s Katie Brigham reported.
The startup Vema just signed a new offtake agreement to provide 36,000 tons of orange hydrogen per year for data centers.
Love it or hate it, it’s looking like there may be a good reason to add yet another color to the hydrogen rainbow. In 2022, Florian Osselin, co-founder and CSO of the startup Vema Hydrogen, published a paper in Nature called “Orange hydrogen is the new green,” in which he outlines how to expedite the natural process of hydrogen formation in certain underground geologies, laying the foundation for what the company now calls Engineered Mineral Hydrogen.
Osselin’s startup, Vema, is now announcing a 10-year conditional offtake agreement with the off-grid data center power startup Verne to supply over 36,000 metric tons per year of so-called “orange” hydrogen for data centers. The announcement comes on the heels of Vema’s $13 million seed round earlier this year, which supports the company’s efforts to take its engineered hydrogen experiments out of the lab and into the field.
Vema’s ultimate goal is to produce low-carbon hydrogen at less than $1 per kilogram, making it cost competitive with petroleum-derived hydrogen and magnitudes cheaper than clean hydrogen produced via electrolysis.
“The Earth is generating hydrogen all the time,” Colin McCulley, the startup’s senior vice president of operations, told me. “So those reactions, when they’re close to the surface, are very, very slow and not fast enough to create enough hydrogen to capture.” To expedite natural hydrogen production — which occurs when water interacts with iron-rich rocks underground — Vema will inject water and its proprietary catalyst into suitable formations. The catalyst is designed to increase both the speed and the scale of the reaction, rapidly forming large, commercially relevant quantities of hydrogen.
The company has done extensive exploration and testing, McCulley told me, with the team running over 100 experiments per week for over a year. But though the lab results have been promising, scaling up will be the true test. If the tech is a success, the plan is to begin selling hydrogen in 2028.
“We’re going to start small, in which case we will likely sell truckloads of hydrogen — think 10 tons a day-type scale,” McCulley told me. “The eventual goal is to have on-site — or basically next door — consumption of the hydrogen.” This would eliminate the need to build expensive hydrogen pipelines or transport the fuel via truck. That’s a valuable cost-cutting proposition for producers of clean fuels such as methanol and ammonia, which face steep green premiums and use hydrogen as a feedstock. McCulley also envisions co-locating with data centers.
Right now, the company is starting a pilot project in Canada, and planning for others atr undisclosed locations, where McCulley says there are well-studied deposits of iron-rich rocks that sit relatively close to the surface, ripe for producing engineered hydrogen. West Coast states including Oregon, Washington, California, and Alaska have particularly well-suited subsurface geologies that lie decently close to major metropolitan areas, he explained.
Low exploration risk is a key reason why Vema thinks it’s a better bet than geologic hydrogen companies such as Koloma, which focus on locating and extracting naturally occurring underground hydrogen deposits — no additional stimulation required. But these natural formations typically lie far deeper than Vema is targeting and there’s much less certainty about where they’re located, Vema’s CEO Pierre Levin told me in an email.
“Natural geologic hydrogen depends on complex underground systems with multiple interdependent variables,” Levin, who previously served as CEO of the geologic hydrogen company Hethos, wrote. “With natural hydrogen, you’re at nature’s mercy. [Engineered Mineral Hydrogen] changes the game because we control the subsurface production process, which means predictable, manageable flow rates.”
At the moment, however, investors appear to be lining up behind the geologic hydrogen approach. Koloma alone has raised over $350 million since its founding in 2021 — though it also has yet to produce commercial hydrogen.
McCulley estimates that its hydrogen won’t be cost competitive with fossil fuels until Vema has already completed several large-scale projects, which isn’t likely to happen until 2035 or 2040. “So we need to be able to get through some of these first projects where we’re going to have to sell at a premium price,” he told me. It’s never a guarantee that emerging technologies like this will find patient backers willing to bet on the promise that economies of scale are just over the horizon. The startup is currently raising its Series A, though, and McCulley said he’s seen strong interest from the tech industry in supporting Vema at the price point it’s targeting
The company wouldn’t reveal what price this is, though, and the numbers for its contract with Verne are also under wraps. That deal depends on both Vema and Verne advancing their tech to the point where it’s well-proven and bankable. For Verne, that means demonstrating the viability of its next-generation data center power systems, which include more efficient, off-grid generators capable of running on clean hydrogen. For Vema, it requires completing pilot testing and building a successful demo project. Both sides also have to secure additional funding.
If Vema can pull that together, the payoff looks huge. “If you start producing this stuff at less than $1 per kilogram, the sky’s the limit,” McCulley told me. “The current industrial [hydrogen] gas plants, the biggest ones are, say, around 200 tons per day,” he explained. “We can be five times that from one location.”