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The Changli is weird, about $1,000, and a surprisingly compelling vision of the future.

If you’re trying to solve a problem, it’s unlikely that anyone is going to look over your efforts, scribble things on a pad, scowl, and then say, “Have you tried half-assing it? Really phone it in?” This almost never happens. And yet it's precisely what I think needs to happen for electric cars to live up to their potential. They need to suck far, far more than they currently do. I know this sounds like what many experts would call “a terrible idea” and “stupid,” but I’m confident in this belief for one very notable reason: I’ve lived it.
For the past few years, I’ve used and enjoyed an electric car that is, by the standards of any EV available on the mass market today, terrible. I’m talking about something with about 1/10th the range, about 1/250th the horsepower (and that’s being generous), and maybe 1/5th the maximum speed of a modern EV. These are the sort of specs that should be charitably considered garbage.
And yet, despite it all, what I’ve learned is that not only are such meager capabilities enough for a shocking amount of my transportation needs, the whole experience has been downright fun. Yes, fun.
The car I’m talking about is called the Changli Freeman, and I believe it is the cheapest car in the world. In fact, that was the initial reason I bought it. You see, my job is to write about and do things with interesting cars, so when the pandemic arrived in 2020, that put a real crimp in my usual plans of traveling to people with strange cars all over the country and driving them, on video, to the delight of audiences in the high severals.
So, stuck at home, I hatched a new plan: I’d bring the interesting cars to me! Well, one interesting car, and that interesting car would be the cheapest new car one could buy.
My research brought me to a category of automobile that is known in their native land, China, as 老头乐, something that translates to “old man happy car.” That’s because this type of car is primarily sold to elderly folks in second-tier cities who need something to get to the market or pick up grandkids from school. Slow is just fine, and the legality of these cars, even in their native China, is muddy, at best. But they are definitely cars, of a sort.
At $930, the Changli was the cheapest of the cheap. Add in the necessary five 12V lead-acid batteries, which aren’t included in the base price, and the bill lurches up to $1,200, still absolutely, impossibly, floor-settingly dirt cheap for a new car of any kind.
Oh, and perhaps equally incredibly, I found this car on the website Alibaba.com, and bought it online, just like you would buy a video game console that looks like a Playstation 5 but perversely only plays 40-year-old Nintendo games.
Sure, shipping from China and all of the related customs hassles brought the total cost to about $3,300, but even so, we’re still talking about something wildly inexpensive. We’re still comfortably lying down on that bottom tier, and if you need further proof of this, here’s a video of me when I first got it and had to take it out of the massive cardboard box it shipped in:
Unboxing The World's Cheapest New Car Reveals It's So Much Better Than You Thinkwww.youtube.com
Now, aside from the fact that my new car arrived in a cardboard box, what you should note is my raw, unmitigated delight.
I had been genuinely ready to accept what would effectively be a plastic porta-potty-type body on a crude, flimsy chassis with a chain-driven axle and an effective operational lifespan roughly on par with your average mosquito. But that’s not what I got. What I got was a very cleverly-designed little car with an all-steel body, all the required legal lights and indicators, a windshield wiper, heater, radio with an MP3 player, and even a freaking backup camera. It was so much better than I ever could have imagined.
I later brought the Changli to Munro and Associates, one of the leading vehicular evaluation companies in the world, a place where major automotive manufacturers bring competitors' products to determine how they’re built and how much it costs to make them.
Sandy Munro, who runs the company, was genuinely stunned by what the Changli had to offer, and how it was made:
Sandy Munro Attempts To Demystify The Absurdly Low Cost Of The Changliwww.youtube.com
Remember, these are the reactions of someone who has torn down every major electric car on the market, from Teslas to Fords to BMWs. He knows what he’s talking about.
The specs on the car aren’t exactly impressive: 1.1 horsepower electric motor, 60V of batteries which gave a (tested) range of 27 miles, and a top speed of about 25 mph or so, though something around 20 was more common. My kid is able to run up a hill faster than the Changli can get up it. And yet, somehow, it works.
Here's What The World's Cheapest Electric Car Is Like To Drivewww.youtube.com
It actually does more than just work; it’s a usable transportation solution for far more of my normal transportation needs than I’d have ever guessed. While it may have come into my life as a curio, it very rapidly became an actually useful conveyance.
I used it to go to the grocery store. I sometimes took my kid to school in it, or to a friend’s house. I picked up take-out. I got parts from the auto parts store when one or more of my “real” cars needed repair. I met friends out at restaurants or galleries or clubs in town, and when I did, I could always park where no one else could, nose-to-curb or in tiny nooks behind dumpsters or any number of other small, forgotten spaces.
I did all of the sorts of mundane, low-distance, low-speed personal transportation acts that we all do, and which command a far larger percentage of our day-to-day transportation needs than many of us realize.
Now, I live in an environment where this sort of thing is perhaps unusually possible. It’s a college town, so there’s a lot of fairly dense commerce surrounded by a lot of low-speed streets, which makes it ideal for using a low-speed neighborhood electric vehicle (as it’s technically classed). According to the rules of this vehicle classification, which varies a lot from state-to-state, I can drive my absurd little machine on any street with a speed limit of 35 mph or less, though I think I can cross streets with higher limits.
There’s no highway travel, of course, but that’s not a restriction I’d need to be told to obey, as trying to drive this thing on a highway would be like shoving a sloth into the path of a cattle stampede. Were I to be in an accident with something like an F-150, I’d probably end up accordian’d like a cartoon coyote.
What I learned was that about 75% of my daily transportation needs could be accomplished with this shockingly minimal machine, and, even better, done with more fun than getting in a full-sized car. It was even easier than driving my regular cars! It was quiet and leisurely and everyone who saw this refugee from Cartoonistan greeted it with amused bewilderment or a smile or both.
Compared to a real EV like, say, a Tesla Model 3, this thing is a joke. But it’s a joke that can get to and from the grocery store in about the same amount of time when driving through town, and accomplish pretty much the same job, for a tiny fraction of the price and without hauling around an extra 3,000 pounds of car and battery that were, for the purposes of a trip like a grocery run, just dead weight.
There’s something in the automotive industry known as “vehicle demand energy,” which basically refers to the amount of energy needed to simply put the whole car in motion. The vehicle demand energy of a Tesla or a Ford Mach-E or even a Nissan Leaf is orders of magnitude higher than what the Changli demands, and for an awful lot of driving, that’s wasted energy.
If we’re really serious about using EVs to make a real dent in climate issues and energy usage, then we should adjust our thinking to make room for Changli-type vehicles.
Side by side with a “real car,” the Changli looks like a comical, shrunken subset, but compared to other minimalistic electric, low-speed transportation solutions like an e-bike, it feels like being carried in a luxurious, silken-draped litter. Unlike an e-bike, you’re still enjoying complete protection from the weather, and since you’re not teetering on a pair of wheels, but are rather cozily lounging inside a metal box, you can carry so much more stuff.
That’s why a minimal car-esque EV like the Changli is viable for transporting, say, tubs of Chinese food home or taking your kid to school: It’s a car, not a bike. It’s an obvious thing to note, but it’s a big deal when it comes to actually using the thing.
Sure, you can’t take a roadtrip in a Changli, but you knew that from the moment you looked at it. It is just a case of the right tool for the right job. Live somewhere dense, with a lot of low-speed travel? Maybe a Changli makes sense! Live on a compound and it’s a 45-minute trip if you need dental floss? Maybe not. There will always be a place for long-range, comfortable and safe EVs, capable of high speeds and long road trips, but they don’t need to be your daily driver.
Perhaps many of us will have small, fun, a-bit-better-than-Changli-type vehicles that we drive day-to-day, and then take majestic powerful, long-range EVs on the occasional road trip.
This doesn’t have to be a punishment. I’m a gearhead, I love cars and driving, and I can honestly say my driving experiences in the Changli have been a blast. I even took it to a track event. I’m pretty sure I hit 26 mph, and, like any car at its limit, it was pretty fun, making those bagel-sized tires squeal and feeling that tall, silly body lean and tilt like a drunk on an escalator.
Already in Europe we’re starting to see some realization that this sort of category is viable; French carmaker Citroën has a cheap, $10,000-ish car called the Ami that is classified under European quadracycle laws, which is essentially a category for low-speed city cars, which make a lot of sense the dense urban landscapes found all over Europe.
The Ami’s speed is limited to 28 mph (I suspect it’s technically capable of more), and it can go about 47 miles on a full charge, both of which are enough for the job it’s designed to do. The more I think about cars like the Changli and the Ami, the more I think they should be far, far more common than they are.
If we want to really change the transportation landscape in a way that’s good for the climate, is less demanding on the difficult rare-earth resources required to make EV batteries (for the resources that go into the battery of one full-range and power EV, you can likely make at least three short-range-use EVs), and yet still preserves so much of the personal transportation freedom that we’ve all grown to expect, then its time to really think about scaling down the sorts of vehicles that we use for all the little drives we do.
And, remember, it’s not a punishment. It’ll be fun. I know, because, again, I’m doing it, in the most minimal, ridiculous way possible.
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Lunar Energy’s latest AI-powered system aims to integrate EVs into the automated demand response mix.
In theory, it’s straightforward to assemble the smart energy home: Solar panels, home backup batteries, and electric vehicles, plus smart thermostats, heat pumps, and water heaters — all the individual pieces can be had for the homeowner who can afford the up-front cost. The challenge is getting all those pieces to talk to one another.
Bay Area-based Lunar Energy is one of the tech firms that’s been trying to crack this problem. Today, it announced an upgraded version of its artificial intelligence-powered home energy control system, which not only integrates all those separate systems but also responds tactically to energy markets. CEO Kunal Girotra told me Lunar AI saves its users money by monitoring their home 24/7 and making decisions to charge, not to charge, or discharge so that they save the most money.
“Utilities are all moving to almost-real-time changes of rates,” he said. “You need software to handle that for you. I think that the race is on for who has the best AI machine learning algorithms to save the most amount of money. And so far, we seem to have a head start.”
Lunar’s first-generation system focused on generation, storage, and control. In other words, it connected elements like a home’s rooftop solar panels with the backup battery the residents might keep in the garage, using the AI to decide when to meet the home’s real-time energy needs with solar versus grid energy versus stored power. What it didn’t have was the ability to work with electric vehicles to manage charging and use the car’s battery as a bonus source of energy.
To fix this, Lunar has built its own bidirectional EV charger — one that can charge up the battery or discharge the car’s battery for a secondary use, like backing up the home’s power supply. Girotra, formerly the head of Tesla Energy, told me the problem with that functionality to this point has been the connection point between the car and the home electrical system. Carmakers and other companies in the space didn’t have the deep experience with electrical certifications to make the process seamless, he tells me. That led to setups like the original Ford Charge Station Pro, which required several different wall-mounted electrical boxes to connect the F-150 Lightning EV to the home.
Lunar’s charger is built to connect to its customers’ existing home Lunar energy system, which includes a microgrid interconnect device they call Lunar Bridge that islands the home in case of a power outage on the grid. In that way, the power stored in the EV battery is ready to back up the home in case of a blackout without any additional work — or to be optimized as part of a fully smart home that’s making money as part of a virtual power plant.
The company’s setup allows for another fun feature: “slow” charging that’s not slow at all, but actually two or three times as fast as the Level 2 charging most EV owners use to recharge their batteries overnight. Electric cars in the U.S. can typically take on only about 11 kilowatts of AC power from one’s home because of the limitations of their on-board hardware. Because Lunar’s system is fully DC, however, Girotra said the company decided to build a DC home charger, one that — like a Tesla Supercharger or other DC fast chargers out in the world — isn’t limited by that power cap. Lunar said it could use a combination of power from the grid, home solar, or home batteries to charge an EV at up to 25 kilowatts. That’s enough to recharge an EV in three to four hours rather than six to eight.
“If the standards get high, and if everybody sees cars can get charged in three hours, then all of a sudden people are like, ‘Wow, this is how I want it,’” he said. “Especially for 25% of the users who are like me, who always are running low on charge and they don’t mind a boost every now and then.”
Some of the other improvements in the second-gen system are more incremental. An inverter that’s 40% more powerful helps Lunar get its system up to enterprise scale. That’s crucial, as the world moves toward a place where more homes and businesses employ battery backup systems. Lunar’s new batteries come in modular 5 kilowatt-hour blocks ranging from 10 kilowatt-hours to 30 kilowatt-hours in a single unit and scale up to 300 kilowatt-hours for home or small commercial use; there’s also new pad-mounted configurations with capacity up to 1 megawatt-hour.
Batteries, though, are the simple part. Everyone from EV makers like Rivian to utilities like Octopus Energy is racing to make a person’s or a business’s batteries and solar panels and electric cars work for them, using the power of AI to account for moment-to-moment changes in energy prices and supply. Lunar’s new tech makes the case that the most important element is a single brain to integrate every last smart, electrified thing in your house.
The fundraise comes on the heels of a $50 million grant from the Department of Energy.
Almost all lithium-ion batteries on the market rely on graphite for their anodes, more than 90% of which is processed in China. That concentration has created a chokepoint in the Pentagon’s supply chain as the military increasingly turns to batteries to help its transportation network operate more quietly and reduce reliance on complex refueling logistics.
So when Congress passed the latest National Defense Authorization Act at the end of 2025, barring Chinese-linked battery materials from military use starting in 2028, Coreshell saw an opening. While the California-based silicon-anode battery startup had previously focused on automakers as its beachhead customers, it’s now shipping its first battery cells to the military for use on Navy ships and Army ground vehicles. On Wednesday, Coreshell announced a $30 million Series B to scale up manufacturing operations to meet the needs of this growing customer base.
“We’re entering a new stage where we’re no longer, I would say, demand limited,” Coreshell’s CEO Jonathan Tan told me. “This year we’ve had to put on second and third shifts, work nights and weekends, just to get the product out the door.”
Coreshell sets itself apart by going a step further than the NDAA requires. The law doesn’t make suppliers trace battery materials all the way back to the mine, which would be exceedingly difficult given China’s dominance across the battery supply chain. But Coreshell has nevertheless eliminated Chinese sourcing from its anodes by replacing graphite with silicon mined and refined in the U.S. by Ferroglobe, one of its Series A investors.
Ferroglobe and global investment firm Access Industries led the latest round, with defense contractor ADS also joining as a new strategic investor. The financing comes on the heels of a $50 million Department of Energy grant that Coreshell secured in August as part of a program to strengthen the domestic battery supply chain. That funding will support the company’s first commercial-scale facility, a 2-gigawatt-hour factory.
That’s about 20 times the size of the 100-ish-megawatt-hour plant the startup had originally envisioned, as the DOE grant has allowed Coreshell to “expand much further than we were originally expecting,” according to Tan. The company is now evaluating several potential U.S. sites and expects to announce its selection early next year. For now, it relies on unnamed contract manufactures, along with its small pilot line in San Leandro, to produce its cells. But once the gigafactory gets up and running, the startup plans to bring electrode production in house by 2028, followed by full cell assembly in 2029.
Building this plant will ultimately require significant additional capital. But Tan believes this latest vote of confidence from the federal government will help Coreshell to diversify its capital stack as it continues to fundraise. “That’s one of the great things about having such a notable DOE award is that it also allows us to attract multiple forms of capital,” he told me.
Silicon has long been recognized as a promising alternative material for battery anodes, as it can store far more energy than graphite. The catch is that it tends to swell during charging, causing it to break down quickly and ultimately leading to a much shorter cycle life. Coreshell says it’s extended its anode’s lifespan by giving it a proprietary coating, which Tan told me back in April essentially means “painting the inside of your battery” with an ultra-thin protective layer.
Other companies, such as Sila Nanotechnologies and Group14 Technologies, are also working to commercialize silicon anodes. But Coreshell says many of its competitors rely on more highly engineered, expensive forms of silicon, such as silane gas. By contrast, Coreshell uses metallurgical silicon, a cheap, raw commodity already widely used in aluminum alloys. That, Tan argues, gives the company a cost advantage not only over its competitors, but potentially Chinese graphite too.
Coreshell hasn’t yet demonstrated that its cells can meet the performance demands of the automotive industry, however. When the company raised its Series A in early 2025, it said it expected its automotive cells to exceed 1,000 charge cycles while retaining 80% of their original capacity. But Tan told me many defense applications don’t require such demanding performance targets, as Navy ships and ground vehicles are “not intending to have as many miles or missions or use cases on that same battery” as a consumer EV would.
That doesn’t mean the company is abandoning its automotive ambitions. As Tan pointed out, electric vehicles remain by far the largest source of global and domestic battery demand. “It’s natural for us to obviously utilize the security supply chain first,” he told me. “That allowed us to really get to commercialization, revenue, and production faster, because automotive qualification is this longer journey. But ultimately, we want to do both of those and more.”
Current conditions: A large storm is roaring across the Northeast that will shower Michigan and Upstate New York with rain and snow by tomorrow • AccuWeather declared an early end to the 2026 Atlantic hurricane season, which saw 10 named storms and only one hurricane in October, breaking a 121-year record for the latest first hurricane • It’s a mild, cloudy day at the Rethondes Clearing in France’s Forest of Compiègne, where the armistice that ended World War I was signed 108 years ago today.
Inflation is ticking up again, and faster than expected. That’s my colleague Matthew Zeitlin’s read on the latest numbers from the Bureau of Labor Statistics. Preliminary data from Heatmap and MIT’s Electricity Price Hub shows that electricity prices in particular spiked nearly 8% to 19.9 cents per kilowatt-hour in October from 18.5 cents in the same month last year. But that’s largely due to a change in the timing of a bill credit in California. Without that, the year over year price jump was just under 4%.

Ontario Power Generation, the state-owned utility in Canada’s most populous province, admitted in a public filing Wednesday that its megaproject to build the first small modular reactor in the rich world is costing a lot more than planned. The company is constructing the world’s first BWRX-300, the flagship reactor from GE Vernova Hitachi Nuclear Energy, at its Darlington plant. The project is an attempt to revive construction of atomic power stations in North America, Europe, and Japan by building the inevitably costly first-of-a-kind unit that can then be replicated at what the developers say will be a decreasing price. Using billions in Canadian ratepayers’ money to essentially de-risk an American-Japanese technology ruffled some feathers among the country’s nuclear boosters, who told me last month they want to see Ottawa approve construction of more of the Canucks’ homegrown reactor. In its latest earnings report, OPG said the BWRX-300, known as DNNP Unit 1, “is no longer expected to achieve the previously disclosed commercial operation date target of October 2030 or be completed with the previously disclosed estimated cost of $7.7 billion.”
Amid a flurry of funding cuts in the early days of the current Trump administration, the Department of Energy canceled an $87 million grant to the green cement startup Sublime Systems. In response, the company sued for damages. This week, the Somerville, Massachusetts-based firm filed legal documents accusing the agency of “refusing to comply with its basic discovery obligations and the schedule” for the case.
“The government has repeatedly delayed responding to Sublime’s discovery requests, and now the government is refusing to even meet and confer with Sublime until some indefinite date in the future,” read the joint status report filed with the U.S. Court of Federal Claims. “The upshot is that, as of today, the government has not produced a single document in response to Sublime’s requests for production (served nearly two months ago), it has provided no timeline by which productions will be completed, and it is refusing to search for core documents related to the May 2025 mass termination at the heart of this case.”
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The Energy Department’s Office of Energy Dominance Financing, formerly the Loan Programs Office, closed a $480 million loan for a Texas-based company’s effort to modernize and boost production from 22 offshore oil and gas platforms in the Gulf of Mexico. Arena Energy, the Woodlands, Texas-based company behind the initiative dubbed Project Elkhorn, said that the initiative will add 38,600 barrels of oil per day and up to 77 million cubic feet of natural gas per day to U.S. energy output.
“The United States is the world’s largest producer and exporter of oil and natural gas, and thanks to President Trump, American energy production will continue to grow,” Secretary of Energy Chris Wright said in a statement. “By providing financing for projects like Project Elkhorn, the Energy Department is expanding domestic production and strengthening our energy security to power American prosperity for decades to come.”
QuantumScape emerged years ago as the frontrunner in the race to commercialize solid-state batteries that last longer, charge more quickly, and function better under harsh conditions than liquid-based lithium-ion packs. On Wednesday, the San Jose, California-based startup unveiled what it called in a press release its “next-generation open platform for all-solid-state batteries.” Dubbed Osprey, the cells “deliver the world’s first public data demonstrating a sulfide-based cathode cycling 1,000 times under just one atmosphere of pressure.” In other words: “an unmatched capability that is necessary for automotive solid-state batteries.”
“Osprey is a next-generation platform that is built on our same core technology, the ceramic separator and anode-free design,” Siva Sivaram, QuantumScape’s chief executive, told me in an email last night. “It will allow us to provide the unique benefits of our ceramic separator to developers of all-solid-state batteries using sulfide-based cathodes.” The company plans to start mass producing its cells in 2028, he said.
Bill Gates boasts that he has committed more of his fortune to fighting climate change than virtually any other rich man in the world. But a new investigation by ProPublica found that he’s ramped up his investments in a landfill company, Republic Services, that spews millions of tons of greenhouse gases into the atmosphere. “It seems very likely that Bill Gates has the power to influence Republic’s behavior to make it more climate-friendly, even if that costs the company profits,” Ann Lipton, a legal scholar who studies corporate governance at the University of Colorado, Boulder, told the outlet.