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Honda invited us out to its US R&D Center in Torrance, California to drive the new fuel cell plug-in hybrid version of the CR-V, which gets released later this year. Is this first-ever hybrid between a battery EV and fuel cell EV the future of electric cars?

Honda’s CR-V e:FCEV (say that ten times fast) is the first in a new generation of Honda’s fuel cell technology, much improved over the hydrogen fuel cells in its earlier fuel cell vehicles, the FCX and Clarity (the Clarity’s fuel cells are now being used for stationary power generation applications).

The new generation reduces cost and increases durability, using fewer rare elements and giving better cold weather performance, among other improvements.

This fuel cell stack has been paired with a 17.7kWh battery, much larger than that on most fuel cell vehicles, good for about 29 miles of battery-electric range, and 270 miles of total range. Most FCEVs have a small battery to act as a buffer between the fuel cell stack and the electric drive units, but the e:FCEV expands on that to offer an actual traction battery that can be recharged by plugging the car in.

It’s a novel solution, which we haven’t seen in any other vehicles yet. And there are some ways that this works – a FCEV is an EV anyway, and has a buffer battery regardless, so you’re not changing much in terms of complexity by just making that battery big enough to drive the vehicle on its own. And you are certainly adding more practicality, potentially allowing daily driving to be done on electric and keeping hydrogen fillups less frequent.

But a novel solution may or may not be the right solution. So, is this e:FCEV the next big thing, or just an interesting one-shot?

Honda CR-V e:FCEV First Drive

I’m going to try to keep the drive segment short (update: whoops, I didn’t), because I think there’s more interesting discussion to be had around the philosophy of this vehicle, rather than the actual implementation of it. We’ll get to that.

At its core, the drive experience of the e:FCEV is quite similar to that of Honda’s regular gasoline-powered hybrid CR-V. The CR-V is Honda’s most popular vehicle and one of the best-selling cars in its segment (behind the RAV4 and Model Y), so it’s a pretty known quantity here.

It comes in two colors – white or gray

The exterior looks extremely similar to the gas CR-V, though if you know what you’re looking for you’ll be able to see differences. These are mainly in the longer front overhang, different grille (larger on the FCEV than hybrid – for more cooling, oddly enough), and different taillights. Plus the lack of exhaust pipes, of course.

The interior is very close to the existing CR-V, but uses some upgraded more-sustainable materials, which should be attractive to the likely more-sustainably-minded customer base that Honda is looking for with this car (though this leaves one to wonder: if these materials are more sustainable, why can’t Honda just use them on the gas versions of the car, where much higher volume will have a bigger effect on overall sustainability?)

I do quite like the “honeycomb” dash pattern, where the air conditioning vents live. It’s a cool-looking design feature, and reasonably functional as well. Though it seems like it could be tough to clean or repair.

The screen is 9 inches, and has wireless CarPlay and Android Auto, which you’ll probably stay in most of the time unless you want to look at the “energy flow” display to get a sense of whether the battery or fuel cell is currently powering the vehicle.

The biggest interior change is in the rear, where the hydrogen tanks have been placed behind the seats, meaning a significant chunk has been taken out of the rear cargo area.

Honda’s solution to this is pretty clever, turning the rear into a two-tier cargo area. By lifting a shelf from the loading floor and placing it on rails behind the tank area, the upper cargo area is made flat with an additional storage cubby underneath. Rear seats can be folded down to make a longer flat cargo area, which Honda said is plenty enough to hold a bike (and then, you’ve still got room under the shelf for a bag, or groceries, or whatever).

Otherwise, the interior is comfortable, functional, and nice. You get what you think you would get out of the third-best selling car in America’s most popular segment – nothing funky like a drop-down 27″ TV or “taco trays.” just the sort of workmanlike effort one would expect out of Honda.

But this familiarity also means the experience is similar to gas Hondas, which is something that we, the EV faithful, have mostly moved beyond. To start up the car, you need a key (gasp), you need to put your foot on the brake (okay), you need to press a start button (gasp), and you even need to turn it off when you get out (riot!!).

When you do press that “power on” button, you can hear the car “start up” with a distinctive (and honestly pretty cool) “whoosh” sound, more audible outside than inside, which is the sound of the fuel cell stack sucking in air to be used in the fuel cell reaction. This reaction combines hydrogen gas stored in an onboard tank (H2) with oxygen (O) extracted from the air to form H2O, plain water. This water exhausts (drips) from a small pipe near the tire.

The car’s accelerator pedal is responsive, but power is not that strong (and despite that, it’s still pretty easy to chirp the tires with the front-wheel drive powertrain). Peak power is 174hp (130kW), about 80kW of which comes from the hydrogen fuel cell stack (after accounting for system losses). The remainder comes from the battery, though this is also dependent on battery state of charge, so you’re going to end up somewhere in the mid-100s in terms of peak horsepower.

So it’s not that much oomph, especially given the ~500 extra pounds the e:FCEV weighs over the hybrid CR-V (Honda didn’t have a final curb weight number for us, but it sounds like it’s somewhere in the ~4,300-4,400lb range).

If you’re looking for a punchy, sporty, electric acceleration experience, you won’t get it here. But if you’re looking for something a little more responsive than your midsize gas SUV, and that can get up to speed without as much choking drama from a gas engine, then the e:FCEV could offer a pleasant change.

Modes upon modes

The car has four drive modes: Sport, Normal, Econ, and Snow. These modes change throttle mapping and “smooth out” accelerator inputs, with some modes reducing the power used by the HVAC system. Sport mode also comes with “Active Sound Control.” We’ll get to that in a moment.

In practice, like with most vehicles, I found that I liked sport mode the best. This is not because it’s the fastest, but because I want control of my vehicle. I do not want my throttle inputs artificially slowed down (if I wanted that, I’d drive a slow gas car), I don’t want to be missing the full power at full throttle, and I don’t need a car to force me to drive economically because if I wanted to do that, I can just lift my foot a little and get the same results as if I was in “Econ” mode.

If I’m on a beautiful nature drive, I don’t want to hear a fake gas engine

But the problem with this is that sport mode’s “Active Sound Control” makes it sound like there’s a gas engine in the car. It’s not as loud, rumbly and disruptive as the actual gas engine in the hybrid, and it doesn’t sound exactly like a gas engine, but the pitch is closer to a gas engine than most “fake EV noises” we’ve heard, and doesn’t sound very “futuristic” (for the record: those noises are also dumb).

There is no way to turn off this sound in sport mode, but at least it’s only present in sport mode. If you want to drive in the most responsive drive mode, you have to listen to an MP3 file of motor noise whenever you accelerate or decelerate.

Regenerative braking: no one-pedal

Deceleration comes in the form of a blended brake pedal, which activates regen or friction brakes depending on how far down you’re pressing it, or in the form of regenerative braking which is accessible through paddles behind the steering wheel.

Though unlike many EVs where these paddles allow you to set a regen level and then forget about it (whether for that drive, or permanently), the regen level on the e:FCEV resets a few seconds after you stop using it. So this means that every time you stop the car, you need to press the paddle for the car to remember your regen settings.

This method, again, is a carryover from the hybrid CR-V, which has similar paddle operation. You could think of it more like paddle shifters on a manual transmission vehicle, controlling the amount of engine braking you’re getting.

But any setting isn’t particularly strong in the regen department, and even in the maximum “D with four down-arrows next to it” regen mode, the car is not really meant for one pedal operation. And it has a creep which can’t be turned off (though there is a brake hold button).

EV vs. fuel cell mode

So that’s two separate modes, drive mode and regen mode. But there’s another mode selection, e-mode, allowing you control over which powertrain you’re using. This lets you either drive fully on “EV”, to “Save” your battery level, to “Charge” your battery, or to let the car figure it out on “Auto.”

In practice, we tried to start in EV mode and immediately dropped out of it and were unable to switch back into it. The car only has limited power in EV mode, because the battery doesn’t put out as much power as the fuel cell stack. So if you ever call for more power than EV mode can provide (which car journalists are obviously going to do during a test drive), the car kicks into Auto mode. And since fuel cell stacks don’t like to be turned on and off all the time, once you’ve turned it on, it stays on for that whole drive, until the car is powered down.

A V2L adapter allows 1500W of power output, utilizing both battery and fuel cell for lots of energy

When you’re not in EV mode, the car won’t tell you how much electric-only range you have left, but it will idle the fuel cell stack and use only battery when fuel cell power is no longer required.

So we were having trouble thinking of how these modes would be useful, since it seems like the car will usually be in Auto mode. Honda mentioned that owners would likely get used to the light-foot requirement for staying in EV mode over the course of ownership. One employee said that, with practice, he can easily keep his hybrid CR-V from turning on the engine when he’s just driving a few blocks. I’m willing to believe this.

Honda also said that “save” or “charge” modes could be useful, for example, when you know you’re heading to fuel up at a hydrogen station during a trip, so you can be sure to leave the station with full charge and a full tank.

Wait, a tank?

Okay, so now we’ve described the drive experience, which was… fine. It’s clear that the car is influenced mainly by the gas/hybrid side of things, rather than the EV side of things, and it’s not nearly as punchy as the best-selling vehicle in its class (and the world). But it’s got a nice interior and it gets you around town without trouble.

But the big gray elephant in the room is how you get that energy into the vehicle to begin with, and for the e:FCEV, most of that energy is going to come from hydrogen. And most of that gas comes from another gas, methane (also greenwashingly known as “natural” gas, also known as a greenhouse gas 28x more potent than CO2 that tends to escape when we frack for it) which produces 95% of the hydrogen we get in the US through a process called steam reforming.

So in practice, a hydrogen car is a methane car, at least right now. Well-to-wheel, it offers greater total thermal efficiency (turning fossil fuel energy into forward motion) than a gas vehicle would, but lower efficiency than if that methane gas were used to generate electricity and charge a BEV.

How efficient various vehicle types are. Source: US Dept of Energy

But hydrogen can also be produced through electrolysis of water, where electricity, preferably generated via surplus renewable energy, is run through water to break it down into hydrogen and oxygen. This is the reverse of the reaction that makes a fuel cell work – put electricity into water to break it into hydrogen and oxygen, put hydrogen and oxygen back together to make electricity and water.

This has been called “green hydrogen,” as opposed to the “gray hydrogen” which is the vast majority of current hydrogen production (see more about the confusingly-named “colors” of hydrogen here).

If fuel cell vehicles were fueled by green hydrogen, they would suddenly become a lot cleaner – just like how BEVs get cleaner when fueled by solar rather than coal.

The hydrogen filling nozzle has a very… industrial look to it

But it’s not as easy to build a hydrogen electrolysis machine in your garage as it is to put up solar panels on your roof. It’s easy enough to make hydrogen through electrolysis, it’s harder to capture it, and it takes a lot of effort to pressurize and store it in the amounts needed to fuel a car. None of these are impossible steps, but there are thousands of solar installers, and not much in the way of home hydrogen pumps (Honda tried it before, using a home’s methane gas lines to produce hydrogen rather than electrolysis, but it didn’t get anywhere – we spied the defunct demo unit in the corner of the parking lot).

So to fill up this car, you’re going to go to hydrogen stations, which so far are getting 95% of their hydrogen from methane. Compare this to ~36% of California’s electricity coming from methane, and dropping.

And why are we comparing to California specifically? Because that’s the only place the e:FCEV will be available. Honda says the reason for this is because California is the only state with a robust network of retail hydrogen stations.

This is true, but California is also the state that requires Honda and other manufacturers to comply with selling a certain percentage of zero emission vehicles or face penalties. This has influenced automakers, including Honda, to release EVs as California-only vehicles in the past (often paired with emphasis on the vehicle’s qualification for a carpool sticker – the e:FCEV qualifies, by the way).

California’s hydrogen stations are largely centered around its two major population centers, Los Angeles and San Francisco, with sparse coverage in The Lands Between.

California Hydrogen Stations Map, from the Hydrogen Fuel Cell Partnership

These stations will fill your hydrogen vehicle quicker than an EV on a DC fast charger. Fuel cell advocates say that it only takes about 5 minutes for a fill-up.

In practice, it often takes longer, depending on ambient temperatures, how recently the station has been used by another car, and whether or not there’s a months-long supply disruption which meant half the stations in the state were shut down.

That disruption seems to be over now, but just one month ago Shell decided to shut down its hydrogen fueling stations in the state, which probably doesn’t feel great if your local filling station is suddenly gone and the next one is potentially miles away.

Honda’s philosophy – don’t put all eggs in one basket

Despite these challenges with hydrogen, Honda reminds us that that’s why this vehicle is a plug-in hybrid – in the event that something like this happens, it can still be powered with the battery, and most people can still use it for their daily tasks with 29 miles of battery-electric range, which can be easily charged at any level 2 charger, or even level 1 in a pinch.

This keeps with a philosophy the company repeated several times – that it doesn’t want to commit everything to BEV, like the rest of the industry seems to be doing, thinking that there are applications to which fuel cells would be more suited than BEV.

Honda is using old Clarity fuel cell stacks as stationary power units for buildings

To be frank, this is a correct statement. There are applications where hydrogen would be a better fuel. Heavy duty and/or long haul applications especially would benefit from higher energy density and faster refueling, and the downside of sparse hydrogen infrastructure wouldn’t be as bad for vehicles with more-fixed routes and planned depot stops (plus, the federal government just laid out a plan to support this). In this vein, Honda is working on bringing hydrogen to commercial trucks, which is a worthwhile effort.

But it is commonly thought that one of the applications where hydrogen is not a better fuel is in consumer vehicles. That is a thought that we here at Electrek tend to share. And in fact, Honda’s CEO Toshihiro Mibe shares it too.

Honda stated to us repeatedly that the case for hydrogen would get better in the long term, even in consumer vehicles, but I don’t see this being the case. Hydrogen infrastructure is sparse yet, is not cheaper or faster to build than plugs, there isn’t as much effort being put into it, there isn’t as much demand for it, and while the cost of a fuel cell stack is likely to come down quite rapidly (Honda has brought costs down 2/3 in this generation alone, an impressive feat), the trend lines just don’t look like they will reach the point where FCEV is the right choice.

Honda’s next-gen fuel cell stack is 2x as durable, but 2/3 cheaper to produce than the previous generation, though the e:FCEV maintains the same warranty as the Clarity

In fact, we journalists asked several different ways, and Honda declined to comment each time, about what the price of this vehicle would be, what it costs to produce, when or whether Honda plans to make a profit on it, and so on. All we got was that it would be lease-only and some amount of free hydrogen – which costs ~$36/kg right now, which is a fuel cost of 47c/mi, approx. equivalent energy cost to a 10mpg gas vehicle in CA right now – would be included in the lease.

While the question of Honda’s cost to produce these doesn’t really matter (for consumers, price is what matters, and for Honda there can be other considerations too), the underlying implication of our questions was: are you serious about this program? Is it going to last long-term? Is it really part of your business plan? Will it grow fast enough? Or is all of this just a science project?

After all, Honda told us it has been working on hydrogen vehicles for 40 years now, and yet that progress has yielded a vehicle program which plans to sell around 300 vehicles in California per year.

300 vehicles.

In California.

In a year.

Last year, Tesla, a company which has existed for 20 years and been selling volume-produced vehicles for 12, sold 230,589 vehicles in California – one out of every eight cars sold in the state. It sold the best-selling vehicle in the state and the second-best-selling vehicle in the state. All of these vehicles were battery-electric vehicles.

In the same year, Honda sold zero battery-electric vehicles in CA. That will change this year with the Ultium-based Prologue, which Honda plans to start selling in big volume numbers, but the e:FCEV will remain hand-built, in the same Ohio facility that made the hybrid NSX.

We don’t doubt that Honda will find 300 customers for this vehicle, but in a state with over 30 million cars, it’s a rounding error on a rounding error. Honda wants this program to help create demand for hydrogen, so that people will build filling stations. It has invested in First Element, a hydrogen fueling startup, to this end. But it did not commit to building its own hydrogen stations, unlike we’ve seen some other companies do when pushing a new fuel type (that seems to have turned out pretty ok).

Worse yet, I’ve written a similar paragraph before, about the Mazda MX-30. That was a small-production EV from a Japanese company that was only available in California (though a PHEV version of it was available in Europe) and didn’t meet the moment for the market it was entering. I can’t help but see the comparisons.

Honda says that it wants to be carbon neutral by 2050, with 100% of its new vehicle sales being electric by 2040 (though that will have to be sooner in California, and other states, and Europe). By 2030, it plans to offer 30 new BEVs globally and 15 new BEVs in North America.

But the climate crisis is happening now, and Honda mentioned multiple times to us that it is the largest internal combustion engine manufacturer in the world. This means that it can make the biggest positive impact by changing rapidly, and has a high responsibility to do so, given its products’ outsize fraction of global emissions.

So it’s really not the time for testing the market, for attempting to build demand, for pushing a technology that is clearly not the path forward in consumer vehicles. Everyone else has moved on, and BEVs are selling in the millions, monthly, and Honda is still futzing around with science projects.

The industry, and the world, need bigger efforts than this. California-only, lease-only vehicles available in the hundreds are so 2012.

But at least the Prologue exists, an EV that will be sold in significant numbers, and with a more EV-focused philosophy behind it – less of a direct translation from a gas hybrid vehicle. Honda (along with Nissan) does seem more realistic about EVs than some of its Japanese counterparts, particularly under Mibe’s leadership.

And so, all of this means that we struggle to find the importance of the e:FCEV program. While a plug-in fuel cell vehicle is a neat first that does offer better synergies than a gasoline plug-in hybrid (and frankly, we’re amazed nobody thought of this before, it seems obvious in retrospect), the e:FCEV is still steeped in the philosophy of gas vehicles, and of dipping one’s toe in the water, when everyone else at the pool party has been having a great time for a decade now.

The Honda CR-V e:FCEV will be available later this year as a lease-only vehicle, in California only. Pricing has not yet been announced.

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DOT opens public comment on plan to hike fuel costs during affordability crisis

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DOT opens public comment on plan to hike fuel costs during affordability crisis

This week, the US Environmental Protection Agency proposed a plan to make cars less efficient when Americans are already paying record-high energy bills during an affordability crisis fueled by tariff-driven inflation. That plan is now up for public comment.

Since the beginning of this year, the occupants of the White House have been on a mission to raise costs for Americans.

This mission has encompassed many different moves, most notably through unwise tariffs.

But another effort has focused on changing policy in a way that will raise fuel costs for Americans, adding to already-high energy prices.

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This specific rollback focuses on a rule passed under President Biden which would save Americans $23 billion in fuel costs by requiring higher fuel economy from auto manufacturers. By making cars use less fuel on average, Americans would not only save money on fuel, but reduce fuel demand which means that prices would go down overall.

The effort to roll back this rule was initially announced on the first day that Sean Duffy started squatting in the head office of the Department of Transportation. Duffy notably earned his transportation expertise by being a contestant on Road Rules: All Stars, a reality TV travel game show.

Then in June, Duffy formally reinterpreted the Corporate Average Fuel Economy (CAFE) standard, claiming falsely that his department does not have authority to regulate fuel economy.

Republicans in Congress even got into effort to raise your fuel costs, as part of their ~$4 trillion giveaway to wealthy elites included a measure to make CAFE rules irrelevant by setting penalties for violating them to $0. In addition, it eliminated a number of other energy efficiency and domestic advanced manufacturing incentives.

Duffy’s department then told automakers that they would not face any fines retroactively to 2022, which saved the automakers (mostly Stellantis) a few hundred million dollars and cost American consumers billions in fuel costs.

Then, finally, earlier this week, Duffy formally announced the proposed changes to the CAFE rules, lowering the required fuel economy for 2022-2031 model year vehicles, even despite all of the other changes in trying to make the rules unenforceable.

The theory behind this would be to make it harder to later enforce the rules, and to allow automakers to get off with more pollution, and to increase fuel demand and fuel prices for longer until a real government returns to power and starts doing its job to regulate pollution.

Specifically, the announcement changes the planned 2031 50.5 mpg target to 34.5 mpg, cutting vehicle efficiency by nearly a third, which will lead to a commensurate increase in your fuel costs (note: CAFE numbers are calculated differently, and tend to look higher than actual mpg numbers).

The regulation even explicitly describes ballooning vehicle sizes in a positive light, which is ironic given that at the same event, Mr. Donald Trump, the convicted felon who directed this change to begin with, also quipped that he wants to bring tiny Japanese kei cars to the US, displaying his lack of knowledge of why he was even in the room to begin with.

If President Biden’s regulations were retained through 2031, average fuel economy would have tripled since the 1970s, when CAFE targets were first put in place. In the last two decades, CAFE targets helped drive a 30% improvement in average fuel economy, saving an average of $7,000 over the lifetime of an average vehicle – and they did this without increasing vehicle prices.

Despite that the dictatorial regime proposing such braindead rule changes would rather just push its oil company funders’ demands through without having to consult the people it will harm, these rulemaking procedures are still governed by the Administrative Procedures Act. This law requires the government to accept public comments and to take into account and respond to substantive comments posted to the docket related to the rulemaking procedure.

And so, you can now leave your own comments on whether or not you think this plan to make cars larger, more dangerous and less efficient, thus raising your fuel costs, is a good one or not.

Comments can be submitted through this link. Information for the docket can be found at docket number NHTSA-2025-0491. The comment period ends on Jan 20 at 2026 at 11:59 PM EST (yes, that superfluous “at” is from the NHTSA’s docket, wonderful attention to detail from the fake lawyers running the place).

Another of the administration’s recent plans to raise your fuel costs, the EPA’s plan to increase gas prices by $.76/gallon by deleting climate science, was recently posted and received 568,326 comments, the vast majority of which opposed the plan. Public comment on that plan is closed now and the EPA is sifting through the mountain of comments made, trying to figure out a way to kill people and raise energy costs in service of their oil masters despite massive public opposition in a country that is supposed to be a democracy.

That plan also received a virtual public hearing where commenters could call in with their thoughts, held over a few days, during which a vast majority opposed the plan. We’re not aware of a similar hearing for this plan yet, but we’ll let you know if we hear about one.

And despite many readers’ probable initial reaction that the unqualified dictator pushing these plans won’t be interested in hearing your comments, it should be noted that improper rulemaking has and will continue to result in certain rules being thrown out in court. There is a legally required method to how the government makes rules, and courts can throw out regulations that do not follow the proper method. Part of that method includes seeking public feedback, and this is your chance to enter your thoughts into the official government record on this regulation specifically.

Public comments on this ridiculous plan are open through Jan 20, 2026 at 11:59 PM EST, 8:59PM PDT. Comments can be submitted here. In case you get lost, the docket code is NHTSA-2025-0491. DOT/NHTSA has to respond to legitimate concerns made during public comment periods or else the rule could be voided (as was the case for 90% of the cases the NRDC challenged last go around), so the more substantive your comment, the better.


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I got a 5-ton electric tractor from China. Here’s what showed up

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I got a 5-ton electric tractor from China. Here’s what showed up

When a 40-foot container rolled up to my property and the doors swung open, I finally got to meet a machine I’d only last seen half-finished on a factory floor in China. Sitting up front, nose practically pressed against the container doors, was my new 10,000-plus-pound (4,700 kg) electric tractor: the NESHER L3000 wheel loader.

Technically, it’s part of a class known as articulating front loaders, a subset of the broader tractor family, and not a farm tractor like you may have seen before (though I’m working on a farm tractor!).

But if you need to lift, pull, drag, grapple, dump, drill, or dig things around your property, this is what these types of machines were made for.

And as wild as it was to see that giant electric machine roll down the ramps, it turns out that wasn’t the only “new toy” I got.

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Soon after the arrival of the big guy, I had a second surprise to unload: a slightly smaller, much more approachable NESHER L2500, tipping the scales at a more manageable 6,400 lb (2,900 kg).

NESHER L3000 with the pallet fork attachment mounted

Meet the 5-ton lb NESHER L3000

Unloading these things and getting to know them well has been an incredibly fun process, and one that I love getting the chance to share in videos and articles like this one.

The L3000 is the biggest machine I’ve ever brought into the NESHER lineup, and it’s very much a “because we can” kind of loader. It’s rated for a 3,000 lb (1,360 kg) lift capacity (and it’s underrated), but that stat doesn’t really hit home until you see what that looks like in real life.

Right away I put it to work moving all sorts of heavy equipment around the property, from lifting a wooden shipping crate with an entire mini-excavator inside, to carrying around a full-size golf cart in a steel shipping crate as if it was a grocery bag, to even pushing shipping containers around the property and into position (I’ve been welding on roof structures between them to create some nice covered parking).

NESHER L3000 moving my solar shipping container into position around the pasture

That last one is the moment you really feel the mass working in your favor. A 10,000 lb electric machine has the kind of traction and grunt where you barely notice the load. A tiny press on the accelerator and heavy objects just start moving.

I used a set of EZYwheels on one end of a shipping container and simply lifted the other end using the L3000’s pallet forks, allowing me to push and pull a roughly 5,000 lb (2,250 kg) solar shipping container that I built last year around a grassy pasture as if I were playing with toy cars in a sandbox.

We even used it to right a tree that had blown over in the last hurricane, but was still alive and lying on its side. Without the slightest protest, the L3000 pulled it vertically and let us get some bracing under it so the root structure could regrow and anchor it back the way nature intended.

NESHER L2500 with a bucket full of logs

Under the floorboards is a 40 kWh AGM battery pack, good for around 6 hours of typical use on a charge. This isn’t meant for 12-hour highway construction shifts… it’s designed for landowners, homesteaders, small businesses, and anyone with a list of jobs that can be knocked out in a few focused hours.

Charging is fairly straightforward and designed to be done anywhere: it uses standard North American 120VAC outlets, with twin onboard chargers to feed that big pack from a pair of household circuits overnight. The onboard chargers can accept 240V, but the 120V option allows for Level 1 charging anywhere a typical electrical outlet can be found.

I get a lot of questions about batteries, and one reason I liked the AGMs over lithium iron phosphate batteries is the ease of future work. While not rivaling LFP charge cycles, these should last for many years (my oldest NESHER tractors are around 2.5 years old and showing very minimal battery degradation), but when the batteries do eventually need to be replaced, AGM modules can be found much more easily and from local suppliers, even big box stores like Tractor Supply or Home Depot. They can also be removed one pack at a time by a single (strong) individual. Other advantages include better cold-weather performance without needing battery heaters, extra weight that serves as ballast and increases the lifting capacity of the machine, and lower total vehicle cost. Of course there are different unique advantages to LFP batteries, and like everything in life, there are tradeoffs, but this seems to be a good balance so far in our experience.

NESHER L2500 with the excavator attachment mounted

But wait… there’s a “smaller” one too

As fun as a 10,000 lb loader is, it’s honestly more machine than a lot of people want to maneuver around their property. That’s where my second new arrival comes in.

This smaller beast, my NESHER L2500, is rated for a 2,500 lb (1,140 kg) lift but weighs in at roughly 6,400 lb (2,900 kg). On paper, that sounds like a small step down from the L3000. In practice, it feels like a different category: more compact, more nimble, and more approachable for someone who doesn’t want their “yard tool” to weigh nearly as much as a school bus. It’s also even quieter than the L3000, as it uses a dedicated electric motor on each axle instead of a larger mid-mounted motor with dual drive shafts like the L3000.

Between the two, I actually prefer it. The machine has nearly as much capability, but is around 1/3 lighter and thus easier to maneuver and operate.

We’ve already used the L2500 for some creative jobs around the place. At one point, my dad and I basically turned it into a freight elevator, raising an old couch more than 10 feet up to a mezzanine of his shop. Another day, we used it to drag a massive tree trunk out of a pond after a hurricane turned that long-leaning tree into a floating navigation hazard. The loader treated that water-logged tree trunk like a toothpick.

The L2500 shares the same concept as the bigger machine: enclosed cab and heater, around 6 hours of use from a 25 kWh battery, easy residential charging, and enough lift and pull to make most homesteader and small farm tasks feel trivial. For a lot of people, this is the sweet spot. And in fact, I actually prefer it at this size. The L3000 is fun but more machine than most people need. The L2500 seems like the best balance of power, size, and value.

Left to right: NESHER L3000, NESHER L2500, NESHER L1400, and NESHER L880

Attachments turn them into Swiss Army tractors

All of the loaders use quick-hitch front attachments, which is where things get fun. From the operator’s seat, you can drive up to a bucket, drop it, roll right into a pallet fork, and latch it without climbing down every time.

For attachments with their own hydraulics, like augers, grapples, and the excavator-style digging attachment, you do still have to hop out to connect hoses, but the tradeoff is big. With the excavator attachment on the larger loaders, you can dig down around 6 feet (nearly 2 meters). That’s a major upgrade compared to my smaller NESHER machines that give closer to about 3.5 feet (around 1 meter) of digging depth from their excavator attachments. That covers a surprising amount of real-world work: laying pipe, planting trees, digging drainage, and shaping land.

That’s the real magic with these: you don’t need separate dedicated machines for every task. One electric loader, a handful of attachments, and suddenly you’re lifting shipping containers, pulling trees upright, digging trenches, moving mountains of dirt or mulch, and doing oddball jobs you never expected to do with a conventional tractor.

Adjusting the width of the heavy forks is sometimes helped with a kick or two

Why go electric for heavy equipment?

Regular Electrek readers will already know the big advantages of going electric, and our own Jo Borràs has often covered some of the most interesting new additions to the world of electric heavy equipment from trucking to tractors to tools, but electrification is still a niche part of the industry.

And while I’ve talked a lot about what these machines can do, a question I still often get from curious neighbors and onlookers is, “Why electric?”

Part of it is maintenance. A diesel loader has a lot of ways to ruin your day: fuel system, injectors, emissions equipment, warm-ups, oil changes, filters, and so on. An electric drivetrain is basically a cordless drill scaled up: battery, motor, controller. The maintenance you do have – hydraulic oil, greasing the joints – is for the mechanical bits, not the engine. The powertrain, historically the worst part of owning any vehicle, just quietly works.

Then there’s sound. When you’re walking around an electric loader, you hear your own footsteps in the dirt as much as you hear the machine. You can talk to someone standing nearby without shouting over a clattering diesel engine. As the operator, you can talk to your crew or your family members in the yard without needing walkie-talkies. The reduced noise means you can even work around animals and livestock without spooking them. I can work right alongside the cows in my family’s pasture without bothering them. It’s just a calmer experience.

Health is another big one. If you spend hours a day sitting a few feet from a diesel tailpipe, that exhaust is going into your lungs. Diesel particulates are not something you want to marinate in for years. Electric loaders eliminate that constant stream of fumes.

And of course, there’s the environmental angle too. If you’re working the land because you love it and want to live with it, not just from it, then it feels a little odd to be coating it in exhaust and oil. Electric loaders don’t drip fuel, don’t belch smoke, and don’t add to greenhouse emissions the same way, especially if you’re charging from clean energy.

Towing out my dad’s currently-not-running diesel farm tractor

Final thoughts

I’ve talked at length about this process before, but for those who may be new around here, allow me to provide full disclosure: these are my machines. I helped design them, I walk the factory floor where I build them in China, I import them, I maintain the local spare parts warehouse, I wrote the operator’s manual, and I spend a ridiculous amount of time thinking about how to make electric machinery like this more accessible to average folks who want to manage their land instead of just for large contractors and businesses who can afford the six-figure machines from the big guys.

I’m proud of the work that has gone into getting them to this point, and of the fact that they are starting to become available in more countries (the first NESHER dealer in Canada just opened recently and a few other countries are in the works).

As a society, even a well-intentioned one looking for electric alternatives to replace our polluting legacy machines, we often spend so much time focusing on flashier vehicles, such as electric cars, trucks, and even bikes and scooters, that it’s easy to forget how much diesel is idling away on farms, work sites, and homesteads. Machines like these show that electric isn’t just possible in this space, but that it can actually be better, quieter, cleaner, and easier to live with.

Sure, that big NESHER L3000 loader isn’t for everyone. Most people would probably be better served by the L2500 or even the smaller L1400 or L880. And if you’re running round-the-clock road crews, you’ll still have a diesel fleet for a while, as there aren’t many electric machines that can do 16 or 20-hour shifts yet.

But for the growing number of landowners, small contractors, and homesteaders who want serious capability without the headaches and fumes of diesel, electric loaders are finally becoming a real option.

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The ticket bot cometh: cities are ticketing drivers that AI says are bad [update]

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The ticket bot cometh: cities are ticketing drivers that AI says are bad [update]

In a high-tech move that we can all get behind and isn’t dystopian at all, the City of Barcelona is feeding camera data from its city buses into an advanced AI, but they swear they’re not using the footage to to issue tickets to bad drivers. Yet.

UPDATE 06DEC2025: the ticket bot cometh to Chicago.

Last month, the Chicago Transit Authority (CTA) contracted with Hayden AI to equip six of its transit buses with AI-powered license plate readers intended to target illegally parked vehicles in an area bound by North Avenue, Roosevelt Road, Lake Michigan and Ashland Avenue.

As with similar pilots in Barcelona and NYC, the Hayden AI technology captures information from vehicles illegally blocking bus and bike lanes, then submits its “findings” to a human reviewer for confirmation. If the reviewer agrees with the AI, they can issue a fine of $90 for parking in a bus lane, $250 for bike lane obstruction, $50 for parking in expired meters outside of the central business district, and $140 for personal vehicles parked in commercial loading zones.

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Despite those hefty fines, Chicago Mayor Brandon Johnson is quick to point out that the goal of the program isn’t to generate revenue.

“Every Chicagoan deserves a transportation system that is safe, reliable, and efficient,” said Mayor Johnson, in a statement. “By keeping bus and bike lanes clear of illegally parked vehicles, the Smart Streets pilot helps us protect our most vulnerable road users while improving the daily commute for riders across the city.”

The official release makes no mention of the fact that Hayden AI’s system generated nearly $21 million in revenue for the city in just a few months, despite the fact that thousands of those ticketed weren’t doing anything wrong.

We wrote about some of these issues back in Jun. You can read that original article, below, and let us know what you think of Chicago’s “non-revenue” claims in the comments.


Barcelona launches automated bus lane and bus stop enforcement pilot with Hayden AI
Barcelona ticketing AI; via Hayden AI.

Barcelona and its Ring Roads Low Emission Zone have earned lots of fans by limiting ICE traffic in the city’s core. The city’s latest idea to promote mass transit is the deployment of an artificial intelligence system developed by Hayden AI for automatic enforcement of reserved lanes and stops to improve bus circulation – but while it seems to be working as intended, it’s raising entirely different questions.

“Bus lanes are designed to help deliver reliable, fast, and convenient public transport service. But private vehicles illegally using bus lanes make this impossible,” explains Laia Bonet, First Deputy Mayor, Area for Urban Planning, Ecological Transition, Urban Services and Housing at the Ajuntament de Barcelona. “We are excited to partner with Hayden AI to learn where these problems occur and how they are impacting our public transport service.”

Currently operating as a pilot program on the city’s H12 and D20 bus lines, the system uses cameras installed on the city’s electric buses to detect vehicles that commit static violations in the bus lanes and stops (read: stopping or parking where you shouldn’t). The Hayden AI system then analyses that data and provides statistical information on what it captures while the bus is driving along on its daily route.

Hayden AI says that, while it photographs and records video sequences and collects contextual information of the violation, its cameras do not record license plates or people and no penalties are being issued to drivers or owners of the vehicles.

So far so good, right? But it’s what happens once the six mont pilot is over that seems like it should be setting off alarm bells.

Big Brother Bus is watching


“You are being recorded” sign in a bus; via Barcelona City Council.

The footage is manually reviewed by a Transports Metropolitans de Barcelona (TMB) officer, who reportedly reviewed some 2,500 violations identified by AI in May alone. But, while the system isn’t being used to issue violations during the pilot program, it easily could.

And, in fact, it already has … and the AI f@#ked up royally.

AI writes thousands of bad tickets


NYC issued hundreds of thousands of tickets; via NBC.

When AI was given the ability to issue citations in New York City earlier this year, it wrote more than 290,000 tickets (that’s right: two-hundred and ninety thousand) in just three months, generating nearly $21 million in revenue for the city. The was just one problem: thousands of those drivers weren’t doing anything wrong.

What’s more, the fines generated by the AI powered cameras were supposed to be approved only after being verified by a human, but either that didn’t happen, or it did happen and the human operator in question wasn’t paying attention, or (maybe the worst possibility) the violations were mistakes or hallucinations, and the human checker couldn’t tell the difference.

In OpenAI’s tests of its newest o3 and o4-mini reasoning models, the company found the o3 model hallucinated 33% of the time during its PersonQA tests, in which the bot is asked questions about public figures. When asked short fact-based questions in the company’s SimpleQA tests, OpenAI said o3 hallucinated 51% of the time. The o4-mini model fared even worse: It hallucinated 41% of the time during the PersonQA test and 79% of the time in the SimpleQA test, though OpenAI said its worse performance was expected as it is a smaller model designed to be faster. OpenAI’s latest update to ChatGPT, GPT-4.5, hallucinates less than its o3 and o4-mini models. The company said when GPT-4.5 was released in February the model has a hallucination rate of 37.1% for its SimpleQA test.

FORBES

I don’t know about you guys, but if we had a local traffic cop that got it wrong 33% of the time (at best), I’d be surprised if they kept their job for very long. But AI? AI has a multibillion dollar hype train and armies of undereducated believers talking about singularities and building themselves blonde robots with boobs. And once the AI starts issuing tickets to the AI that’s driving your robotaxi, it can just call its buddy AI the bank to send over your money. No human necessary, at any point, and the economy keeps on humming.

But, like – I’m sure that’s fine. Embrace the future and all that … right?

SOURCES: Hayden AI, via Chicago Sun Times, Forbes, Motorpasión.


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