Connect with us

Published

on

As American cars and trucks continue to bloat, growing longer and wider decade over decade while roads and parking spaces stay the same size, there may be hope glimmering on the horizon: tiny electric vehicles. I’m not talking about small cars. I’m talking about tiny ones – micro-cars, if you will.

They’re a small but growing category of motor vehicles in the US, and they may just save us from a future of massive, energy-guzzling vehicles that can somehow plow through a playground without noticing yet still struggle to wiggle into a parking spot.

This is Part 1 of a three-part series on these useful little vehicles. In today’s segment, we’ll dive into the “what” and “why” of electric micro-cars.

From the definitions (which have so far eluded most of the industry) to the use cases (which have so far eluded most Americans), we’ll set the stage for what could be the next big wave of tiny cars. In Parts 2 and 3 we’ll cover the legality of such vehicles and the options currently on the road.

What is an electric micro-car?

Let’s start off with a few definitions to set the record straight about these tiny vehicles.

There are three commonly used terms for describing these little runabouts: micro-cars, NEVs (neighborhood electric vehicles), and LSVs (low-speed vehicles). And they’re all wrong in one way or another. Let’s explore each, below.

Low-speed vehicles (LSVs)

The term LSVs is currently the least commonly used term for these, but it’s actually the most correct. That’s because it’s the only legally defined category. LSVs are a federally mandated class of motor vehicles in the US.

They’re more or less equivalent to what are known as “quadricycles” in Europe, with the exception that European quadricycles are allowed to reach speeds of up to 80-100 km/h (50-62 mph), depending on the country, while LSVs in the US are limited to just 25 mph (40 km/h).

microlino electric micro car
The Microlino is a European Quadricycle that reaches speeds far faster than allowed for LSVs in the US

It is a common misunderstanding that all that is required for a vehicle to be considered an LSV is for it to have a maximum speed of 25 mph (40 km/h). In fact, that is only one of many requirements. Federal Motor Vehicle Safety Standards for LSVs have laid out around a dozen standards that mostly cover speed and required safety equipment, but that also include requirements for the manufacturer’s factory to be federally approved by the National Highway Traffic Safety Administration (as well as the factories that produce key components like the auto glass, seat belts and other important components). That’s why it isn’t enough for a small vehicle to simply have seat belts and not exceed 25 mph.

For this reason, it is actually quite difficult for new manufacturers to receive street-legal status for LSVs, though we’ll dive into the legality of these vehicles in much more detail in Part 2 of this series. It’s an important issue since many of the supposed “street legal” LSVs now being offered for sale in the US are far from actually being street legal.

For now though, suffice it to say that LSVs are a federally mandated category of vehicles that are allowed to reach speeds of up to 25 mph (40 km/h) and are allowed to drive on roads with speed limits posted up to 35 mph (56 km/h).

The Wink Sprout above is one of a growing number of street-legal LSVs in the US

LSVs are not required to be electric vehicles, and many low-production-volume combustion engine models have existed over the past two decades, similar to the phenomenon of “kei cars” in Japan. But these days nearly all LSVs in the US are also electric vehicles, largely due to the simplification of manufacturing/maintenance as well as reduced regulatory hurdles associated with emissions testing.

The term LSV is really the only important term for this industry because it is the only one that is clearly defined. That brings us to… NEVs.

Neighborhood electric vehicles (NEVs)

The term NEV is probably the most commonly used term in this industry, which is problematic because it doesn’t mean anything. There is no clearly defined boundary for what makes up an NEV.

The term originated before the LSV category was created by the federal government, and it largely referred to small, slower-moving electric vehicles that were similar in appearance to golf carts, yet were designed for traveling on roads and around neighborhoods instead of across the golf course. The most famous example of an NEV is likely the GEM, which started out under the Chrysler umbrella before moving to Polaris and finally to its current owner, WAEV.

The GEM popularized the concept of an NEV before the US government had created an LSV category, and thus the term NEV stuck.

The problem is that despite everyday usage, there’s no clear line drawn to determine what is and what isn’t an NEV. It’s similar to the word “truck” in its vaguery. Is an F-150 a truck? What about an 18-wheeler semi-trailer? Or a U-Haul? They’re all called trucks in common parlance, yet the Department of Transportation would beg to differ.

The other issue with the term NEV is that it implies a purely neighborhood use for these vehicles. While neighborhood and local community use is a common application, densely populated cities are quickly becoming another major market for these tiny electric vehicles.

An LSV could easily drive from Battery Park on the southern tip of Manhattan up to Washington Heights, a 13-mile (21 km) commute covering dozens of neighborhoods. In fact, I drove an LSV across the Brooklyn Bridge earlier this year as I travelled around NYC, highlighting the urban appeal of such small electric vehicles.

I drove an LSV from Wink Motors across the Brooklyn Bridge on a day trip through NYC

What are micro-cars?

The term micro-car has become something of a catchall. Similarly to NEVs though, there is no clear definition for the term. It is generally used more for fully enclosed LSVs than for open golf cart-style buggies like the GEM vehicles (though GEMs do have optional hard doors that make them fit better into the loosely defined micro-car category).

This door quasi-requirement is likely due to the fact that many people think of micro-cars as looking more like a conventional car, but simply scaled down into a smaller (and often cuter) vehicle.

Micro-cars can be as small as single-seaters or can even fit a family of five. I’ve driven a Chinese micro-car around Florida with my wife and our three nieces and nephews, showcasing the family-friendly nature of electric micro-cars.

Micro-cars, just like NEVs, are not a federally defined class of vehicle, and thus the term is limited largely to everyday language. For legal use, LSV is the only federally defined category of motor vehicle.

Believe it or not, I’ve had five people in this micro-car

Golf carts

Golf carts are perhaps the most commonly understood of all of these categories due to their ubiquitous use on golf courses around the country.

While they can be powered by a combustion engine or by an electric motor, most golf carts produced today are electric.

They generally reach speeds of up to 20 mph (32 km/h), though can often be modified to reach speeds of closer to 30 mph. Some come with seat belts, radios, and other fancier features, but many are bare-bones vehicles designed for basic transportation.

golf cart on the street

Traditional golf carts are not street legal, though many small communities have created local golf cart ordinances to allow for their use on low-traffic roads.

Several large golf cart manufacturers have begun to produce LSV versions of their carts that have been homologated for street use. These versions, if produced to meet the LSV regulations laid out in the Federal Motor Vehicle Safety Standards, can be used like any other LSV on public roads that have posted speed limits of 35 mph (56 km/h) or less.

Golf carts are generally open-air vehicles that lack doors or locking storage. This is one of their main downsides compared to micro-cars, which generally have locking doors that can provide security as well as an all-weather ride.

Use cases for electric micro-cars and small vehicles

LSVs have two main uses in the US: transportation and utility use.

For transportation, LSVs have several advantages. Many owners prefer their small size that makes them nimbler in traffic and easier to park. They can often even be parked in small spots or psuedo-spots on the edges of parking areas that a traditional car couldn’t fit into.

Their simpler design and smaller size also means that they generally cost much less than a traditional electric car, both to purchase and to charge. Some new LSVs can start at below $10,000, compared to much more expensive electric family cars.

For some people, they’re also more fun to drive due to the novelty and go-kart feel that the small size offers. The 25 mph (40 km/h) top speed can be appropriate in many cities and communities, and the slower pace is often more fun for folks that enjoy cruising around their community and seeing the smiles on faces from onlookers. This is especially true in beach communities, older resident villages, and other planned communities.

electric mini-truck
My mini-truck may be small but it carries quite a load!

For utility, LSVs can offer many of the same benefits. Electric mini-trucks are becoming more popular in the cargo and delivery fields, especially in crowded cities that can be difficult to navigate with a larger box truck.

These vehicles can often offer similar bed sizes compared to traditional pickup trucks or small flatbed trucks, yet the entire vehicle is much smaller.

The increase in demand for electric mini-trucks has even spawned a new US-produced vehicle known as the AYRO Vanish.

Which LSVs and NEVs are street legal?

Street-legality is perhaps the most important aspect of electric micro-cars, especially as new importers and manufacturers begin to crop up.

We’ll cover this issue in-depth in Part 2 of this series, which will return this Wednesday. Stay tuned!

FTC: We use income earning auto affiliate links. More.

Continue Reading

Environment

Honda wants to move deliveries off the road and into bike lanes with this quad

Published

on

By

Honda wants to move deliveries off the road and into bike lanes with this quad

Honda is moving forward with its Fastport delivery quadcycle, and we got a chance to see it up close and take it for a quick spin.

We told you about Honda’s 4-wheeled delivery vehicle back in June, and we were excited about the idea of right-sizing delivery vehicles in urban centers that are often clogged with car traffic.

To catch you up, it’s a four-wheeled electric cargo vehicle that Honda has been working on for short-range, intra-city deliveries. It has 650lb capacity and a 12mph top speed, with 23 miles of range.

That’s not a huge range number, but we’re talking about cities here – Manhattan is 13×2 miles, San Francisco is 7×7 miles, for example. Also, the 2 x 1.3kWh batteries are 22lbs each and easily swappable if you need a little more juice.

Advertisement – scroll for more content

The main concept here is that the vehicle is small, built to fit within the width of a bike lane, and to be treated as one in vehicle regulations. This means you can get cargo around in a smaller package than big delivery trucks, causing less traffic, congestion, road wear, and pollution.

Its presence in the bike lane is the reason for some of those limitations above – EU regulations mean the motor can only go up to 250W continuous draw, which also leads to a 12mph top speed for a vehicle that could be laden with ~1,700lbs of bike, cargo and rider (there is also a “small” version which is narrower and shorter, with 320lb capacity, for smaller roads).

But all that is nice on paper, what’s it like in person?

We got a little tour of the bike up close, and then a very brief ride and chance to do a couple three-point turns. And they did have to be three-point turns – this bike is quite long and unwieldy. A smaller turning circle would be nice.

Honda calls the drive system “pedal-by-wire,” and describes it as unique, and it certainly felt as such. The pedaling experience feels fully disconnected from the motor – you do spin the pedals, but the bike seems to do its own thing entirely. This felt strange to me as a person who is used to a torque sensor e-bike, where I’m still pushing even if the bike is helping me.

You might ask why there’s no throttle if the pedals just send a signal to the motor – this is to comply with regulations, making this technically a “pedal assist” vehicle, even though the bike is doing everything.

This is nice for accessibility, as you won’t need to be an athlete to drag 650lbs of cargo around behind you, but it also means the motor and batteries will be doing all of the work and you’ll be limited to a total of 250W of power (whereas if you combined that with the legs of a cyclist, you could add another hundred watts or two of human pedal power).

One question I had is how 2.6kWh worth of batteries could run a 12mph, 250W draw motor for only 23 miles – some napkin math suggests that the range should be much higher than that. But it turns out that the motor has much higher peak draw, as when we were accelerating, it would pull well over 2kW according to the display. And given the batteries are easily swappable, this isn’t much of a limitation.

The battery compartment is just behind and below the rider compartment

The display and handlebars are much more normal-looking than those seen in early renders. Rather than a large iPad-like display in the center, there’s a smaller one with a rear-view camera (helpful, but not well-calibrated – it makes you seem closer to objects than you actually are), and a side display with the sort of details you’d see in most bike computers, like speed and motor power. The displays are usable with polarized glasses, which is nice, since I’ve encountered quite a few bike displays which aren’t.

The shroud covering the rider’s “compartment” blocks UV light and helps to insulate from rain and wind. The final version will extend further down, adding more wind protection for legs and feet – but when it’s hot out, there’s a ventilation fan as well. Honda told us some things about the bike are still being tweaked from the version we saw… but first deliveries are supposed to start imminently, so we imagine the final version will look quite a lot like what we saw.

The cargo area on the bike is quite basic, just a big box. Shelving or other attachments could be added, depending on the specific implementation (food delivery, flowers, or whatever else). The box can be opened from the side or rear, with a horizontal sliding door on the side, and a vertical sliding door on the rear. It’s available in two sizes, depending on how big your bike lanes and delivery needs are.

But in addition to that basic cargo area, the vehicle has telematics built in, which are very valuable to fleets who want to know where their items are and how deliveries are going at any given time. And will help enable Honda to offer these quads as a “fleet as a service,” where businesses can get access to delivery vehicles, and Honda will even handle battery swaps.

Electrek’s Take

I love the idea of moving deliveries to smaller vehicles, especially since giant trucks can be such a problem in city centers.

But it’s particularly interesting looking at this vehicle versus the type of small delivery trucks that exist in other countries and that we don’t get much of here in the US.

For example, Japanese kei trucks can have a cargo capacity of 700-1000lbs, GVWR of ~2,500lbs, and a maximum length of 134 inches. Compare that to a cargo capacity of 320-650lbs (for small and large versions, respectively), GVWR of 1,433-1,765lbs and length of 134-148 inches for the Honda delivery quad.

So the kei truck has quite a bit more cargo capacity for a similar footprint, but then it makes pollution and requires more road infrastructure than the quad would. And of course… we simply don’t have them in the US.

So, whether comparing them to a gigantic delivery vehicle or even the smaller trucks available in Japan or some parts of Europe, this offers a distinct new option for getting goods around in a city – and one which requires less of the car and truck infrastructure that has taken over our public spaces.

That said… I think a higher speed would be preferable so as not to get in the way of cyclists, or in the case that the vehicle decides to take a real lane and can then keep up with traffic. It will be interesting to see how this and other cargo bikes turn out, whether they gain traction and what sort of challenges they might help cities avoid… or present on their own.


The 30% federal solar tax credit is ending this year. If you’ve ever considered going solar, now’s the time to act. To make sure you find a trusted, reliable solar installer near you that offers competitive pricing, check out EnergySage, a free service that makes it easy for you to go solar. It has hundreds of pre-vetted solar installers competing for your business, ensuring you get high-quality solutions and save 20-30% compared to going it alone. Plus, it’s free to use, and you won’t get sales calls until you select an installer and share your phone number with them.

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

FTC: We use income earning auto affiliate links. More.

Continue Reading

Environment

Two EV battery players are joining forces to develop all-solid-state batteries

Published

on

By

Two EV battery players are joining forces to develop all-solid-state batteries

US-based Factorial Energy and South Korea’s POSCO FUTURE M are teaming up on all-solid-state batteries, the “holy grail” of battery tech.

Factorial and POSCO take on all-solid-state EV batteries

All-solid-state batteries promise significant improvements in driving range, charging times, and safety. Although next-gen battery tech shows promise in the lab, proving it in the real world hasn’t been easy.

For one, new equipment is needed to manufacture them. All-solid-state batteries also use a solid electrolyte, unlike the liquid electrolyte used in current lithium-ion batteries.

One of the biggest challenges in bringing the new battery tech to market has been finding a solid material that doesn’t crack yet still conducts electricity.

Advertisement – scroll for more content

Factorial Energy and POSCO look to change that. The two companies announced a new partnership at the Future Battery Forum in Berlin this week. Under the agreement, Factorial and POSCO will combine resources to develop materials for all-solid-state batteries.

POSCO already supplies cathode and anode materials to global battery leaders, including LG Energy Solution, SK On, Samsung SDI, and Ultium Cells. Now, it’s looking to strengthen its all-solid-state materials business.

The company is already developing new cathode and silicon anode materials for all-solid-state batteries, but POSCO said it’s also continuing R&D on lithium-metal anode materials and sulfide-based solid electrolytes.

“Solid-state batteries are entering a new era of commercial readiness,” according to Factorial’s CEO, Siyu Huang.

Factorial-all-solid-state-EV-batteries
Electric Dodge Charger with Factorial’s solid-state EV battery pack (Source: Stellantis)

Factorial said that by teaming up with POSCO, it will not only accelerate material development, but also “drive meaningful cost reductions at scale.”

In 2022, Mercedes-Benz, Hyundai, and Stellantis were among the major automakers that invested in Factorial’s $200 million fundraising. The company delivered the first solid-state battery cells based on its FEST (Factorial Electrolyte System Technology) platform last summer.

All-solid-state-EV-batteries
Mercedes-Benz starts road testing its first solid-state battery vehicle (Source: Mercedes-Benz)

Factorial and Mercedes introduced the co-developed Solstice all-solid-state battery in September 2024, based on the FEST platform.

The company aims to deliver a driving range of over 600 miles with the new battery tech. Mercedes announced in September that it had driven a modified EQS, equipped with a solid-state battery from Stuttgart, Germany, to Malmö, Sweden. After covering 750 miles (1,205 km), the EV still had 85 miles of range remaining.

Mercedes’ tech boss, Markus Schäfer, called solid-state batteries “a true gamechanger for electric mobility,” adding the new tech “delivers not only in the lab but also on the road.”

FTC: We use income earning auto affiliate links. More.

Continue Reading

Environment

Waymo shuts down ‘can’t scale’ argument with quick test to fully autonomous in Texas

Published

on

By

Waymo shuts down 'can't scale' argument with quick test to fully autonomous in Texas

For years, the loudest and most persistent argument coming from the Tesla camp, including Elon Musk himself, against Waymo has been simple: “Sure, it works, but it can’t scale.”

The narrative, usually pushed by those heavily invested in the promise of Tesla’s “generalized Full Self-Driving”, was that Waymo was a geofenced parlor trick. They argued that Waymo’s reliance on lidar, radar, and, specifically, high-definition (HD) mapping would mean it would take years to launch in every new city.

But the narrative is now dying, as Waymo went from testing to fully autonomous in a couple of Texas cities in just a few months.

Unlike Tesla, Waymo has been offering fully autonomous commercial rides for years, which has been a threat to the narrative Elon Musk has been pushing: that Tesla is the leader in autonomous driving.

Advertisement – scroll for more content

Musk’s solution has been to claim that Waymo’s system is not scalable compared to Tesla’s and Tesla investors have been betting heavily on him being right on this.

Well, that narrative just officially died deep in the heart of Texas.

Based on the latest operational updates as of early December 2025, Waymo has pulled human safety drivers from its vehicles in both Dallas and Houston. While currently restricted to employee rides before a public launch in 2026, the vehicles are now operating fully autonomously in these complex urban environments.

But the fact that they are autonomous isn’t the biggest news here. The biggest news is the timeline.

Waymo only officially began on-road testing with its Jaguar I-Pace fleet in Dallas and Houston around May of 2025. That means it took the Alphabet-owned company roughly six to seven months to go from “wheels on the ground” initial mapping and testing to removing the human driver entirely in two massive, distinct metropolitan areas simultaneously.

To put that in perspective, think about Waymo’s original pilot in Chandler, Arizona. We watched that program iterate for what felt like half a decade before they were confident enough to fully remove the safety drivers. San Francisco was faster, but it was still a long, arduous slog of validation under intense regulatory scrutiny.

This pace in early markets is what fueled the “Waymo can’t scale” argument. Critics looked at the years spent in the Phoenix suburbs and assumed that was the permanent velocity of Waymo’s expansion.

The Texas rollout proves that assumption wrong. What changed? Waymo has achieved what they describe as a “generalizable Waymo Driver.”

Waymo’s AI isn’t relearning the concept of a stop sign or a pedestrian every time it enters a new zip code. It already knows how to drive. When it enters a new market now, it is primarily validating that base knowledge against local flavor, specific types of intersections, regional driving aggression levels, or unique Texas U-turn laws.

The “crutch” of HD mapping, which Tesla CEO Elon Musk once famously called “unscalable,” is proving to be much less of a hurdle than predicted. Waymo has clearly streamlined the process of generating and updating these maps to the point where they can spin up two major U.S. cities in half a year, with many more to come.

Electrek’s Take

I’ve been saying for a while now that the “Waymo is stuck in a geofence” argument was running on fumes, but this Texas news should be the final nail in the coffin.

Now, the other argument that the Tesla crowd is going to cling to is cost. Tesla undoubtedly has a big advantage there, but again, it’s priced lower as a system that hasn’t achieved unsupervised autonomy yet.

Meanwhile, Waymo has reduced the cost of its driver by more than 50% with its 5th-generation system, and it is expected to cost less than $20,000 with the 6th generation in the new Zeeker van. That’s starting to be competitive with Tesla price-wise, and again, with a system that actually has already achieved level 4 autonomy.

The goalposts for AV success are constantly moved by critics, but the speed of deployment was the last verifiable metric where Tesla bulls felt they had the upper hand, theoretically. The idea was that once Tesla “solved” FSD, it would work everywhere instantly, leapfrogging Waymo’s plodding city-by-city approach.

But reality is catching up to theory. While Tesla’s FSD (supervised) is an incredibly impressive driver-assist system, it is still stuck at Level 2, requiring constant human attention after years of “robotaxi next year” promises.

Musk claimed Tesla would remove supervisors from cars in Austin “within a few months”, but it has now been almost 6 months, and the crash rate indicates that Tesla shouldn’t remove the supervisors any time soon.

Meanwhile, on the same timeline, Waymo just dropped into two of the largest, most car-centric cities in America and went fully driverless.

The scoreboard speaks for itself.

FTC: We use income earning auto affiliate links. More.

Continue Reading

Trending