Ford does sell an electric pickup, but not very many of them. We can’t say for sure, but it’s possible that if the F150 Lightning had the classic cool of [ScottenMotors] 1977 F150 SuperCab conversion they’d have better numbers.
The battery box sits where a V8 used to choke on well-meaning emissions controls.
On Reddit, [Scotten] shares the takeaways from his conversion effort, which involved a custom Tesla-cell battery pack and a new rear axle assembly to house the Tesla SDU (Small Drive Unit). A Large Drive Unit (LDU) would probably fit, but the SDU already puts out 264 HP, which compares rather favourably to the 156 HP this truck’s malaise-era V8 put out stock. The old F-bodies were great trucks in a lot of respects, but even an die-hard ICE enthusiast is probably not going to be sad to see that motor go.
Imagine a bare-bones electric pickup: it’s the size of an old Hilux, it seats two, and the bed fits a full sheet of plywood. Too good to be true? Wait until you hear that the Slate Pickup is being designed for DIY repairability and modification, and will sell for only $20,000 USD, after American federal tax incentives.
Using the cellphone for infotainment makes for a less expensive product and a very clean dash. (Image: Slate Motors)
There are a few things missing: no infotainment system, for one. Why bother, when almost everyone has a phone and Bluetooth speakers are so cheap? No touch screen in the middle of the dash also means the return of physical controls for the heat and air conditioning.
There is no choice in colors, either. To paraphrase Henry Ford, the Slate comes in any color you want, as long as it’s grey. It’s not something we’d given much though to previously, but apparently painting is a huge added expense for automakers. Instead, the truck’s bodywork is going to be injection molded plastic panels, like an old Saturn coupe. We remember how resilient those body panels were, and think that sounds like a great idea. Injection molding is also a less capital-intensive process to set up than traditional automotive sheet metal stamping, reducing costs further.
That being said, customization is still a big part of the Slate. The company intends to sell DIY vinyl wrap kits, as well as a bolt-on SUV conversion kit which customers could install themselves. The plan is to have a “Slate University” app that would walk owners through maintaining their own automobile, a delightfully novel choice for a modern carmaker.
Heavy vehicles like semi trucks pose a bigger challenge in electrifying the transportation fleet than smaller, more aerodynamic passenger cars. Michigan now has the first public in-road charging system in the United States to help alleviate this concern. [via Electrek]
Electreon, a company already active in Europe, won the contract to provide for the inductive coil-based charging system at the new Michigan Central Station research campus. Initial runs will be with a Ford E-Transit for testing, but there are plans to actually allow public use along the one mile (1.6 km) route in the near future.
Vehicles using the system need a special receiver, so we hope we’ll be seeing an open standard develop instead of having to have a different receiver for each road you drive on. This seems like it would be a more onerous swap than having to have three different toll road transponders. Unfortunately, the page about wireless standards on the Electreon website currently 404s, but CharIN, the standards body behind the Combined Charging Standard (CCS) did just launch a task force for wireless power delivery in September.
Thanks to the various measurement systems in use, we aren’t sure if Volvo has created an electric truck that carries 74 metric tons, 74 short tons, or 74 long tons, but either way, that’s a lot of cargo for an electric truck. After all, that’s somewhere between 148,000 and 163,000 pounds (or 67,000 kg to 74,000 kg). That’s about three times what a typical 18-wheeler with a flatbed carries in the US. In fact, on a U.S. road, trucks typically have to weigh less than 80,000 pounds, including the truck to be legal.
Well, the monster electric Volvo has two trailers, so it is more fair to compare it to turnpike doubles, which typically carry about 148,000 pounds of cargo. The truck operates 12 hours a day and charges when the driver takes a break. At the depot, charging is from two 180 kW chargers that use green electricity, according to the company. The truck has been running for a few months, although we haven’t heard more about how successful or unsuccessful it might be.
Many EVs can charge 80% of their battery in a matter of minutes, but for some applications range anxiety and charge time are still a concern. One possible solution is an embedded electrical rail in the road like the [eRoadArlanda] that Sweden unveiled in 2016.
Overhead electrical wires like those used in trolleys have been around since the 1800s, and there have been some tests with inductive coils in the roadway, but the 2 km [eRoadArlanda] takes the concept of the slot car to the next level. The top of the rail is grounded while the live conductor is kept well underground beneath the two parallel slots. Power is only delivered when a vehicle passes over the rail with a retractable contactor, reducing danger for pedestrians, animals, and other vehicles.
One of the big advantages of this technology being in the road bed is that both passenger and commercial vehicles could use it unlike an overhead wire system that would require some seriously tall pantographs for your family car. Testing over several Swedish winters shows that the system can shed snow and ice as well as rain and other road debris.
Unfortunately, the project’s website has gone dark, and the project manager didn’t respond when we reached out for comment. If there are any readers in Sweden with an update, let us know in the comments!
We’ve covered both overhead wire and embedded inductive coil power systems here before if you’re interested in EV driving with (virtually) unlimited range.
Electric vehicles make for cleaner transport. However, they’re hung up by the limited range available from batteries. Long recharge times further compound the issue.
These issues are exacerbated when it comes to trucks hauling heavy goods. More payload means more weight, which means less range, or more batteries, which means less payload. Electric highways promise to solve this issue with the magic of overhead wires.
An increasing fact of life over the coming years will be the decarbonisation of our transport networks, for which a variety of competing solutions are being touted. Railways, trucks, cars, and planes will all be affected by this move away from fossil fuels, and while sectors such as passenger cars are making great strides towards electric drive, there remain some technical hurdles elsewhere such as with heavy road freight. To help inform the future of road transport policy in the UK then, the British government are financing a series of trials for transportation modes that don’t use internal combustion. These will include a battery-electric fleet for the National Health Service and a hydrogen-powered fleet in Scotland, as well as a trial of the same overhead-wire system previously given an outing in Germany, that will result in the electrification of a 12.4 mile section of the M180 motorway in Lincolnshire.
We’ve written about the overhead electrification project in Germany in the past and subjected it to a back-of-envelope calculation that suggested the total costs for a country such as the UK might be surprisingly affordable. The M180 is something of a backwater in the UK motorway network though, so it will be interesting to see how they approach the problem of finding real-world loads for their tests that ply such a short and isolated route. We’d expect the final picture to include all three technologies in some form, which can only be a good thing if it increases the available electric and hydrogen infrastructure. We’ll follow this story, though sadly we may not be able to blag a cab ride on the M180 in one of the trucks.
