Not one, but two companies this month unveiled something electric car enthusiasts have been asking for for a long time electric crate motors that can be pretty easily swapped into whatever gasoline-powered vehicle theyll physically fit into. Batteries not included.According to Autoblog, upstart Electric GT (EGT), led by Eric Hutchison, plans to soon offer both a single- and dual-motor EV conversion kit.Both can be bolted onto manual transmissions, and many motor mounts and plate adapters for various gearboxes have already been developed; the company can custom-design adapters, too.The company first gained popularity (or notoriety) for swapping an electric drivetrain into a Ferrari 308, swapping out the cars old 2.9-litre V8 which made 280 horsepower and 181 lb.-ft. of torque for three AC51 HPEVS electric motors making a total 465 hp and 330 lb.-ft. View this post on Instagram Perfectioneering. 44 Drop in Crate Motor revisions for the Toyota Land Cruiser FJ 40. well and a few other cool 44’s. Bark if you like it and Share it if you ❤️ it! . . . . #bronco #fj #fj40 #efj #electric4x4 #rivian #toyotaFJ #fjcruiser #ev4x4 #classic4x4 #motorswap #offroadev #offroading #lsswap #montereycarweek #thequail electeicswap #goodidea #goodservice #thequail #montereycarweek #plugplayev #electriccratemotor A post shared by Electric GT (@electricgte) on Aug 22, 2019 at 8:33pm PDTThe new e-crate motor is shaped like a classic V8 motor, except its about 5 inches longer than most classic Chevy or Ford small-blocks. The single-motor kit makes 140 hp and 240 lb.-ft.; while dual-motors make 240 hp and 340 lb.-ft.Swindon Powertrain in the U.K. is also throwing its hat into the e-crate ring, and will offer a smaller, more European-style motor.Swindons motor is a more conventional transverse design for front-wheel-drive cars or small mid-engine cars. It weighs a more Chapman-esque 70 kg and makes a respectable 110 horsepower. Dimensions are 600 mm wide by 440 mm deep by as little as 280 mm tall, meaning it will fit almost anywhere, including under the hood of a Mini.Its worth noting if you convert your classic car to electric power, though, FIVA (Fédération Internationale des Véhicules Anciens), the global organization dedicated to preserving older vehicles, recently announced it will consider your car or any vintage EV-converted car desecrated.The group regularly lobbies governments around the world for classic car owners rights; but in their eyes, your EV-converted antique aint a classic car any more, so youll be on your
Origin: Electric ‘crate motors’ make turning your gas car into an EV easy
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Spotting a fire truck ahead is easy for people, not so for cars
A Tesla crashed into a fire truck near Los Angeles in 2018.Culver City Firefighters To the human driver, it would have been an obvious obstacle: a police car and fire truck, emergency lights blazing, blocking the lane ahead.But to the Tesla Model S traveling down a Southern California freeway last year on Autopilot, it was a far more vexing technical challenge thats inherently difficult for the growing number of vehicles that automakers are equipping with driver-assist systems.The car slammed into the rear of the fire truck, resulting in no injuries but drawing the attention of federal investigators concerned about the emerging technology.Its not unique to Tesla, said David Zuby, chief research officer at the Insurance Institute for Highway Safety, which has studied how automated driver-assist systems perform. Weve seen evidence in our test driving of other systems with this kind of problem.The radars and cameras used to sense obstructions ahead each have their limitations and computer software that evaluates the data is still a work in progress, according to the experts and advocates. In many cases, they are better at tracking moving vehicles ahead than recognizing parked ones.To be sure, automated driving systems have clear potential to improve traffic safety by supplementing the driver. Automatic emergency braking alone has been found by IIHS to reduce rates of rear-end crashes by half, and the insurer-funded group estimates that the system could reduce police-reported crashes of all types by 20 per cent.So far, Tesla is the only carmaker cited by the U.S. National Transportation Safety Board in an accident investigation for how it designed its partially autonomous system, but the case highlights the broader limitations of similar technology. It also puts a spotlight on a related concern: how to keep the imperfect humans behind the wheel engaged.The sensors on a Tesla and other cars are relatively good at following a vehicle in the same lane and adjusting speed to maintain a safe distance. But when a vehicle changes lanes known as the cut-out scenario it can leave the trailing vehicles sensors struggling to assess whats ahead.The cut-out is one of the hardest scenarios, said Phil Koopman, an engineering professor at Carnegie Mellon University and co-founder of Edge Case Research, a Pittsburgh-based autonomous vehicle technology company. Theres no question about that.The radar and camera system on the Tesla involved in the Jan. 22, 2018, crash in Culver City, California, didnt see the fire truck in time to brake, according to the NTSB. The cars automatic braking system didnt activate, though it gave the driver a collision warning 0.49 seconds before impact, the investigation found.The Tesla sped up after the vehicle it had been following changed lanes several seconds before the impact, hitting the fire truck at 31 miles (50 kilometers) per hour.The Model S involved in the crash was a 2014 model. Since 2016, Teslas vehicles have received additional cameras, improved automatic braking and, according to the company, they can better handle the cut-out hazard.Tests to replicate cut-outs were found to be one of the most challenging to automated driving systems examined in 2018 by Euro NCAP, which tests and assigns safety ratings for vehicles in Europe. Automated driver-assist systems on some models tested last year by Euro NCAP found several vehicles struggled to automatically handle stationary objects and in the cut-out scenario. The Mercedes-Benz C-Class, BMW 5 Series and Nissan Leaf, for example, offered limited or very limited automated support and primarily relied upon the driver to handle the situation.But its not just a sudden lane change that can flummox such systems, Koopman said.The radars typically used on vehicles that have automated braking cant distinguish very well between a road sign and a stopped vehicle, he said. If a car slammed on the brakes for every object it sensed ahead, it would cause endless false alarms.That can pose risks, too. More than 80 late-model Nissan Rogue drivers have complained to auto regulators that the SUVs automatic emergency braking system activated unintentionally, 10 of whom claimed the misfire occurred when the road ahead was clear. The National Highway Traffic Safety Administration may open a defect inquiry into the issue after the Center for Auto Safety, a consumer advocacy group, reported the complaints to the
Origin: Spotting a fire truck ahead is easy for people, not so for cars
Under the skin: Why hydrogen could be an easy cell
Twenty years ago, DaimlerChrysler, as the two merged companies were called then, launched the A-Class-based Necar 4, the first production-ready fuel cell vehicle capable of being driven on public roads. The plan was for the first commercial version, dubbed, ‘Necar X’ to be launched on public sale in 2004. By that time, DaimlerChrysler said it would have spent over £1.1 billion on fuel cell vehicle development: it was that big and looked that certain. The board member responsible for RD, Klaus-Dieter Vöhringer, said back then: “From 2004 to 2010, the population of fuel cell vehicles has to increase very fast otherwise the (refuelling) infrastructure will not grow.” He was dead right in one sense: it didn’t grow and fuel cell cars haven’t taken to the roads in large numbers. Yet. Some would say hydrogen fuel cells are the holy grail of sustainable propulsion because they emit nothing except water and heat from the tailpipe. So long as the hydrogen fuel they consume is produced sustainably, it’s an environmental free lunch with refuelling pretty much as easy and fast as it is with petrol or diesel. In common with a battery, a fuel cell ‘stack’ consists of hundreds of individual cells producing a little over one volt each. The favoured technology for cars and transport is the polymer exchange membrane (PEM) fuel cell. A fine polymer membrane sandwiched between a platinum cathode and anode and two flow plates in a kind of double-decker sandwich make up each cell. Hydrogen travels through the flow plates on the anode side while air is pumped through the cathode side as a source of oxygen. Hydrogen protons are attracted through the membrane to the oxygen, making water, leaving the hydrogen electrons behind, forming a current in an external circuit. There have been lots of technical hurdles to overcome – including scavenging residual water from inside the cells, which would freeze at low temperatures, starting the stack in sub-zero temperatures, economic manufacture and robustness – but today fuel cell systems are advanced, if still pricey. An entire fuel cell system consists of a stack, a carbonfibre tank capable of storing hydrogen at 750 bar and a small lithium ion battery to deliver both the fast surge of power needed for acceleration and to store energy from regenerative braking. Tough hydrogen tanks split and release hydrogen rather than exploding if damaged and, in that sense, the world’s most plentiful element is safer than petrol. The rest of the powertrain is like that of any other electric car, with an electric motor and power control module to manage it all. It’s also 20 years since the formation of the California Fuel Cell Partnership, one of the world’s largest institutions pushing the development of fuel cell technology. With its 2030 Vision programme, it aims to get 1,000,000 fuel cell vehicles on California roads along with 1000 hydrogen filling stations by 2030. Maybe then, the fuel cell ball will really start rolling. New train of thought Hydrogen fuel cells are ideal for large vehicles as well as cars. Two Coradia iLint fuel cell trains from French firm Alstom have been running in Germany since 2018 and 27 more have been ordered by a transport authority. A Hydroflex train masterminded by the University of Birmingham and train maker Porterbrook began UK trials in
Origin: Under the skin: Why hydrogen could be an easy cell