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Updates from May, 2012

  • Japanese automaker Toyota has retaken the crown as the world’s largest automaker.

    Initial sales reports for 2012 so far suggest that the Japanese brand, which was badly hit by natural disasters last year, is now outselling American rival General Motors.

    Toyota was the world’s largest automaker between 2008 and 2010, but lost its crown to GM after the Japanese earthquake and then flooding in Thailand seriously disrupted its production.

    Now the brand is back on top, having sold 2.49-million between January and March, compared to 2.28-million by GM.

    Volkswagen, the world’s No. 3, sold 2.16-million, Bloomberg calculated.

    Many observers consider Toyota to be in a better position now than it has been in years — with global gas prices still high, demand for its fuel-efficient vehicles is soaring, especially for the Prius.
    Demand for the model in the United States alone is outpacing the prediction of 220,000 vehicles sold in 2012, Toyota said, with the Prius comfortably selling more in April than competitors such as the Nissan Leaf and the Chevrolet Volt combined.

    Last week it unveiled its first all-electric vehicle, the RAV4 EV, at an electric vehicle show in Los Angeles.

    The electrified SUV is a reprise of one of the world’s first electric vehicles, the original RAV4 electric, with several new enhancements. It’s been developed with the help of leading electric automaker Tesla, and now features a 160 km range and performance equivalent to the gas-powered RAV4.


    8:00 am on May 16, 2012
     
  • WASHINGTON • Two U.S. senators have asked the Obama administration to explain why it approved a $529-million loan to startup Fisker Automotive, which has suspended U.S. production of a heavily touted plug-in electric car as it revamps its business plan.

    Senators Charles Grassley and John Thune asked Energy Secretary Steven Chu whether it was wise to grant financing to Fisker, which ran into production problems after receiving part of the loan.

    “Though the Department of Energy (DOE) has now frozen the remaining portion of Fisker’s loan, questions remain as to why a loan was extended to this now ‘troubled’ auto company in the first place,” the two Republican lawmakers said in a letter released on Monday.

    Fisker was approved for the $529-million loan in 2009 under a DOE program aimed at helping automakers make more fuel-efficient cars and trucks. It received about a third of the money initially to mainly support U.S. engineering and other efforts to roll out its first electric car, the $100,000 Karma, that was assembled in Finland. But delays in getting that car to showrooms prompted the DOE to hold additional financing.

    Remaining funds were to go to develop a $50,000 sedan, called the Atlantic, at a former General Motors factory in Wilmington, Del. Work on the Atlantic was suspended in February.

    Grassley and Thune asked Chu whether he believed it was prudent to spend taxpayer funds to help finance Fisker’s development of high-end vehicles. They also want to know the degree of technical expertise the DOE used to evaluate, originate and monitor the loan.

    Agency spokesman Damien LaVera said DOE financing programs have strict conditions and borrowers must meet milestones and other conditions to receive loan proceeds.

    He added that startup delays are common, and that the DOE is working with Fisker to review a new business plan and determine “the best path forward so the company can meet its benchmarks, produce cars and employ workers” in the United States.

    Fisker says it has devised an approach that allows it to launch the Atlantic and be profitable without U.S. government loans. So far, it has raised more than $1-billion in private financing since closing its Energy Department loan, the agency said.

    A spokesman for Fisker confirmed the company was still in talks with the DOE and exploring all funding options.

    A number of automakers are betting heavily on hybrids and electric vehicles. GM and Nissan, which received DOE loans, have electric cars on the road. The push for greener cars has also ushered in a host of venture-backed startups such as Fisker and Tesla.

    © Thomson Reuters 2012


    12:59 pm on April 24, 2012
     
  • By Nichola Groom

    LOS ANGELES • California approved aggressive new rules on Friday to reduce greenhouse gas emissions by requiring automakers to put many more electric and hybrid vehicles on the Golden State’s roads by 2025.

    The regulations were approved unanimously by nine members of the state’s powerful air-quality regulator, the California Air Resources Board (CARB), at a meeting in Los Angeles.

    They are expected to cut greenhouse gas emissions by 34% and smog and soot pollutants by 75% by 2025, in part by putting 1.4 million electric, plug-in and hydrogen vehicles on the state’s roads.

    The program would also mandate the development of an infrastructure for hydrogen fuelling stations.

    “Californians have always loved their cars … Now we’re going to have cleaner and more efficient cars to love,” CARB chairman Mary Nichols says. “This really is a historic new chapter in California’s history with the automobile.”

    The influential CARB voted on the rules following a two-day hearing that included testimony from automakers, environmentalists, politicians and consumer advocates. The rules will affect vehicles beginning in the 2017 model year.

    The rules are part of the state’s aggressive plan to reduce climate warming emissions by 80% by 2050.

    California is the biggest United States car market and has had the distinction of being able to set policy independent of U.S. federal rules, making it into a laboratory for change over the years.

    About 40% of California’s greenhouse gases come from vehicles and the state’s new rules aim to stimulate production of so-called zero-emission vehicles (ZEVs), which include cars that run on electric batteries and fuel cells.

    The state wants ZEVs such as Nissan’s all-electric Leaf or plug-in hybrids such as General Motors’ Chevrolet Volt to make up more than 15% of new vehicle sales by 2025.

    But California has said plug-in hybrids would be transitional vehicles, adding that 87% of the cars on the road will have to be pure ZEVs by 2050 for the state to achieve its goals.

    The target is an aggressive one considering that such vehicles make up well below 1% of the current market and California has been forced to scale back its ZEV goals in the past because vehicle technology lagged the state’s hopes for putting clean cars on its roads and highways.

    In 2008, CARB reduced the number of pure ZEVs to 7,500 for the three years from 2012 to 2014 from a previous requirement of 25,000.

    Since then, however, automakers have stepped up their investment in more fuel-efficient vehicles, including battery electric cars — a development Nichols says made CARB’s decision easier.

    “The level of consensus is the highest that I’ve ever seen,” Nichols said, adding she had seen “a real change in attitude on the part of auto companies, who have seen the handwriting on the wall that their future lies in these vehicles.”

    An auto industry trade group, however, says automakers are opposed to a clean vehicle mandate. “Mandates create a disconnect in the marketplace. Automakers are mandated to build products that consumers are not mandated to buy,” the Alliance of Automobile Manufacturers says.

    Still, California’s new rules include a provision to allow automakers that over-comply with fuel efficiency requirements across their fleet to offset their ZEV requirement, an apparent acknowledgment of the slow pace of getting such vehicles into the mass market.


    2:00 pm on January 30, 2012
     
  • Listening to the radio the other day drove home just how little is known about the Chevrolet Volt. The commentator, in an off-script moment, was lamenting the fact that electric vehicles such as the Nissan Leaf and Chevy Volt do not have the driving range demanded by the vast majority of commuters.

    While this is true of pure electric cars (most max out at 160 kilometres on a good day), it is positively wrong when it comes to the Volt. Its advanced powertrain has the ability to motivate it for up to 600 km. How can that give anyone range anxiety?

    The Volt is the first of what promises to be a slew of extended-range electric cars and, make no mistake, it is an electric vehicle as the electric motor does 100% of the driving. In simple terms, after charging the main 16-kWh lithium ion battery, the Volt purrs along using this power source for the first 45 km (Chevrolet says 60-plus km, but the reality is that cold weather takes its toll). From here on, the Volt relies on its 63-horsepower 1.4-litre four-cylinder gas engine. It drives a generator. In principle, it is much the same as diesel/electric locomotives — there is no connection whatsoever between the engine and drive wheels.

    Furthering the economy/driving range cause is a buffer that’s contained in the main battery. This is used to store the electrical energy captured through regenerative braking and the excess power developed by the generator. It is this extension that allows the Volt to pull away electrically, and run to 50-plus km/h, even when the instrumentation says there’s zero kilometres of driving range left.

    That’s the techy overview — the manner in which the Volt operates is far simpler.

    Push the start button and a high-tech sound signals you are ready to go. Get on the accelerator and the Volt pulls off the line surprising crisply. I say surprising because the numbers at play are not exactly standouts — the electric motor produces just 150 horsepower, which is not much for a car that weighs 1,715 kilograms. The secret lies in the torque — the electric motor twists out 273 pound-feet from Rev One. The combination delivers a 9.8-second run to 100 km/h and an 80-to-120-km/h passing time of 7.4 seconds.

    THE SPECS

    Type of vehicle Front-wheel-drive mid-sized hatchback
    Drivetrain Lithium ion battery, electric motor and 1.4L four-cylinder
    Power 150 hp; 273 lb-ft of torque @ 1 rpm
    Brakes Four-wheel disc with ABS
    Tires P215/55R17 (optional winters)
    Price: base/as tested $41,545/$44,135
    Destination charge $1,495
    Combined electricity/gasoline fuel economy L/100 km 3.9

    After driving to Detroit and back, a highway-based round trip of 700 km, I had averaged 5.9 L/100 km. At first blush, that’s not overly impressive. However, another 30 km in the city, where the battery and buffer pay the biggest dividend, and the end result was a 1,000-km average of 4.1 L/100 km. True, this does not take into account the cost of recharging the battery, but it is, nonetheless, the lowest average fuel economy I have ever recorded.

    As for the rest of it, the Volt is near normal — there is seating for five and 10.6 cubic feet of cargo space beneath the hatchback. Where the Volt differs is that basically all functions are controlled by touch. The white-faced centre stack is iPad-like in that one simply touches an icon to access that feature. The seven-inch screen at the top of the stack functions in the same manner. The instrumentation is equally out there — to the left of the speedometer is a ball wrapped in leaves. Balance the ball at the mid-point of the scale and you are attaining the best economy. Accelerate and the ball drops, loses its leaves and changes colour and it does the opposite during regenerative braking. In the end, keeping the ball all leafy became like playing Angry Birds — it is addictive, but it’s a good thing in this instance.

    Dynamically, the Volt is equally balanced. The suspension is comfortable without allowing too much body roll, the steering delivers decent feedback and the brake pedal has some semblance of feel — it is still mushy when compared with a conventional pedal, but given the regenerative side, it proved to be remarkably easy to modulate.

    One of the problems with electric cars is the fact they are near silent in operation, which invariably means sneaking up on an unsuspecting pedestrian. Of course, one could use the horn, risk surprising said pedestrian and being told you are Number One. The Volt has a solution — pushing a button on the end of the left-side steering column stalk elicits a discreet three-note “look out” warning.

    However, not all is perfect. If you want to maximize the driving range/fuel mileage, you must select the climate control’s economy setting. As long as the outside temperature is above 10C it works — the strategy relies on the optional heated seats to keep the occupants cozy. Below that temperature, your buns toast, but your toes freeze. This mandates using the less efficient comfort setting.

    Second, the charge time without a 240-volt outlet is long — 12 hours using 110 volts. The other hitch is the rear window. It not only needs a wiper because of its very lazy lie, it splits the rearward view in two. Thankfully, there is a backup camera — a $795 option!

    The Chevrolet Volt is, arguably, the most sophisticated car on the road at the moment — it is clean, efficient and the manner in which it uses its electric/gas combination to eliminate range anxiety represents the near-term solution to the electrification of the automobile. The fact the Volt drives like a normal car is its other endearing trait.


    9:00 am on January 27, 2012
     
  • Detroit • As is the norm, Cobo Hall, the home of the North American International Auto Show, was littered with hybrids of one stripe or another, along with a smattering of full-on electric cars. There was even an indoor arena where journalists and punters alike could take the electrified ride of their choice for a drive. That’s the good news. The bad news is that hybrids are simply not selling.

    While the number of hybrid and/or pure electric vehicles has grown enormously of late, the number of buyers willing to put their cash on the barrel has not. Canadians have purchased almost 18 million vehicles over the past 11 years. Of that number, just 58,000 were hybrids. So, why the antipathy?

    In the earlier days, the reason was likely the fact that this was emerging, untested technology. As such, many — wisely to my mind — applied that old axiom of not buying a new car in its first year.

    That was then. To date, the modern hybrid has proven to be as reliable as anything on the road. There are many Toyota Prius taxis that have 300,000 and 400,000 kilometres on the odometer, and they still purr away as quietly and efficiently as ever. And many of them are still storing electric energy in the original battery.

    The next step is the addition of plug-in capability to a regular hybrid. Ford will launch no fewer than three plug-in hybrids within the next year or so, including the next C-Max. The plug-in advantage is simple — the electric-only driving range rises enormously, which cuts fuel consumption and emissions. This is one part of the green solution. The better solution, however, is found with the extended-range electric vehicle. At this point, the only extended-range electric vehicle available — and, make no mistake, it is an electric vehicle and not a glorified hybrid — is the Chevrolet Volt.

    The Volt’s strategy is very simple. Plug it in, recharge the main battery and, for the first 60 km of the drive, the car is powered electrically. When the battery is exhausted, a gasoline engine comes to life and begins to drive a generator that then powers the electric motor. At no time does the gasoline engine ever drive the vehicle — there is no physical connection.

    The Volt also stores excess power produced by the engine as well as energy captured through regenerative braking. This allows it to run on electricity even after the battery’s driving range has been exhausted. It all sounds very complex, which it is, but it also works so seamlessly that, when tooling about town, the Volt drives like an electric vehicle, and that includes the time the gasoline engine is servicing the electric motor.

    The proof of how well the whole lot comes together is found in the numbers of my Volt tester: It had consumed an average of 3.6 litres per 100 km over the first 4,353 km put on its odometer. That, by any standard, is exceptionally good. For the commuter who has a round trip of less than 60 km, the Volt could actually suffer from a problem, albeit a welcome one — bad gas!

    The Volt is about to get some competition in the form of the Mercedes B-Class E-Cell Plus concept shown in Detroit, which will go into production in 2014. When the B-Class was totally redesigned (the next-generation model will hit Canadian roads later this year), it was designed to accommodate all powertrain forms. As such, the platform will accept anything from a conventional gasoline engine and gearbox to the fuel cell-powered version coming down the road. Between these two bookends sits the E-Cell Plus. In principle, it operates just like the Volt but with a twist — as well as driving a generator at speeds below 60 km an hour, the engine can be used to power the E-Cell at highway speeds. It uses both the electric motor and gasoline engine to drive the vehicle through a newly developed automatic transmission.

    The E-Cell’s electric side comprises a 136-horsepower electric motor and a lithium ion battery. While Mercedes-Benz does not list the battery’s size at this point, the company says it will supply 100 km of electric-only driving, which is enough to satisfy the demands of 80% of all commuters. The gasoline side features a three-cylinder turbocharged engine that puts out 67 hp. While this may seem a little on the light side, Mercedes says the electric/gasoline combination delivers enough power to whisk the E-Cell Plus to 100 km/h in less than 11 seconds and on to a top speed of 150 km/h while returning an extended range of 600 km.

    The extended-range electric vehicle is going to provide the bridge between the need to cut automotive pollution and the dawning of the hydrogen age. These vehicles are extremely frugal, which means they produce significantly fewer emission than the very best gasoline-only automobile and conventional hybrids. However, key to this technology’s success is found in the fact that it does not leave the driver with a bad dose of range anxiety after driving 80 km. That is the single biggest hurdle facing all pure electric rides such as the Mitsubishi i-MiEV and Nissan Leaf.


    5:40 pm on January 13, 2012
     
  • Kia Motors has announced the launch of the Ray EV — a zero-emissions city car with lively performance and a range of up to 139 kilometres on a single charge — which it says is Korea’s first electric vehicle.

    Exclusively for the domestic Korean market, the Ray EV is a close relative of Kia’s 1.0-litre gasoline-powered Ray CUV, which went on sale in November.  It shares that model’s major dimensions and, in what Kia says is a global first for an EV manufacturer, can share a production line with conventional cars.

    The front-wheel-drive Ray EV is powered by a 50-kilowatt electric motor and a high-capacity 16.4 kWh lithium ion polymer battery pack that is packaged under the rear seat and cabin floor.

    Although the Ray EV weighs 187 kilograms more than the gasoline model, the electric motor’s abundant torque ensures that the EV’s acceleration is brisker than the gasoline model (zero-to-100 km/h in 15.9 seconds), while top speed is 130 km/h.  Recharging times are six hours using a 220-volt household supply and just 25 minutes in fast-charge mode, says Kia.

    The Ray EV’s automatic transmission offers the driver a choice of two modes while in Drive. Eco mode optimizes the delivery of the motor’s torque to achieve minimum battery consumption and maximum driving range. Brake mode can be selected when driving downhill on highways and on mountain roads to maximize braking power.

    Inside, the Ray EV features a unique instrument cluster, displaying electric motor operation, battery status and distance to recharge. It is also equipped with the first-ever EV-specific navigation system that features a seven-inch screen and provides crucial information for EV drivers such as the nearest locations of the slow/fast recharging stations. The display shows a circular shaped area in which the model can travel with its current level of battery power, so that drivers can see which destinations are reachable without a recharge.

    There are 500 slow/fast recharge stations in Korea, with the government planning to increase that figure to 3,100 stations by the end of 2012.

    During 2012, Kia is planning to manufacture 2,500 units of the Ray EV, which will be provided to government departments and public offices as part of the company’s long-term real-world research and development program.


    12:12 pm on December 28, 2011
     
  • Yokosuka, Japan • The earthquakes and tsunami in Japan earlier this year has that country re-evaluating its sources of electricity — and those concerns are helping kick-start development of electric vehicles as an additional resource to the nation’s power grid.

    The battery that powers the all-electric Nissan Leaf is a significant storage unit for electrical energy. In fact, Nissan says the battery’s six kilowatts of power is sufficient electricity to supply the needs of a typical household for two days. It’s also capable of storing photovoltaic energy generated by wind and/or solar panels through its power control system.


    The Japanese automaker is actively working with the government here to develop the concept of tapping into electric vehicles such as the Leaf as a viable part of the power supply grid. With Nissan expecting to sell 1.5 million electric vehicles annually by 2016, this supplementary power source could play a role in enhancing electrical infrastructures around the world, assuming various regulatory issues can be resolved.

    This new chapter in the Leaf story was only part of an extensive global media briefing held at Nissan’s Oppama proving ground this week prior to the opening of the Tokyo Motor Show. The company pulled the covers off several technological innovations it’s working on. Some features we’ll be seeing soon; others may be farther down the road. For example, in an effort to make recharging more convenient for Leaf owners, Nissan engineers have developed a wireless charging system. Simply park the car over the pad, which recharges the battery through electromagnetic induction— no plug-in is required. Engineers say the charging efficiency of the wireless unit is about 80% to 90%, similar to a plug-in charger.

    While the Leaf is grabbing all the EV attention at the moment, Nissan continues to work on developing a practical fuel cell stack, which its engineers say will be the solution for long-range use of electric vehicles. They showed off a third-generation, in-house-developed cell that features 2.5 times the power density of the previous unit, yet is 50% smaller in size. Weight has been reduced to 40 kilograms from 120 kg and its cost to produce has been reduced significantly. This new, compact fuel cell stack will still cost about $200,000 to produce, but that’s about 10% of the price tag on the original iteration. Engineers working on the project are confident those cost figures can be reduced further. In fact, they’re currently working on developing fourth and fifth generations of the stack and promise these new units will be very different from the model just introduced — and more cost-efficient. Interestingly, Nissan’s fuel cell technology connects directly to the powertrain used in the Leaf, so there’s no need to develop an electric motor system specifically for use in its fuel cell-powered vehicles.

    Efforts to develop new environmental technologies and reduce carbon dioxide emissions — as well as global dependence on non-renewable resources — are only part of Nissan’s story. The company is also committed to developing new safety technologies. It has set a goal of cutting in half the number of fatal and serious injuries involving Nissan vehicles by 2015, with the ultimate objective of reducing that number to substantially zero. While that may sound like a lofty target, there has already been significant progress. In 1995, there were 15.3 fatal and serious injuries per 10,000 units of Nissan vehicles in Japan. That total has already been cut in half (it was 7.2 in 2009) and the prospect of reaching close to zero seems to be attainable. In the United States, the record is similar, with the number of fatalities per 10,000 units reduced to 1.63 from 3.14.

    Much of the credit for these improvements in vehicle safety can be attributed to Nissan’s Safety Shield concept, which includes nine technologies — lane departure prevention and lane departure warning, distance control assist and forward collision warning, around-view monitoring system, blind spot warning and intervention systems, plus backup collision intervention and rear moving-object detection.

    Now that suite of safety technologies is about to expand. For example, an acceleration suppression system will soon be available that overrides misapplication of the pedals. In other words, when someone accidentally stomps on the accelerator instead of the brake pedal as they pull into a parking stall, the system will apply the brakes and stop the car before it hits the bricks. This technology really works. Creeping up to a foam wall, I was told to mash the gas pedal. I put it to the floor and the car moved forward, then halted abruptly with about 15 to 20 centimetres to spare. The system also works when backing into a parking spot.

    Another nifty new system I experienced is what Nissan calls a predictive forward collision warning. Basically, the car sends a forward radar signal that not only detects the vehicle in front, but also the vehicle ahead of that — the signal is channelled under the vehicle immediately in front. If the lead vehicle, which typically can’t be properly seen, suddenly changes speed or stops, the system will issue a series of warnings. An icon is displayed on the dash, there is an audible signal and the seat belts tighten. In a hands-on test, it worked to perfection. I followed a big SUV, which completely blocked my view ahead. The car ahead of it suddenly stopped and the SUV swerved to avoid a collision. I, on the other hand, would have barrelled into the rear of the stopped car had I not already been warned that trouble was brewing. I was able to make an avoidance manoeuvre with ease. However, the system, which has a forward range of about 150 metres, does not apply your vehicle’s brakes — that’s still left to the driver. Expect to see this feature available on Infiniti models soon.

    One can also expect to see greater use of cameras as multi-sensing systems in future Nissan products, and not just in the high-end Infiniti lineup. Nissan is developing front and rear camera systems that not only provide a typical view, but also integrate other safety features such as pedestrian avoidance (at speeds up to 30 km/h), lane change and blind spot warnings, rear-view warning of objects and persons (especially little ones) and forward collision avoidance warning. By integrating single cameras front and rear with these technologies, costs are reduced enough that these safety features can be available on models further down the lineup, rather than limited to the upscale vehicles.


    2:29 pm on November 30, 2011
     
  • Motegi, Japan • Honda is set to introduce a new plug-in hybrid and an all-electric version of the Fit. The two are part of an exercise that falls under the company’s Earth Dreams Technology umbrella. Both will be launched in the United States next year. At this point, Honda Canada is still evaluating the viability of bringing one or both to Canada. Put my vote in the bring box!

    The new plug-in hybrid uses an entirely new drivetrain — a gasoline-powered engine that is teamed with not one but two electric motors. This is a significant move that vaults Honda into the full-on hybrid league. As such, the plug-in hybrid can run on electric power, a combination of the gasoline and electric power sources or on the gasoline engine alone.

    The new 2.0-litre Atkinson-cycle engine uses direct injection along with i-VTEC and variable cam phasing. The combination boosts torque and horsepower considerably while reducing fuel consumption by five per cent compared with the current 1.5L engine used in the Civic Hybrid.


    As it stands, the gasoline engine produces 134 horsepower and 111 pound-feet of torque (although one should expect slightly better numbers in the production car). The main electric motor chips in with another 161 hp and 221 lb-ft of torque. The second electric motor plays the role of a generator.

    Where this system differs from others is that the plug-in hybrid is designed to run on the electricity stored in the six-kilowatt/hour battery — which requires 1.5 hours to recharge using 220 volts — for the first 24 kilometres of the drive. When it’s depleted, the gasoline engine kicks in and drives the generator, which then provides the electricity consumed by the main electric motor.

    At highway speeds, the plug-in decouples the electric side and runs on the gasoline engine alone. The interesting part is that, in each case, the motor and engine drive the wheels directly as there is no multi-speed gearbox.

    It sounds complicated, but the system is remarkably seamless in the manner in which it operates. Launch is strong thanks to the motor’s low-end torque, and the delivery of power remains linear through the mid-range. Push on a little harder and the gasoline engine fires up and keeps things rolling along nicely.

    The test drive of the new hybrid system was conducted in the current Accord sedan — which model will see the production version of the plug-in hybrid system is still up in the air (although my money says Accord).

    Outwardly, the Honda Fit EV looks (graphics aside) exactly like its gasoline-powered sibling. In fact, it is only when climbing behind the wheel does one find the first big difference — step-in height is taller because the car has been raised to accommodate the 20-kWh main battery beneath the floor, where it is protected as well as provides a lower centre of gravity. Recharging the battery is done through an onboard charger. The 6.6-kW unit is capable of fully recharging the battery in three hours when using a 220-volt outlet. The downside is the 18 hours it takes to accomplish the same with a regular 110-volt outlet.

    In lieu of the 1.5L four-cylinder engine, the EV adopts a derivative of the electric motor that currently sees duty in the fuel cell-powered Clarity. In this instance, it delivers 123 hp and 189 lb-ft of torque. The output is such that the Fit EV enjoys the same sort of acceleration as its regular compactsized counterpart equipped a 2.0L gasoline engine — credit the early arrival of the torque and the fact it stays with the program through the mid-range and on to the top end.

    The Fit EV has the potential of delivering a city driving range of 195 km and a highway rating of 150 km. The difference in the distances is due to the lack of regenerative braking when the Fit is driven at a constant speed.

    However, Honda is up front and admits that these are ideal distances. As such it takes the ideal and multiplies it by 0.7 to arrive at a real-world number. The multiplier takes into account the power needed to drive the electric air conditioner and power steering, provide heat in winter and supply the power requirements for everything from the radio to the wipers and heated seats. In the end, the Fit EV can provide 125 km of everyday real-world fun.

    The EV also features a three-mode drive system similar to the one found in the CR-Z. In economy mode the throttle is much softer (actually too soft for most situations). The caveat to this is that if the distance to empty is getting tight, selecting the eco mode might just be the difference between getting home and not.
    Selecting the sport mode sharpens things appreciably, but it does so at the expense of driving range (it reduces the driving distance by up to 25% when compared with the economy mode). As such, normal mode is the best, as it balances the desire for performance with the need for a usable driving range.

    As for the rest of it, the EV is every bit a Fit. It does not suffer because of the additional mass added by the battery, nor is there any compromise in the utility aspects.

    The all-too-brief test drives proved both plug-in hybrid and Fit EV are road ready. Both offer surprising performance and have a ton to offer in terms of reducing the toll the automobile places on the planet.


    2:19 pm on November 30, 2011