There are challenges ahead even as electric pickups are poised to enter a potentially enthusiastic market. Those challenges could mean a more gradual market trajectory than that of electric sedans and SUVs, which have already taken quite some time to gather momentum. For example, cars and SUVs used for commuting or running errands are typically driven less than 40 miles daily, with occasional trips of several hundred miles with passengers. That’s a reasonable and flexible duty cycle for electric passenger vehicles. It’s different for trucks.
With the exception of work trucks in urban areas, pickups in many rural areas travel hundreds of miles every day without refueling. That’s not an issue for conventionally powered pickups with their considerable driving range. It could be for coming electric pickups since their battery range is about half that of most full-size gas pickups. When conventional pickups do need to refuel, it takes but a few minutes to fill up with gasoline compared with the hours required for electrics. Realistically, it's difficult to see electric pickups meeting the duty cycles of work trucks like these until fast charging becomes widespread, especially in rural areas.
Towing presents additional food for thought. It’s well-known that fuel economy, and thus range, is reduced when conventional vehicles tow trailers, boats, or any load. Range is impacted more dramatically in electric vehicles, a fact that could make electric pickups less desirable for towing a boat or heavy load any significant distance since charging would likely be required every couple hundred miles. Illustrating the challenge is that towing a 5000 pound trailer with a Tesla Model X or Audi e-tron has been shown to result in a range reduction of up to 40 percent. Increasing range by adding batteries in an electric pickup may bring longer range, but it also means reducing payload and towing capacity pound for pound.
Looking at the demographics of pickup owners and comparing this with available charging stations presents a stark reality. The 13 states where pickups represent 25 percent or more of new vehicle sales have about 2600 public charging stations, less than 10 percent of all public charging stations in the country. That’s quite a disconnect. These are typically large states where long distance travel is the rule. This underscores the importance of charging opportunities and the formidable challenges electric pickups may face in areas where charging infrastructure is behind the curve.
Another challenge is maintenance. Even though electric pickups require significantly less maintenance than their gasoline or diesel counterparts, there are times when EV-specific service will be required. While the usual tire, brake, and fluid maintenance can be performed by mainstream service providers, electric pickup manufacturers must provide for other potential servicing involving an electric drivetrain, on-board electronics, and the many other controls and systems unique to an electric vehicle. That’s not a significant issue for legacy automakers like Ford and GM that have a widespread dealer sales and service network, even in sparsely populated states. Service personnel at dealerships can be trained in EV-specific work. Fledgling and start-up electric pickup companies will certainly be at a disadvantage here.
Will electric pickups succeed? Time will tell. Plus, we’ll have to see how some wishful launch schedules align with reality since COVID-19 has caused auto manufacturing delays and shutdowns. Plus, with today’s extraordinarily low gas prices, the value equation for electrics of any kind is skewed, at least for the present time. That doesn’t mean there won’t be demand for electric pickups…just that expectations for timing and market penetration should be tempered.
The iconic, box-like Kia Soul gets a redesign for 2020, sporting styling changes that include a more aggressive front end with horizontal strips containing daytime running lights. Headlamps are integrated in the bumper while taillights now practically encircle the rear window. The third-generation model rides on a 1.2-inch-longer wheelbase and is 2.2 inches longer, and while this really doesn’t translate into additional usable space, the doors do open a little wider and the rear hatch is a bit larger. Folding down the back seats expands cargo capacity from 24 cubic feet to 62 cubic feet.
Soul is available in base LX, X-Line, S, EX, GT-Line, and GT-Line 16T trim levels plus the all-electric EV. LED projector headlights are standard on the both GT-Lines and are optional on the EX. The X-Line gets tougher-looking bumpers and plastic fender flares. GT-Line has a center exhaust, monochromatic bodywork, and a sportier suspension tune. The GT-Line 16T also gets wider tires on 18-inch alloy wheels and larger front brakes.
Except for the GT-Line 1.6T and EV, all Soul variants are powered by an Atkinson-cycle, 2.0-liter DOHC four-cylinder engine producing 147 horsepower and 132 lb-ft torque. The GT-Line 1.6T features a turbocharged 1.6-liter DOHC four-cylinder boasting 201 horsepower and 195 lb-ft torque. All 2.0-liter engine cars except the base LX use a new continuously variable automatic transmission (CVT). The LX has a standard six-speed manual with the CVT optional. GT-Line 1.6T shifts through a seven-speed, dual-clutch automatic transmission with steering wheel-mounted shift paddles. All-wheel drive is not available on the Soul. EPA estimated fuel economy numbers are 29 city/35 highway for the 2.0-liter engine with CVT and 27 city/33 highway mpg for the 1.6T.
Forward collision avoidance assist with pedestrian detection, lane keeping assist, driver attention warning, blind spot collision warning, rear cross-traffic collision-avoidance assist, lane change assist, smart cruise control, and a head-up display are available as standard or optional equipment, but not on an all trims. A 7.0-inch color touchscreen is standard with a new 10.3-inch widescreen unit available. Apple CarPlay and Android Auto are standard on all trims. The controls on the steering wheel almost rival those on a F1 race car.
Making the 2020 Soul EV more competitive in the electric vehicle space is a driving range more than double that of its predecessor, with the distance traveled between charges EPA rated at 243 miles. This dramatic increase from the EV’s earlier 111-mile range is made possible with a new 64 kWh lithium-ion battery pack with DC fast-charge capability, quite a step up from the previous 30 kWh pack. A single-speed transmission delivers electric power to a 201 horsepower, 291 lb-ft torque permanent-magnet AC motor driving the front wheels. With max torque available from 0 to 3600 rpm, it’s not hard to squeal the tires. This same drivetrain is used in the Kia Niro EV and Hyundai Kona EV. The 2020 Kia Soul model has four drive modes including Eco, Eco+, Normal, and Sport. EPA rates the Soul EV’s efficiency at a combined 114 MPGe.
Soul EV is differentiated from its internal combustion cousins by a painted plastic insert in place of a front grille, a lower set of LED lights, and restyled fascias at both ends. The Soul EV gets its own version of Kia's UVO infotainment system and a 10.3-inch touchscreen. It includes information on charging and battery status, charging station updates, and scheduled charging functions. Drivers have the ability to remotely plan a trip and send the information, including waypoints, to the car's navigation system.
The gas-powered 2020 Soul’s base price starts at $17,490 for the LX and tops out at $27,490 for the GT-Line 16T Turbo. Available in late 2019, the new Soul EV will be offered in California EV compliant states at a price to be determined.
Jaguar’s first electric vehicle, the I-PACE offers a pleasing and aggressive design, luxury appointments, and exceptional driving characteristics. Part of Jaguar’s PACE family of vehicles along with the gasoline-powered E-PACE and F-PACE, the electric I-PACE blazes its own trails with great acceleration and handling on purely battery power, something it proved time after time in Green Car Journal’s drives on interstates, in the city, and on twisty canyon roads.
The I-PACE is is available in three trim levels, S, SE and HSE, starting at $69,500. Besides being Jaguar Land Rover’s first all-electric vehicle, it is also the first one that can receive over-the-air system software updates as new capabilities become available.
I-PACE is powered by two identical 197 horsepower electric motors that produce a total of 394 horsepower and 512 lb-ft torque. One motor drives the front wheels while the other powers the rear, resulting in all-wheel-drive. It can also operate on a single motor for more efficient two-wheel drive motoring when appropriate. Acceleration from 0-to-60 mph is a claimed 4.5 seconds, a performance characteristic we enjoyed throughout our drives.
This Jaguar electric SUV is essentially equal to its all-electric competitors when it comes to range between charges at 234 miles. Electrical energy is stored in a 90 kilowatt-hour, underfloor battery pack consisting of 432 high-energy density lithium-ion pouch cells. The battery pack's location provides a low center of gravity that enhances driving dynamics.
The I-PACE has an aluminum body like other current Jaguar Land Rover vehicles. In this case the underfloor battery pack housing is used as a structural component, which provides I-PACE the greatest torsional stiffness of any model in Jaguar Land Rover’s lineup. The battery pack can be charged to 80 percent capacity in 40 minutes from a 100 kW source or in 85 minutes with a 50 kW charger.
Because there is no engine up front, the base of the windshield has been moved forward compared to the E-PACE and F-PACE to provide more interior space. Thus, while being similar in dimensions to its conventionally-powered siblings, it has a roomier interior. While a battery electric vehicle, it retains the appearance of an internal combustion model. For instance, there’s a radiator behind the front grille for the battery's liquid-coolant system. The grille also directs airflow through the hood scoop to reduce drag, and active vanes in the grille and front bumper can close to further improve aerodynamics when battery cooling and the climate-control system aren’t needed. Other aerodynamic features include powered hideaway door handles. Air springs are standard and can lower the car by as much as 0.4 inches at highway speeds to further reduce drag.
Torque Vectoring by Braking gives the I-PACE sports car-like agility. Controlled independent braking on the individual inside front and rear wheels adds to the turning forces acting on the car. Under most conditions, more braking pressure is applied to the rear inside wheel as this best supports increased cornering capability, while the front inside wheel is braked for greater effectiveness and refinement. Adaptive Surface Response constantly monitors the car's driving environment and adjusts appropriate motor and brake settings.
The I-PACE offers a wide array of driver assist and connectivity features that vary with trim level. The Park Package includes Park Assist, 360-degree Parking Aid, and Rear Traffic Monitor. A Drive Package provides Blind Spot Assist, Adaptive Cruise Control with Stop & Go, and High-Speed Emergency Braking. Connectivity features include Remote, Navigation Pro, Connect Pro, 4G Wi-Fi Hotspot), and Stolen Vehicle Locator.
Jaguar Land Rover plans to offer an optional electrified powertrain for every one of its models by 2020. The Range Rover P400e, along with the Range Rover Sport P400e, represent the brand's first plug-in electric hybrids. Most significant about the Range Rover P400e is that it’s the first hybrid 4WD vehicle from any automaker that can drive off-road solely on battery power in almost complete silence, and without any emissions. To accomplish this the P400e uses a 144 horsepower electric motor and dual clutches inside the automatic transmission, and an eight-speed ZF transmission with steering wheel paddles for manual control.
The gasoline engine in the P400e is Land Rover’s 2.0-liter turbocharged four-cylinder that makes 296 horsepower and 295 lb-ft torque. Combined engine and electric output is 398 horsepower. Supplying power to the electric motor is a 13.1 kWh lithium-ion battery located beneath the rear floor, necessitating the floor to be raised about 1 1/2 inches. The P400e can run on electric power for about 31 miles at speeds up to 85 mph. Range is reduced substantially in electric off-road mode.
The Range Rover received a mild makeover for 2019 with a longer hood, slimmer LED headlights, wider lower intakes, and black grille accents. Side accents and graphics were also revised, taillights are new, and a restyled rear bumper now integrates boxy exhaust exits. Only a small P400e badge on the tailgate indicates that electrification is at work beneath the skin. Its charge port is hidden behind a flap at the left of the grille. Illuminated strips on either side of the charge port allow a quick check of the battery's charge status.
Air suspension can raise ground clearance up to three inches and the PHEVs can ford 35.4 inches of water like other Range Rovers. With Low Traction Launch software, it can handle slippery surfaces like wet grass, loose gravel, and snow. On ideal surfaces, Land Rover is claiming a 0-60-mph time of 6.4 seconds with a top speed of 137 mph, impressive for vehicles weighing over 2 1/2 tons.
Range Rover’s Touch Pro Duo infotainment system has two 10.0-inch HD displays stacked on top of one another in the center console. The top one is primarily for navigation functions, while the lower screen controls infotainment, car settings, climate control, and other features. An Interactive Driver Display indicates driving efficiency. In Control gives information about charging locations on the route traveled. In parallel hybrid mode, both engine and motor work together for optimum fuel economy and minimum impact on the environment.
When a destination is entered into the navigation system, the P400e's electronic neural network factors in traffic conditions, gradients on the route, and whether driving is in rural or urban environments to deliver the most efficient combination of power modes. Save mode ensures the battery will have enough charge to allow the P400e to operate in pure EV mode in urban areas.
Hyundai’s 2019 Kona joins a growing list of long-range EVs aiming to entice new car buyers to go electric. The Kona Electric subcompact crossover looks like its conventionally-powered counterpart save for its closed front grille, silver side sills, unique 17-inch alloy wheels, and appropriate badging. It is available in three trim levels – SEL, Limited, and Ultimate. Like the gasoline Kona, the Kona Electric is available with a two-tone roof if the sunroof is not ordered.
Power is provided by a 201-horsepower electric motor driving the front wheels, energized by a 64-kWh lithium-ion polymer battery that enables an estimated 250-mile range. It can be recharged from a depleted state in about 54 minutes via a fast 100 kW Combined Charging System (CCS), or in 75 minutes with the more common 50 kW CCS. Charging with a 240-volt Level 2 charger takes about 10 hours. An EPA estimated 117 MPGe is expected. The Kona Electric accelerates from 0-60 mph in 7.6 seconds and has an electronically limited top speed of 104 mph.
A 7-inch TFT screen instrument cluster shows the speedometer, battery charge level, energy flow, and driving mode. There’s also a 7-inch infotainment touchscreen system that offers HD and satellite radio as well as BlueLink data connectivity. The system is also compatible with Apple CarPlay and Android Auto. Navigation with an 8-inch screen is optional. BlueLink app-based remote charge management and charge scheduling is fitted. Other available features include a flip-up head-up display and wireless inductive charging for personal electronics.
Push button shift-by-wire controls are located on the center console. Adjustable regenerative braking is controlled by steering wheel paddles. Electrically-assisted power steering has been tweaked to accommodate the enhanced low-speed performance of an electric vehicle.
A host of driver assist features are provided depending on the trim level. All trim levels get Forward Collision-Avoidance Assist, Blind-Spot Collision Warning, Lane Keeping Assist, Rear Cross-traffic Collision Avoidance Assist, Rear View Monitor, and Smart Cruise Control. The Ultimate trim level adds Parking Distance Warning for reverse, Smart Cruise Control with Stop and Go, and a head-up display.
The Kona Electric will initially be sold only in California. It will eventually be available in states that have adopted the California ZEV mandate.
Amid all the hype and hope for electric vehicles, there are many assumptions being made by those who believe electrics will dominate the worldwide automotive landscape in future years. How much is this based in reality? No doubt, consumer acceptance will vary depending on specific markets. According to a recent study, Future of Electric Vehicles in Southeast Asia, up to one in three Southeast Asian drivers in the market for a new car would be open to buying an EV. Commissioned by Nissan and conducted by Frost & Sullivan, the study is said to illustrate the very strong propensity for electric vehicles in the region.
The research focused on Indonesia, Malaysia, the Philippines, Singapore, Thailand, and Vietnam. Among its findings are that 37% of prospective buyers would be willing to consider an EV as their next car. Of these, the study points to consumers in Indonesia, the Philippines, and Thailand as the most inclined to do so.
Interestingly, two out of three surveyed said that safety was most important to them, followed by charging convenience. Cost was not identified as a factor in their decision making, and in fact many of those surveyed said they would be willing to pay more for an electric vehicle. Green Car Journal editors note that early electric vehicle studies in the U.S. at times came up with the same conclusion that buyers would be willing to pay more for an electric vehicle, but that has not materialized. In fact, subsidies are often a prime motivator in prompting an EV purchase or lease.
While a higher price wasn’t identified as an obstacle to EV sales, that doesn’t mean lower cost wouldn’t be a motivator. In the study, three in four respondents said they would consider an electric vehicle if taxes were waived, and other incentives would also sway consumer decisions to go electric including free parking, the ability for solo EV drivers to use priority lanes, and installing charging stations at apartment buildings.
"Leapfrogging in electrification of mobility requires strong collaboration between public and private parties and a long-term approach tailored to each market's unique situation," points out Yutaka Sanada, regional senior vice president at Nissan. "Consumers in Southeast Asia have indicated that governments have a critical role to play in the promotion of electric vehicles."
Nissan has announced that its Nissan LEAF electric car will go on sale in Australia, Hong Kong, Malaysia, New Zealand, Singapore, South Korea, and Thailand during the next fiscal year.
So what to do with old electric vehicle batteries? Here’s one approach: Toyota and Chubu Electric Power Co. will be constructing a large-capacity storage battery system that reuses recycled batteries from Toyota electric vehicles. This aims at addressing two key issues. It deals with ways to make use of aging EV batteries that have reached the end of their useful life for vehicle propulsion, while also enabling Chubu Electric to mitigate the effects of fluctuations in the utility’s energy supply-demand balance, a growing issue caused by the expanding use of renewable energy.
Initially, the focus will be on repurposing nickel-metal-hydride (Ni-MH) batteries since these have been used in large numbers of electric vehicles for nearly two decades. The focus will then expand to include lithium-ion (Li-Ion) batteries by 2030. Li-Ion batteries have generally powered the second generation of electric vehicles and plug-in hybrids in more recent years, and thus will not reach their end-of-use for electric propulsion for some time still.
The energy storage capabilities of EV batteries diminish over time and after continuous charging and discharging. Eventually they become insufficient for powering electric cars but can still store adequate energy for other purposes. Even with their diminished performance, combining them in large numbers makes them useful for utilities and their efforts to manage energy supply-demand.
Based on the results of their initial work, the plan is to provide power generation capacity of some 10,000 kW by 2020. In a related effort, Toyota and Chubu Electric will be exploring ways to ultimately recycle reused batteries by collecting and reusing their rare-earth metals. The automaker has explored battery recycling in the past including at the Lamar Buffalo Ranch field campus in Yellowstone National Park. Here, 208 used Toyota Camry Hybrid battery packs are used to store renewable electricity generated by solar panel arrays.
Mercedes-Benz has unveiled its all-new Sprinter van, the third-generation of this highly successful commercial vehicle that first came on the scene in 2006. Beyond the model’s updated styling are its many features that mark the Sprinter’s entry into an increasingly connected and environmentally-focused world. The new Sprinter is available for order now in the European market and will be launched there in June, with a gradual introduction into other markets to follow.
Perhaps the most interesting bit of news about the new Sprinter is the coming introduction of an electric variant next year, part of Mercedes-Benz’ efforts to introduce electrification in its commercial fleet. The eSprinter will follow in the footsteps of the eVito van that has been available for order since late last year. Deliveries of the eVito are set to begin during the second half of 2018. The eVito will be followed by the eSprinter in 2019. According to Mercedes, its electric commercial vans will offer operating costs similar to comparable diesel-powered models. Electric eSprinter and eVito models are primarily designed for commercial use in city centers.
An array of important optional driver assistance and safety systems are now available in new Sprinter vans that were only previous offered in Mercedes-Benz passenger vehicles. Among these are the automaker’s Active Brake Assist, Active Lane Keeping Assist, Attention Assist, and the radar-based DISTRONIC distance control system, When Blind Spot Assist is ordered with the Sprinter’s automatic parking package, traffic and pedestrians crossing behind the van are recognized and autonomous braking will initiate if needed.
"Our new Sprinter is the first van of a new type – a fully connected integral system solution,” shares Volker Mornhinweg, head of Mercedes-Benz Vans. “We have made it even better with regard to its traditional strengths and have supplemented it with intelligent products and services. So, we are unlocking a new dimension in terms of efficiency, flexibility, connectivity, and profitability for our customers.”
Charging your electric vehicle used to be an easy thing, at least in many areas where electrification has long been promoted. Public chargers were installed in high-profile areas like shopping centers, parking garages, and at the workplace. For the longest time, it wasn’t unusual to see these chargers go unused for long periods of time. Green Car Journal editors experienced this first-hand for many years during our daily travels with plug-in test cars.
Often enough, ours was the only electric vehicle plugged in at a bank of four chargers at a local commercial center in our city. It was the same story in the parking garage downtown. But that’s changed, signifying both the positives and the challenges of a plug-in vehicle market that’s gathering momentum, and numbers. These days those chargers are often occupied when we pull up. Like most places, there simply don’t seem to be enough chargers to go around.
Many have heard about incidents at Tesla Supercharger sites, places where you can top off 80 percent of your battery charge in 30 minutes and then be on your way. The problem is, not everyone plugs in and then moves on. Superchargers, and chargers in general, are often located in areas where businesses are nearby so the experience is convenient and there’s something to do while charging. Tesla, in fact, has hinted that it’s taking this further and exploring Supercharger sites with food and amenities for those charging up their cars.
To be sure, not everyone stops for a 30 minute cup of coffee while charging. Shopping experiences in nearby stores can take much longer than that, and if all chargers are being used with others waiting to top off before continuing their journey, long waits are a problem. At times that leaves EV drivers frustrated with those who leave their car plugged in long after their needed charge is complete. The result? An interesting phenomenon in recent years called ‘charge rage.’
This isn’t unique to Superchargers or to public charging sites. Workplaces can have similar experiences as employees in increasing numbers step up to battery electric and plug-in hybrids. They’re encouraged to do so not only to drive ‘greener,’ but also to benefit from shorter commutes in states that allow solo EV drivers in high occupancy vehicle (carpool) lanes. That privilege alone has spurred many commuters to go electric. Time isn’t just money. It’s also…time. Spending a half-hour less each way during the daily commute is worth more than money in many respects. And once the commute is done, it’s time to charge.
Most companies offering chargers have limited numbers and often site these in favorable parking areas close to the workplace, further encouraging employees to go electric. It’s good for a company’s image and it’s the right thing to do. That said, expecting employees to free up a charger after a few hours and move their car farther out in an expansive parking lot is asking a lot, human nature being what it is.
Consider, too, charging sites at public parking garages adjacent to convention centers and other venues. Those who plug in while attending a conference of expo aren’t likely to return after an hour or two to unplug and move to another less convenient parking spot. With a limited number of charging spots available, other EV drivers counting on a range-extending charge aren’t likely to be pleased if all charging spots are taken.
Yes, there’s change afoot. Charging companies, automakers, utilities, and both state and local governments are striving to install an exponentially larger number of public chargers to alleviate the problem and keep pace with the growing number of plug-in vehicles on the road. But it hasn’t been fast enough…certainly not at a pace that’s keeping up with the larger number of electric vehicles on the road today.
Drivers have long been promised perks like free public charging, access to carpool lanes with a single occupant in an electric vehicle, and favorable parking with charging available, all to encourage them to go step up to a battery electric or plug-in hybrid vehicle. While not disappearing, these perks are getting harder to realize. And that’s not a good thing for the electric vehicles and the industry as a whole.
EVgo, which maintains the largest network of DC fast chargers in the U.S., reports it has experienced a significant increase in use by electric vehicle drivers over the past two years. In 2016, the company says its network of chargers delivered enough electricity to enable 22 million miles of battery electric driving, with that number increasing to 40 million miles in 2017. Some 1.1 million charging sessions occurred in 2017. EVgo points to the expanding number of EV models available to consumers and an overall increase in the number of electric vehicles on our highways as driving an increasing need for public fast charging.
The company’s fast-charge network now numbers over 1,000 in 66 markets across the country. Its DC fast chargers are typically located in major metro and retail areas to make charging convenient for plug-in drivers.
In addition, EVgo has collaborated with others to complete key charging networks in 2017 that serve the needs of EV drivers wishing longer-distance travel. This includes Northern California’s ‘DRIVEtheARC’ corridor that enables fast charging in the San Francisco Bay Area, Monterey Peninsula, Lake Tahoe, and Sacramento regions. Along with EVgo, the partnership includes the State of California’s Governor’s Office of Business and Economic Development, Nissan, Kanematsu, and Japan’s New Energy and Industrial Technology Development Organization (NEDO).
"Nissan is determined to widely spread EV use to help benefit the environment on global basis. The U.S. is among the top markets in the world for EV sales, and California represents a staggering 40 percent of all EV sales in the country, making the state the catalyst for furthering the adoption of EVs into the future," said Hitoshi Kawaguchi, Chief Sustainability Officer of Nissan Motor. "An adequate public charging network is one of the key factors for EV expansion. Northern California has a diverse geography but until now did not possess a true inter-city EV fast charging network. We are excited to implement this network and study EV use in Northern California so that we can apply the lessons we learn to future fast charging network projects around the world."
BMW’s i3 gets its first mild facelift since its introduction in 2014 plus a new i3s sport model, featuring a higher performance electric drive, sport suspension with 10 mm lower height, and a 40 mm wider track. A restyled front fascia gives both the BMW i3 and i3s a wider appearance. The front apron on the i3s includes aggressive M-like scoops while the rear apron has individually styled contours with black surrounds around a wide, body-colored inlay. Both the i3 and i3s have standard full-LED headlights using LED bulb units for both low and high beams, as well as for daytime running lights. New turn signal indicators also feature LED technology.
The i3s uses a high output 184 horsepower electric motor that generates 199 lb-ft peak torque, 15 greater lb-ft than the standard i3 plus an additional 14 horsepower. BMW also updated the i3s drivetrain to optimize power delivery and the performance curve at higher rpms. At the limits of its motor speed range, power and torque of the enhanced drive system deliver an improvement of up to 40 percent over the standard i3. Driving dynamics and e-Driving abilities are significantly enhanced at higher engine speeds when higher performance and higher torque are more noticeable. In addition to Comfort, Eco Pro, and Eco Pro+ settings, i3s drivers can also choose SPORT mode for a more direct accelerator response and tighter steering
Both the i3 and i3s use the more powerful 33 kilowatt-hour lithium-ion battery introduced in the 2017 i3, which increased battery pack capacity by more than 50 percent and boosted driving range from 81 miles to 114 miles. without any changes in packaging. An optional REx range extending gasoline engine-generator is available for both the i3 and i3s to extend plug-in battery range to a maximum of about 180 total miles of driving.
The latest version of BMW’s iDrive 6 provides an intuitive interface for controlling infotainment, communications, and navigation in the i3 and i3s. When equipped with Navigation System Professional, the control display has a 10.25-inch screen with increased resolution. Automatic over-the-air updates of navigation data are provided via a mobile network connection. The voice recognition system has improved comprehension through cloud-based speech processing. All BMW Connected and BMW Connected+ services are available. On-Street Parking Information, available for the first time in i3 models, helps locate available parking spaces in many major U.S. cities. The system uses historical and real-time data to determine the likelihood of finding vacant parking and displays this information on a navigation map.
Public charging stations and their availability are also displayed on the navigation system’s map. With Navigation Professional, a boundary representing the maximum range the i3 could travel on its current charge status is displayed. Different ranges in each of the Driving Dynamic Control modes can also be shown.
The Technology and Driving Assistance Package for the i3 and i3s includes Active Driving Assistant, Active Cruise Control with Stop & Go, Daytime Pedestrian Protection, Frontal Collision Warning with City Collision Mitigation, and Speed Limit Info. Advanced Real-Time Traffic Information and ConnectedDrive Services are also included within the upgraded Navigation System package. Park Distance Control and Parking Assistance are options.
A BMW TurboCord electric vehicle charger provides charging via a standard 120-volt outlet and can also charge up to three times faster when used with a 240-volt outlet. It is the smallest and lightest UL-listed portable charger available and comes with a 20 ft charging cord.
Plug-in vehicles are on a roll. That’s not to say that battery electric or plug-in hybrids will eclipse internal combustion or hybrid vehicles in the market anytime soon. But the fact that there are 40 plug-in models available in the U.S. during calendar year 2017 speaks volumes on how seriously automakers are taking electrification.
In the market for a plug-in vehicle? Here are your options this calendar year. Prices do not take into account an available federal tax credit up to $7,500 that may apply, or state incentives that can range up to $5,000 or more. Happy hunting!
AUDI: Audi has big plans for plug-in vehicles in its lineup, although the A3 e-tron represents the solitary choice at present. That said, it’s a good one since the A3 has long been a popular and approachable model in the U.S. and represents the right starting point for Audi. Offered at a base price of $39,500, this plug-in hybrid provides 16 miles of battery electric range and an overall driving range of 380 miles. The automaker plans to have three e-tron models within the next three years and others coming after that.
BMW: This automaker is a prolific marketer of plug-in vehicles. Its sole all-electric model is presently the innovative i3, which features a base price of $42,400. It emerged with a larger battery pack in the 2017 model year. The i3 BEV is powered by a 60 AH battery that delivers an EPA rated 81 mile range, with the 94 AH battery variant providing 114 miles of all-electric driving. The i3 REx comes with an engine-generator range extender that enables 97 miles on battery power and an overall range of 180 miles with electricity generated on board. Five additional plug-in hybrids are in BMW’s stable including the sporty i8 ($143,400), 330e $44,100), 530e ($52,950), 740e ($90,700), and X5 xDrive40e ($56,600).
CADILLAC: The short-lived Cadillac ELR extended range electric car, an upscale version of the Chevrolet Volt, was a flash-in-the-pan that illustrated you couldn’t market a high-end – and high priced – plug-in hybrid based on a lower-price Chevy model and get buyers to step up. Cadillac’s answer is its all-new CT6 Plug-In, a luxury model based on its flagship CT6 sedan offering great tech and style. The CT6 plug-in hybrid delivers a 31 mile all-electric range and a 440 miles driving range overall, at a base price of $76,095.
CHEVROLET: GM has the technical prowess to create exceptional electric vehicles, as shown by the acclaimed Chevrolet Volt extended range electric sedan that’s beloved by its owners. The $34,095 Volt provides a 53 mile battery electric range before reverting to electricity created by its on-board engine-generator, for a total range of 420 miles. Chevrolet’s new Bolt EV raises the bar for battery electric cars with an all-electric range of 238 miles before requiring a charge. This all-electric compact crossover is replete with the latest on-board tech and comes in at an MSRP of $37,495.
CHRYSLER: Chrysler was serious about electric and plug-in hybrid vehicles years ago with many concepts and demonstration vehicles, but that faded away as the company focused on getting its finances and mojo back. As part of FCA Group, Chrysler is once again showing its chops with the field’s first-ever plug-in hybrid minivan, the Chrysler Pacifica Hybrid, much to the delight of families and others who have been waiting for such a breakthrough in this vehicle class. The Pacifica Hybrid drives 33 miles on battery power and 570 miles overall, offering a base price of $41,995.
FIAT: The Fiat 500 is a pint-sized, fun vehicle as a gas-powered model. It’s even more fun in our opinion as an electric. The Fiat 500e is cute, nimble, and delivers 84 all-electric miles of driving. No matter that Fiat Chrysler Automobile’s CEO Sergio Marchionne once said the automaker loses $15,000 on every Fiat 500e sold and wasn’t particularly enthusiastic about that. This automaker is still in the game and 500e fans are a happy bunch because of it. The Fiat 500e features a base price of $32,995.
FORD: Ford is offering the Ford Focus Electric as its sole all-electric vehicle along with two plug-in hybrids. The $29,120 Ford Focus Electric has a range of 115 miles before a recharge is needed. Ford is using its Energi PHEV technology in the CMAX, a five-door, compact multipurpose vehicle and Fusion mid-sized sedan. Energi technology includes a 2.0-liter 4-cylinder engine, 118 horsepower electric motor, and 7.6 kWh lithium-ion battery. The $24,120 CMAX Energi delivers 22 electric miles and an overall driving range of 570 miles, while the $31,120 Fusion Energi drives 22 miles on battery power with a total range of 610 miles.
HONDA: The 2017 Honda Clarity was launched first as a hydrogen fuel cell electric vehicle in California and is being joined by battery electric and plug-in hybrid variants this year. The Clarity Electric will drive 80 miles on batter power and initially be available in California and Oregon only, while the Clarity Plug-In Hybrid is expected to be available in all 50 states. These electrified sedans seat five, are quite spacious, and loaded with connected tech and an array of driver-assist systems. The Electric will be leased at $269 per month for 36 months, with $1,730 down (this folds the federal tax credit into the lease terms). The Clarity Plug-In is expected to deliver an electric-only range of 42 miles with an overall driving range of 330 miles. Honda has not yet announced a price for the Plug-In.
HYUNDAI: Hyundai’s all-new Ioniq comes in hybrid, plug-in hybrid, and battery electric choices. At an MSRP of $29,500, the battery electric version features a 124 mile range and an EPA estimated 136 MPGe. It will be available exclusively in California. The plug-in hybrid coming this fall is expected to provide an estimated all-electric range of about 25 miles and hybrid power will take it hundreds of miles past that, although overall range specifics and pricing have not yet been announced. Hyundai’s $34,600 Sonata Plug-in Hybrid, which delivers 27 miles of range on battery power and 590 miles overall, is sold at Hyundai dealerships in 10 states and can be custom ordered elsewhere.
KARMA: Karma Automotive, a new company owned by China’s Wanxiang Group, has revived the defunct Fisker Karma extended range electric car of five years ago and is now manufacturing it in Southern California. Now called the Karma Revero, this grand touring car retains the original’s breathtaking design with some tweaks and benefits from significant technology upgrades and luxury appointments. It’s built on a lightweight aluminum spaceframe and powered by two high-power electric motors energized by lithium-ion batteries, delivering a 0-60 mph sprint in 5.4 seconds. The car drives 50 miles on batteries alone and about 300 miles on electricity generated on board by its 2.0-liter engine-generator. The Revero’s price of entry is $130,000.
KIA: Kia’s plug-in offerings include the boxy, battery-powered Soul Electric that’s been around for a number of years and the more mainstream Optima Plug-In Hybrid sedan. The plug-in Optima variant was missing from the new-generation Optima launch in 2016 but happily arrived with new technology for 2017, at a base price of $35,210. It offers 29 electric miles of driving and 610 miles overall range. The Soul Electric features a 93 mile battery electric range. Coming is the Kia Niro plug-in hybrid, a compact SUV that will join the new Niro lineup in 2018.
MERCEDES-BENZ: Mercedes-Benz is serious about high-efficiency electrics. The automaker is planning at least 10 new plug-in hybrid models with the aim of electrifying nearly all vehicles in its model lineup. Presently available plug-ins in the U.S. market include the B250e electric five-door hatchback, which features a driving range of 87 miles and a base price of $39,900. Plug-in hybrids this year include the $46,415 C350e and $96,600 S550e sedans, plus the $66,300 GLE550e SUV. Each of these delivers 12 to 14 miles of battery electric driving and a 400 to 460 mile overall range.
MINI: For the first time ever there will be a plug-in hybrid from MINI, the MINI Cooper S E Countryman ALL4. All of the new Countryman variants feature a 1.5-liter 3-cylinder engine. The $36,800 plug-in Countryman adds an 87 horsepower electric motor and 7.6 kWh lithium-ion battery, providing an EPA estimated all-electric range of 12 miles and an overall driving range of 270 miles. The engine drives its front wheels while the electric motor delivers power to the rear axle.
MITSUBISHI: The eggplant-shaped, four-passenger Mitsubishi iMIEV that’s been knocking around since its introduction seven years ago boasts the lowest cost of entry for a mainstream battery electric car in the U.S., at $22,995. It also has the shortest electric driving range at 59 miles, which may fit the needs of some folks but certainly not all. A 66 horsepower motor provides very modest performance. On the plus side, this battery electric model achieves 112 MPGe efficiency.
NISSAN: Nissan’s LEAF is not only the best-selling electric car in the country, but also in the world with some 250,000 examples on the road. Featuring a unique and highly-recognizable design, it delivers a 107 mile driving range and is EPA rated at 112 MPGe. Power is provided by a 107 horsepower electric motor and 30 kWh battery pack located beneath the floor. An ‘eco route’ feature analyzes available battery power and displays charging stations within range.
PORSCHE: When Porsche offers a plug-in hybrid, you know it’s going to be fast. So it is with the automaker’s new Panamera 4 E-Hybrid, which boasts a total system output of 680 horsepower that brings 0 to 60 mph in 3.2 seconds and a top speed of 192 mph. All-electric range is 11 miles with an overall range of 480 miles. Porsche also offers the Cayenne S E-Hybrid that's powered by a 333 horsepower V-6 and 95 horsepower electric motor, a combination that delivers 14 miles of electric driving and an overall 480 mile range.
SMART: The Smart fortwo Electric Drive is an interesting proposition. In general, the Smart has not flourished in the U.S. because the big deal about the Smart is its diminutive physical footprint, a plus in space-impacted European cities but not so much in the wide-open USA. That said, electric drive gives the Smart an environmental edge. It’s powered by a 74 horsepower motor and updated lithium-ion battery pack that reportedly increases electric driving range to 80 miles, up from the previous generation’s 68 mile range. The Smart fortwo Electric Drive comes at a base price of $24,550 with a convertible variant priced at $28,750.
TESLA: Tesla’s Model S luxury sedan, which starts at a base of $69,500 and goes up to $140,000 depending on powertrain and battery, is the longest range battery electric vehicle around. Its base powerplant delivers an electric driving range of 249 miles. The all-wheel drive Tesla Model X SUV starts at $82,500 and delivers 237 electric miles, topping out at $145,000. Powertrain options bring additional range. Tesla’s Model 3, which begins production this month and will be on sale shortly, aims to be the automaker’s first affordable electric at a base cost of $35,000. However, with the Model 3’s large number of preorders it’s expected that Tesla will first deliver highly optioned – and more expensive – Model 3 orders well above the $35,000 base cost.
TOYOTA: The Toyota Prius Prime plug-in hybrid can run on its gas engine or motor alone, or a combination of both. This $27,100 plug-in hybrid features a dual-mode generator drive system enabling both the primary drive motor and motor-generator to provide power when maximum acceleration is demanded. An 8.8 kWh lithium-ion battery pack provides 25 miles of all-electric range, while overall range on electric and hybrid power is 640 miles. It achieves an EPA estimated 54 mpg and 133 MPGe while running on battery power. Prius Prime automatically relies more on electric capability in situations where it is more efficient than running the engine.
VOLKSWAGEN: VW has updated its e-Golf electric hatchback with an improved battery, greater range, and additional on-board electronics. It also benefits from styling updates to give it a crisper look. The latest electrified version of VW’s popular hatch offers a more powerful motor that delivers greater horsepower and torque, plus 50 percent greater electric range at 125 miles per charge. That’s a significant improvement in a world where electric range has become an increasingly important market differentiator. Additional updates include VW’s digital and interactive Digital Cockpit with information presented on a 12.3- inch color screen. The e-Golf has a base price of $29,815.
VOLVO: Volvo’s seven passenger, $67,800 XC90 T8 luxury SUV uses a twin engine plug-in hybrid powertrain for power and increased efficiency. It features the automaker’s 316 horsepower, turbocharged and supercharged 2.0-liter four-cylinder Drive-E engine mated to an eight-speed automatic transmission. The T8 uses an 82 horsepower electric motor on the rear axle and a lithium-ion battery pack that delivers 14 electric miles, with a total hybrid range of 350 miles. Volvo has other plug-in models in the works including its new S90 luxury sedan.
Will electrified vehicles dominate our highways in the future? It’s a question on the minds of many these days as an increasing number of battery electric and plug-in hybrid models come to new car showrooms. The answer is not an easy one, especially since there’s the potential that future CAFE (Corporate Average Fuel Economy) requirements could be modified. CAFE has been a driving force in the accelerated research and development in plug-in vehicles and new model introductions.
Automakers as a whole have said the current CAFE requirement of 54.5 mpg by 2025 cannot be achieved without a serious emphasis on electrification and the efficiencies these models bring. Thus, there has been an undeniable momentum for plug-ins underway as witnessed by the 39 battery electric and plug-in hybrid models from 20 automotive brands available in the U.S. market during calendar year 2017.
It has been a long path to get to this point since modern electrics emerged in the early 1990s. Along the way, early battery electric vehicles have been constrained by the limitations imposed by the very nature of battery electric propulsion. Simply, batteries are very heavy and costly, which result in two distinct penalties – greater weight that saps overall efficiency and high production costs that either make these vehicles expensive to buy, or require automakers to absorb much of these costs.
Those were the issues in the 1990s and, not coincidentally, these remain the issues today. Battery electric cars in 2017 are an order of magnitude better than those of a few decades back. But driving range and cost remain significant challenges. Plug-in hybrids are another matter.
Since these offer both all-electric driving and hybrid operation after batteries are depleted, there is no ‘range anxiety’ – the concern that a battery electric vehicle’s battery power could be insufficient for daily driving needs. Automakers are into plug-in hybrids in a big way and this has become a very competitive part of the automotive landscape.
So what does our driving future hold? There are nearly 40 plug-in vehicles for sale this year and that’s a big statement. Most major automakers have thriving electric research and development programs underway with electric model launches of one type or another in the pipeline. We will see an expanding offering of plug-in hybrids with battery electric models featuring greater driving range, as witnessed by the benchmarks being set by Chevrolet and Tesla and the new commitment to electrics by Volvo.
One wild card is that internal combustion continues to achieve surprising efficiency gains, at reasonable cost compared to electrics. That means the combustion vehicles we’ve had on our roads for more than a century will continue to ply our highways for some time to come, at approachable cost and without the need for the federal and state incentives that now help motivate buyers to go electric.
Still, there’s a growing desire for the emissions and inherent efficiencies of electric drive so there’s every reason to expect this interest to increase. We don’t yet know if plug-in vehicles of one stripe or another will dominate the market in the years ahead. But what is clear is that electrification is poised to play a major role moving forward.
Automakers have been in a frenzy of late to claim a leadership position with electrification. Volvo has now taken a significant step in that direction by announcing its intention to include an electric motor in all of its models launched after 2019.
That doesn’t signify an exclusive leap toward battery electric cars, even though Volvo does plan to launch five all-electric vehicles between 2019 and 2021. Electrification can take many forms including hybrid, plug-in hybrid, and electric-assist systems, plus of course cars that run exclusively on batteries. There will be a mix in the Volvo lineup depending on a model’s propulsion needs and market demands.
This move is not a surprise. Volvo announced three years ago that it was replacing the five- and six-cylinder engines that had been powering its models with a new and more efficient Drive-E four-cylinder. This engine architecture was designed from the beginning to include a start-stop motor and regenerative braking, plus ready integration with hybrid and plug-in hybrid technology.
The first use of Drive-E engines in the U.S. was in select 2015 Volvo models. Since Volvo’s plan all along was to transition its models to Drive-E power and this engine was designed for electrification, using electrically-augmented Drive-E engines – or in some cases battery electric drivetrains – in all new models after 2019 represents the next stage of this transition.
Toyota’s 2017 Prius Prime aims to fill the needs of drivers who love the efficiency of the ubiquitous Prius but want the added benefit of a plug. As is the case with most hybrids, all-electric drive in the conventional Prius hybrid is limited to very short stretches with light pressure on the accelerator, otherwise it’s running on gasoline-electric hybrid power. The Prius Prime changes this with truly usable battery electric range before resorting back to hybrid propulsion.
Prime is a significant advance for Toyota as the company seeks to establish the highest conceivable standard for a plug-in hybrid, all packaged in edgy sci-fi styling. Think Blade Runner and you’re not far off, but in a clean Zen environment. Three distinct models of the Prius Prime are offered to fit varying tastes, including the Prime Plus at $27,100, the Prime Premium at $28,800, and the Prime Advanced at $33,100.
All Prime models share their silhouette with the Prius Hatchback but with unique front and rear end treatments. Prime is also 6.5 inches longer and just a bit lower and wider than the standard Prius model. To achieve increased front and rear head room, engineers lowered placement of the gasoline engine, electric motor, and seats. An additional benefit Toyota designers targeted was slippery aerodynamics, which they achieved with a coefficient of drag of just 0.25 – lower than most sports cars. Less wind resistance is an important element in achieving Prime’s exceptional fuel efficiency of 54 combined mpg as a hybrid and 133 MPGe when running on battery power. With an estimated driving range of 640 miles, Prime will outrun most anything for distance. EPA estimates an all-electric range of up to 25 miles.
We spent time behind the wheel of a fully-equipped Prime Advanced model on twisty mountain roads and highways to get a feel for Toyota’s new plug-in hybrid. Our test drive included stretches of high speed curves with little traffic, where we found the Prime Advanced doing quite well with good mid-range power while passing on two-lane roads. We’ve driven a friend’s first-generation 2016 Prius Plug-in Hybrid regularly over the past year and found it very efficient, but mundane and cumbersome on our own mountain road. A few fast turns into our drive instilled much more confidence in Toyota’s latest plug-in hybrid as we continued increasing our speed in turns.
The Prime’s major improvement in handling stems from a much more grounded feeling in turns, a nod to the Prime’s use of independent McPherson strut front suspension and double-wishbone rear suspension, with stabilizer bars front and rear. This is what some of the better-handling sports car utilize for their superior driving characteristics. Another significant change to enhance handling was moving the car’s 287 pound lithium-ion battery to the rear, with the weight transfer making a big difference in balanced handling. The only thing that holds you back from driving faster is the squeal of tires that are primarily designed for fuel economy.
Prime uses all-season P195/65/R15 tires mounted on 6.5J X 15 inch 5-spoke aluminum wheels. There are no optional wheel or tire choices and no spare. For tire repairs there is a repair kit and three years of 24-hour roadside assistance at no charge. Prime’s basic warranty is 36 month/36,000 miles with an additional 60 months covering the powertrain, with no mileage limitations. Hybrid-related components including the HV battery and modules are covered for 8 years/100,000 miles.
Toyota’s Hybrid Synergy Drive powers all Prius Prime models using a dual motor drive. This dual motor capability did not come with the addition of a second drive motor, but rather repurposing the drivetrain’s motor-generator (MG1) for additional use. In this configuration, a one-way clutch engages both MG1 and the car’s primary electric drive motor (MG2) for motive force, the first time MG1 has been used in this way. During deceleration, regenerative braking recaptures electrical energy through MG1 and stores this energy in the battery for later use. Energy is supplied to the motors via an 8.8 kWh lithium-ion battery pack. The gasoline engine used in this hybrid powertrain is a 1.8 liter, 95 horsepower Atkinson-cycle four- cylinder. Combined, the engine and motors deliver 121 net system horsepower.
For some, the best new feature will be changes in charging requirements. While the Prime’s 8.8kWh battery delivers over double the energy of the previous Prius Plug-In’s battery pack, no special wall charger is needed. Just plug it into a standard 120-volt household outlet and in less than 5 1/2 hours you’ll have a full charge. Toyota recommends a dedicated 15A GF1 outlet for this. Faster charging in under two hours is achieved using a public charger or a 240-volt home charger, if desired. Prius Prime apps can manage charging, locate charge stations, set climate control, and handle numerous other functions that take advantage of the Prius Prime’s connected capabilities.
Different operating modes can be selected. EV Auto Mode will automatically rely on electric capability in urban driving and during short trips. Under certain driving conditions such as negotiating steep hills, Prime’s gas engine will kick in to provide additional power. Selecting Hybrid Mode uses the gas engine for primary drive force with supplemental power from the electric motor. Power is transmitted via a planetary-type continuously variable transmission.
The most distinctive styling elements of Prime are its quad LED headlights that give this car its futurist look. These automatically adjust brightness to its environment and oncoming cars. Without a doubt, a Prime will always be readily identifiable at night given its full-width LED rear light panel that follows the shape of the double-wave rear window and spoiler. In fact, the first time you see a Prime on the road at night an immediate impression might be that of a new Lamborghini…the taillights have that kind of styling impact.
Contributing to the Prius Prime’s overall light weight of 3,375 pounds is a rear hatch made from carbon fiber. This superior strength material is usually only found on exotic or race cars due to its expense. In this application it is used for lightweighting purposes and to make opening and closing the hatch effortless. Rear visibility is enhanced by a full-width glass panel and standard backup camera.
All Prime models feature a four-seat layout with a center console front and rear, with 60/40 folding rear seats. The front console has a handy wireless charging pad for Q-i compatible devices. Auxiliary 12-volt power outlets are provided up front and in the rear, with a USB 2.0 port for iPod connectivity and control standard. The shiny white plastic used for the console has a Star Wars trooper look to it and may be too bright for some tastes. A 4.2-inch gauge panel mounted above the dash is considerably easier to read in daylight than that of the previous model. A heads-up display is available.
The most obvious interior feature is Prime’s optional 11.6-inch tablet-like HD multimedia screen that’s mounted vertically in Premium and Advanced models. A standard Entune multimedia system provides audio, navigation, and an App Suite. Suffice to say if it’s on the market, Prime has bundled it...unless you want to play CDs. Apparently there is no place for CDs in the future. Audiophiles will be particularly pleased with the Prime Advanced model since it includes JBL audio with 10 speakers and delivers an exceptional concert hall experience.
For those who find parking a challenge there’s the Advanced model’s included Intelligent Clearance Sonar (ICS) with Intelligent Parking Assist (IPA). Once selected, the system’s sonar sizes up an available parking space and reverses the car into the space. Perpendicular spaces are also negotiated, plus it will also steer you out of a parallel spot.
The Prime's Safety Sense P list of standard safety features is as impressive as it is extensive. Prime bundles a Pre-Collision System with Pedestrian Detection and Automatic Braking, Lane Departure Alert and Steering Assist, Full-Speed Dynamic Radar Cruise Control with full stop technology, and Auto High Beams. The Advanced model adds Blind Spot Monitor and Rear Cross Traffic Alert. Also, there are eight airbags for additional driver and passenger safety.
Toyota is out to raise the standard by which plug-in hybrids are measured. They have done so with the Prius Prime by adding leading edge technology systems coupled to a powertrain that is a marvel of efficiency. Factoring in a price reduction in the thousands from the earlier generation Prius plug-in and an expanded 25 mile battery-only driving range, this Toyota model certainly holds appeal for Toyota Prius fans and new converts to a plug-in hybrid society.
There was never a doubt that Honda could achieve its goal in developing a production fuel cell vehicle powered by hydrogen. This automaker already proved it could build and sell another gaseous fuel model – the Civic Natural Gas – that ran as seamlessly as a more conventional gasoline-powered Civic. Hydrogen is just another fuel in gaseous form, right?
Ah, but hydrogen. This zero-emission fuel is more of a challenge since hydrogen wouldn’t be used in an internal combustion Honda engine, but rather in a fuel cell powerplant to electrochemically create electricity, without combustion or emissions. This electricity would provide energy to power electric motors, no differently than in a battery electric vehicle. Make no mistake that this is a very advanced powertrain technology…a future technology, aimed at today.
There have been many developmental milestones along the way. The Honda FCX developmental vehicle we drove at Sears Point Raceway in 2003 offered proof that Honda was up to the challenge. Testing the FCX Clarity Concept at Laguna Seca Raceway in 2006 showed how quickly Honda’s fuel cell vehicle development could progress in a short time.
The all-new 2017 Clarity Fuel Cell is the finished product, currently available in California at a $369 per month lease that includes up to $15,000 of hydrogen fuel. It features an aerodynamic and stylish design nuanced with futuristic touches like angled rear wheel side skirts and eye-catching LED exterior lighting, combined with a pleasing cabin and significant on-board tech.
Clarity Fuel Cell's new fuel cell powertrain is substantially evolved from earlier iterations and offers an impressive 366 mile driving range. Importantly, Clarity Fuel Cell delivers satisfying driving dynamics that made us smile during our recent seat time on twisty roads and highways on California’s Central Coast.
Apparently, the future has arrived.
It’s looking like Tesla doesn’t have a lock on the fast-charging that encourages longer-distance electric vehicle journeys. While clearly in catch-up mode, a number of automakers are partnering with charging providers to install fast-charge stations at key points along major transportation routes. The latest is a partnership between Nissan and EVgo that will enable rapid charging at strategically located stops between Boston and Washington DC.
The 'I95 Fast-Charge ARC' (Advanced Recharging Corridor) will include nine charging sites along 500 miles of Interstate 95 with a total of 50 DC fast-chargers, each offering two fast-charge plugs each. Since technology marches on, the stations will have a capability of charging four or more EVs simultaneously at a power output of 50kW, with pre-wiring to enable easy upgrades for charging at up to 150kW once the technology is available consumer stations.
The Boston-DC project follows a similar project in California. With construction already underway, completion is expected in time for the launch of the all-new Nissan LEAF.
A movement to reduce air pollution and encourage alternative fuel transportation to National Parks has been launched by the National Park Foundation, National Park Service, Department of Energy, and BMW of North America. The first of up to 100 electric vehicle charging stations in national parks and nearby communities has just been launched at Thomas Edison National Historical Park in West Orange, New Jersey.
An integrated team from the public-private partnership is identifying park locations for more charging stations, taking into consideration distance from nearby charging locations, natural and cultural landscape considerations, and proximity and strength of EV markets. Already, dozens of parks are exploring site options. This partnership supports the National Park Foundation’s Centennial Campaign for America’s National Parks.
