200,000 Fast-Charging Stations for Electric Vehicles by 2020

Total fast-charging stations for EVs are set to reach 199,000 locations globally in 2020, up from just 1,800 in 2012. The number of these stations, meanwhile, is anticipated to rise more than threefold in 2013 to 5,900 and then nearly triple to 15,200 in 2014. Overall growth will continue at a rapid pace through 2020.

Hard charging

"The length of time it takes to recharge an EV continues to be one of the major stumbling blocks inhibiting the widespread adoption of electric vehicles," said Alastair Hayfield, associate research director at IHS Automotive. "Compared to the time it takes to refuel an internal combustion engine (ICE) vehicle, the recharge time for EVs is incredibly slow-at about four hours to charge a 24 kilowatt-hour (kWh)-capacity battery using a 6.6 kW on-board charger. If EV auto manufacturers could overcome this obstacle, it could lead to a high rate of adoption from environmentally minded consumers as well as those seeking to cut gasoline expenses. That's where fast charging comes in."

Hooked up to a fast-charging system, which offers a high-voltage DC charge instead of a slower AC charge, a vehicle can be fully charged in as little as 20 minutes. This could be a major step toward EVs becoming generally equivalent to ICE vehicles when it comes to refueling.

"IHS believes fast charging is a necessary step to promote higher adoption of EVs, but there will need to also be better consumer education regarding behavioral changes that may need to happen when owning an electric vehicle-such as charging overnight or at work," Hayfield said.

Japanese standard charges ahead

One fast-charging standard designed for electric vehicles is dubbed CHAdeMO, a primarily Japanese-backed technology. The major proponents of the technology are Japanese automotive OEMs-including Toyota, Nissan, Mitsubishi; and Japanese industrial giants-including Fuji Heavy Industries Ltd., Tokyo Electric Power Co. and more.

CHAdeMO, roughly translated as "charge for moving," began deployment in 2009 in order to accelerate the adoption of electric vehicles in Japan, where EVs have found positive reception. Today there are as many as 2,445 CHAdeMO fast chargers in operation and more than 57,000 CHAdeMO-compatible EVs around the world. This accounts for as much as 80 percent of all electric vehicles on the road, especially given the high concentration of EVs coming from Japan in the form of the Nissan Leaf, Mitsubishi i-MiEv, Hondo Fit EV and more.

One size charges all

A competing solution to CHAdeMO, aptly named the combined charging system (CCS), offers electric vehicle owners the option of having a single charging inlet that can be used for all available charging methods. That includes 1-phase charging at an AC power source, high-speed AC charging with a 3-phase current connector at home or at public charging stations, DC charging at conventional household installation and DC fast charging at power-charging stations globally.

CCS, which was submitted for international standardization in January of 2011, has garnered the support of Audi, BMW, Daimler, Chrysler, Ford, GM, Porsche and Volkswagen. Already BMW, GM and Volkswagen have announced they will introduce fast-charging EVs based on the CCS standard sometime this year.

Tesla vies to electrify the market

Tesla Motors, the California company most notable for the all-electric Tesla Model S, is driving a third method for fast charging. Tesla is developing its own proprietary network of fast chargers in the U.S. Dubbed "Superchargers," the chargers operate at a higher power rating than current CHAdeMO or CCS chargers, and also have a proprietary plug interface, which means that only Tesla vehicles can use them.

"In addition to the proprietary technology, the charging stations are free to use for Tesla owners, and there are plans to power all stations using photovoltaics," Hayfield said. "These Superchargers represent a powerful proposition for Tesla-drivers can charge faster, have U.S.-wide coverage by 2015 and will charge for free for life. This triple threat will aim to lock drivers into the Tesla experience, and also will give Tesla a perceived advantage over other original equipment manufacturers competing in the same market.

Future charge

Looking ahead to the future of EVs, it's clear that DC charging is becoming the favored means for supporting rapid, range-extension electric vehicles. But it is less clear as to whether CHAdeMO or CCS will win the battle for the consumer.

Japan will continue to utilize CHAdeMO, while Germany is set on using CCS; other nations likely will also utilize CCS as well, since it supports slow-charging. But no matter which solution is used, DC-based fast charging is critical to promoting consumer approval and interest in EVs.

VW to launch all-electric up! in Frankfurt

Volkswagen has confirmed that it will lift the veil off of an all-electric version of the pint-sized up! at the Frankfurt Motor Show next month.

Likely dubbed e-up!, the small EV will be offered as both a three-door and a five-door hatchback. Apart from discreet badges on the front fenders and on the trunk lid, it will look exactly the same as its gasoline-powered counterpart, enabling it to appeal to buyers that want a low-key EV.

Tipping the scale at almost 400 pounds, the up!'s electric drivetrain will consist of an electric motor mounted in the engine bay and a lithium-ion battery pack stored under the rear bench seat. The motor will send the equivalent of 82 horsepower to the front wheels, propelling the e-up! from zero to 62 mph in a little under 13 second and on to a top speed of 80 mph.

The lithium-ion battery pack will be rechargeable in about six hours when plugged in to a regular household outlet, or in 40 minutes when using a quick charger. It will give the city a car a maximum driving range of 80 miles.

Volkswagen has hinted that the e-up! will carry a base price of roughly €19,000 (about $25,000). Buyers will lease the battery pack from Volkswagen for €60 (around $80) a month.

After greeting the show-going public in Frankfurt, the e-up! will hit showrooms across Europe before the end of the year.

Panasonic Announce Tokai University Solar Car Team Sponsorship

Panasonic Corporation today announced that it has agreed to provide technical support to Tokai University's solar car team, which will compete in the 2013 World Solar Challenge (WSC 2013), one of the world's biggest races for solar cars, to be held from October 6 to 13 in Australia. Under the sponsorship agreement, Panasonic will provide the Japanese university team with its HIT(R) solar cells which boast the industry's top-class electricity output as well as its high-capacity lithium-ion batteries.

The WSC, which started in 1987 and became a biennial event in 1999, is a time-based competition over a distance of 3,021km from Darwin in the north down to Adelaide in the south. Teams from around the world, including universities and corporations, participate in the race in cars powered solely by sunlight.

The Tokai University team has an impressive track record in solar car racing. The team won the previous WSC races held in 2009 and 2011, and is now looking to make a hat trick in the WSC this year. Last year, the team also won the race in South Africa that was recognized by the Federation Internationale de l'Automobile (FIA) as the world's longest alternative fuel vehicle car race. Panasonic's energy products contributed to the team's victories at these international competitions.

Panasonic's HIT solar cells have a unique hybrid configuration with a crystalline silicon substrate surrounded by ultrathin amorphous silicon layers. Compared to ordinary crystalline silicon-based solar cells, Panasonic's HIT solar cells suffer less degradation of power output at high temperatures, delivering the industry's highest-level energy output per unit of area. This makes Panasonic's HIT solar cells ideal for solar cars competing in races such as the WSC, given that the WSC regulations limit the total area of solar cells installed on the body to up to six square meters and that the cells will be exposed to the scorching Australian sun. The HIT solar modules for the Tokai University team are purpose-built for the solar car race, using the same solar cells - the main component that converts the sunlight into electricity - that are mass-produced for the residential market.

The rechargeable batteries Panasonic is providing are the cylindrical 18650 type (18 mm in diameter x 65 mm in height) high-capacity lithium-ion battery cells which use the company's proprietary nickel-based positive electrode. The high-capacity and lightweight battery cells store excess power generated by the HIT solar cells so that the car is able to continue running even on overcast days.

Bridgestone Sponsors World Solar Challenge 2013

Bridgestone will be the title sponsor of the World Solar Challenge 2013, which will be held in Australia October 6-13.

Dubbed “The Bridgestone World Solar Challenge 2013,” the event will see a record 45 teams from 26 countries compete in a 3,000 km cross-country race using only solar energy to power the vehicles.

The event will feature three separate classes, Adventure Class, which will showcase cars built for previous events; Cruiser Class, which will be judged by design practicality, and Challenger Class, which will compete for the title of the world’s most efficient solar car.

Nissan to expand EV lineup to 5 models all with Wireless Charging

Nissan Motor Co. says it will expand its global EV product line to five models.

The company has not announced what additional models it is planning and has not specified a timetable. But it indicates Nissan is taking a long-term view of the slow-growing EV market.

"We haven't announced what models they will be, but we have plans for five," Carla Bailo, senior vice president for R&D at Nissan Americas, told reporters. "The others will come in due time."

Bailo said future Nissan-brand EVs will use inductive charging -- an emerging advanced technology for recharging the batteries of electric cars wirelessly. Inductive chargers enable an EV owner to park on top of a charging mat to recharge a battery without hooking up a connector.

"Once that technology is ready, we will use it across our brands," she said after her presentation.

Previously, Nissan had said inductive charging was critical to differentiate the luxury EV planned for the Infiniti brand.

Production of the cargo van begins later this year in Europe, initially for the European market. But this spring, Infiniti President Johan de Nysschen said the Infiniti EV will be delayed. Infiniti said it wanted to wait for improvements in inductive charging technology.

That means that only the Leaf has made it to market so far, after more than three years of promoting the idea of EVs. The company spent $1.8 billion to move U.S. production of that model to Smyrna, Tennessee, and to construct a lithium ion battery module plant there. That factory, which began production in January, gives Nissan the capacity to build up to 150,000 Leafs a year and 200,000 batteries.

Sales of the car in the United States have more than tripled since last year, when it was still being imported. Through July, Nissan dealers sold 11,703 Leafs, up from 3,543 in the first seven months of 2012.

Spy Shots: Venucia E30 EV Spotted in China

New spy shots showing the production version of the Venucia e30 EV have surfaced. Venucia is a sub-brand of the Dongfeng-Nissan joint venture, the e30 EV is based on the Nissan Leaf. The Venucia e30 debuted as the Venucia E-Concept on the 2012 Beijing Auto Show, and re-appeared as the ‘Venucia e30′ on the Shanghai Auto Show in April.

Small-batch production will begin later this year with deliveries starting in 2014, but only for local demonstration projects. Deliveries to the general car market will only start in 2015. Power will come from the same electric motor as in the Nissan Leaf, output is 110hp and 280nm. Top speed will be 144km/h and range 228km.