A short promo video showing BMW testing their electric cars under extreme conditions.
ABC Nightline’s special coverage of Tesla Motors [VIDEO]
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.
Is the Tesla Model S the Best Gadget Ever? [VIDEO]
Tesla Model S Scores Five Stars In NHTSA (Side Impact [VIDEO])
Tesla Model S Scores Five Stars In NHTSA (Side Pole Impact [VIDEO])
Tesla Model S Scores Five Stars In NHTSA (Frontal Impact [VIDEO])
FIA Formula E announces FOX Sports as Broadcaster
FOX Sports, one of the largest global sports networks, has today (August, 9th 2013) signed a multi-year, international multi-media deal with the FIA Formula E Championship, the world’s first fully-electric car racing series beginning in September 2014.
Formula E is a new FIA Championship featuring open-wheel cars powered exclusively by electricity and racing in the heart of 10 of the world’s leading cities, including two in the US with Los Angeles and Miami. Designed to promote interest and investment in electric vehicles and sustainable motoring, 10 teams each with two drivers will compete in one hour races using Formula cars capable of reaching speeds of more than 220kph with zero emissions.
“This series makes racing very relevant well into the future,” said Carlos Martinez, President Latin America for FOX International Channels, who helped broker the deal. “With a global approach to acquiring knowledge and fast-tracking technology through the world of international racing competition, the FIA Formula E Championship is much more than just another weekend at the track…it makes racing an integral part of solving one of the world’s most daunting challenges and we are thrilled to be a part of that process.”
As well as full US broadcast exclusivity across the FOX family of networks, including FOX Sports 1, America’s new sports network set to launch on August 17th, FOX Sports also has exclusive and non-exclusive rights in more than 80 territories including Canada, Latin America/Caribbean, Netherlands, Italy, Hong Kong, Malaysia, Indonesia, Singapore, Taiwan, South Korea, Australia, key Asian territories and other areas of Asia, India and Africa.
The deal, across all territories, includes exclusive and non-exclusive on-line and mobile transmission rights.
“We are very proud to announce this major agreement between FOX and the FIA Formula E Championship and to be partnering a truly global organization that fully believes in the future of racing,” said Alejandro Agag, CEO of Championship promoter Formula E Holdings. “This global broadcasting deal will bring our Championship to nearly 90 countries and a potential 180 million households worldwide, giving our partners, our teams, and our team’s partners a platform to visualize the association to the values of this competition. We are particularly happy to join FOX at the time when FOX Sports 1 is being launched. America is a key market for electric cars and to show our races live in the US will be central to promoting this type of mobility.”
As well as two races in the US, last month saw leading IndyCar outfit Andretti Autosport become the first US team to join Formula E. Six of the 10 teams have now been signed for the inaugural season, three of which have already been announced with Andretti Autosport, China Racing and British-based Drayson Racing.
FOX Sports internationally is largely operated by FOX International Channels, 21st Century FOX’s international multi-media business operating over 300 entertainment, sports, factual and lifestyle pay-TV network and non-linear services worldwide.
World’s First Road Embedded Wireless Electric Vehicle Network Opens
Two cordless rechargeable Hyundai battery electric buses have been put in service this week in a pilot program in Gumi, South Korea.
The Online Electric Vehicle (OLEV), developed by the Korea Advanced Institute of Science and Technology (KAIST), is an electric vehicle that can be charged while stationary or driving, thus removing the need to stop at a charging station. Likewise, an OLEV tram does not require pantographs to feed power from electric wires strung above the tram route.
Two OLEV buses will run an inner city route between Gumi Train Station and In-dong district, for a total of 24 km roundtrip. The bus will receive 20 kHz and 100 kW (136 horsepower) electricity at an 85% maximum power transmission efficiency rate while maintaining a 17cm air gap between the underbody of the vehicle and the road surface.
OLEV is a groundbreaking technology that accelerates the development of purely electric vehicles as a viable option for future transportation systems, be they personal vehicles or public transit. This is accomplished by solving technological issues that limit the commercialization of electric vehicles such as price, weight, volume, driving distance, and lack of charging infrastructure.
OLEV receives power wirelessly through the application of the "Shaped Magnetic Field in Resonance (SMFIR)" technology. SMFIR is a new technology introduced by KAIST that enables electric vehicles to transfer electricity wirelessly from the road surface while moving.
Power comes from the electrical cables buried under the surface of the road, creating magnetic fields. There is a receiving device installed on the underbody of the OLEV that converts these fields into electricity. The length of power strips installed under the road is generally 5%-15% of the entire road, requiring only a few sections of the road to be rebuilt with the embedded cables.
OLEV has a small battery (one-third of the size of the battery equipped with a regular electric car). The vehicle complies with the international electromagnetic fields (EMF) standards of 62.5 mG, within the margin of safety level necessary for human health.
The road has a smart function as well, to distinguish OLEV buses from regular cars—the segment technology is employed to control the power supply by switching on the power strip when OLEV buses pass along, but switching it off for other vehicles, thereby preventing EMF exposure and standby power consumption. As of today, the SMFIR technology supplies 60 kHz and 180 kW of power remotely to transport vehicles at a stable, constant rate.
After the successful operation of the two OLEV buses by the end of this year, Gumi City plans to provide ten more such buses by 2015.
Tesla working on an all-wheel drive Model S
The Tesla Model S has quickly become one of the most desirable electric vehicles to ever be produced and a new report is indicating the company is developing an all-wheel variant.
Details are limited, but The Verge is reporting the all-wheel drive model could be launched as early as next year in an "ultra-premium" trim level. The car will apparently be based on the P85 variant and be able to accelerate from 0-60 mph in 4.2 seconds or less. After the initial roll-out, the all-wheel drive system could become optional on less expensive models.
Tesla declined to comment on the report, but the company has already announced plans to offer an optional all-wheel drive system on the Model X crossover. The system uses an electric motor at each axle for improved grip and acceleration.
Why All-wheel-drive? Well quite simply, luxury buyers in the key northeast US and northern European markets expect it. And you can thank Audi for that. But it’s not just Audi, every other luxury brand offers all-wheel-drive on their core sedans.
Ten Bucks a Litre – Dick Smith Documentary cherry picks the facts [VIDEO]
A recently aired Australian documentary by local eccentric millionaire Dick Smith about alternatives to fossil fuels has stirred quite a hornets nest of feedback, both positive and negative.
While on the whole the Doco was fairly interesting and we here at EV News noted Dick's enthusiasm for electric cars, the facts seem to have been seriously cherry picked.
The EV segment starts @47 mins with Dick enthusing about an EV powered only by renewables and which has Vehicle to Grid Technology (V2G) that can held smooth the intermittency of renewables.
The cherry picking starts @50 mins when to close the segment Dick holds up a flask containing 1 litre of fuel stating that it weighs 700 grams and will take an average car approx 10km. The bad news for EV's, we are told, is that the equivalent battery would weigh 25x as much! End of argument apparently and the story moves onto bio-fuels.
What Dick failed to mention was that the equivalent of the 1 litre of fuel stored in an EV battery can propel an electric car 10x as far (100 km)... surely a worthy trade-off in energy efficiency Dick?
Of course, battery power may not be a solution for his Helicopter any time soon although Dick was so impressed with EVs he is now the proud owner of a solar powered Nissan Leaf
Tesla Model S P85 vs 2008 Mitsubishi Evo GSR – Standing Start [VIDEO]
More Tesla Model S street racing from the guys at Drag Times. This time they're racing the Model S Performance against a 2008 Mitsubishi Evo is running 25 psi boots with a full turbo back exhaust, tune, intake and upgraded clutch.
This race is from a standing start with the Evo using a 5,500 rpm Launch control to build turbo boost while stationary.
Tesla Model S P85 vs 2008 Mitsubishi Evo GSR – Rolling start [VIDEO]
A week with the Mitsubishi iMiEV Plug-In Electric Car
Mitsubishi Australia were generous enough to recently loan EV News an iMiEV for a week.
On sale in Australia since 2010, the Mitsubishi iMiEV is based on a Japanese Kei class Mitsubishi I that was first released in 2006.
The iMiEV has the same sized lithium ion battery (16 kWh) as the Holden Volt but because it is a much smaller car and doesn't cart around a full sized 1.4 Lt petrol engine range extender the iMiEV weighs only 1,080 kg Vs 1,715 kg for the Volt. Where the Volt routinely achieves 70 - 80 km from a full charge in EV mode the book spec for the iMiEV is 155 km which is approximately twice the distance for the same battery capacity.
For a 5 door hatchback with only 47 kw (63 hp) and 180 Nm (133 lb/ft) from it's BLDC permanent magnet electric motor mated to a 7.065:1 single speed reduction gearbox, acceleration, while not startling off the line, is very impressive above 50 km/h right up to the cars top speed of 130 km/h. The combination of small road foot print and brilliant mid-speed acceleration brings a whole new dimension to 'gap-shooting' in heavy urban traffic.
The iMiEV's dash board instruments aren't as flash as a Volt with a basic set of segmented LCD meters instead of the all-singing all-dancing colour graphics of the Volt, but the relevant information like State Of Charge (SoC), energy consumption and predicted range are all present.
During our week long test drive we didn't quite get a handle on the algorithm behind the iMiEVs range meter. Driving the iMiEV on surface roads at speeds below 60 km/h with the 'gear' selector in the 'B' maximum brake regeneration position, it was possible to not only travel many kilometers without the indicated range changing at all, but we even managed to leave one morning with a full change indicating 106 km range and travelled to our destination 24 km away having used 2 bars on the battery meter (12.5%) with predicted range having gone UP to 113km by the time we arrived?
While low speed urban driving is definitely the iMiEV's forte, high speed motorways are not. We all know that aerodynamic drag increases in proportion to the square of speed ie doubled speed results in four times as much drag. Unfortunately, despite the blunt nose and steeply raked windscreen the iMiEV's coefficient of drag is no better than a large family sedan @ 0.33 Cd. We even double checked by multiplying the frontal cross sectional area to get the CdA figure but the result was still about equal.
Aside from the fact it doesn't have a cruise control which is unusual for a modern car, the range meter plummets when driven for sustained periods above 100 km/h. This serves as a graphic illustration of the extra loads ALL cars face at higher speeds. It only becomes much more noticeable in the iMiEV because a/ The battery capacity is equivalent to having a 1.5 litre fuel tank (petrol contains 10 kWh per litre) b/ ICE cars are so inefficient at low speeds compared to the iMiEV the difference between high and low speed fuel consumption of an ICE car isn't as noticeable as with the iMiEV.
Like Charging an iPhone
Here in Australia 240 VAC is the standard voltage that all appliances run off so the iMiEV can be fully changed in 8 hours using a standard 10 amp supply (although the iMiEV lead has a 15A plug). In the week we had the car we never used much more than ½ the battery on any given day of running errands so plugging it in for a 4 hour re-charge didn't seem much different to plugging in the iPhone / iPad on a daily basis.
The iMiEV has 2 charge sockets, one on either side of the car, with 240v on the drivers (right) side and a large CHAdeMO charger socket under the left hand side filler flap.
In order to test how practical fast charging is we took a drive to the the NRMA DC Fast Charger installed across the road from their North Strathfield head office. Arriving with 55% charge remaining the battery quickly accepted the 359 volts / 125 amps on offer and was topped up to 80% in 11 minutes flat. While the NRMA fast charger is located near a popular restaurant/cafe precinct, and is free of charge to use, 10 minutes isn't even enough time for a coffee although a full 20 min charge might allow enough time for a stroll to get a cappuccino.
With an introduction price of A$65,000, which was reduced to A$48,880 in 2011, the Mitsubishi iMiEV hasn't exactly been selling like hot cakes with only 227 cars delivered locally. Yet 33,000 have been sold worldwide including Peugeot and Citroen versions with Japan, France and Norway being the top selling countries.
Mitsubishi Australia are now selling the last of their 70 remaining iMiEVs and have no plans to order more unless there is customer demand. Dealers have reduced the new price to A$24,990 with rumours doing the rounds that an ex-demo with 10k on the clock can be had for as little as A$20k.
Sure it is a first generation EV in a market where the technology is evolving rapidly, but with local fuel prices currently above 2008 levels and oil prices having just passed A$120, anything electrically powered is looking better by the day.
I certainly wasn't keen to return the iMiEV, which cost approx $2.00 a day to charge, to resume pumping the usual $80 worth of fuel per week. Anyone with a roof-top PV solar system should be giving an iMiEV serious consideration as they can dramatically shorten the payback period of the PV system by eliminating fuel costs instead of utility bills and effectively power the iMiEV free of charge for the next 10-20 years. The EV grin as you drive past $1.70/Lt fuel billboards is almost priceless.
A week with the Mitsubishi iMiEV Plug-In Electric Car
Mitsubishi Australia were generous enough to recently loan EV News an iMiEV for a week.
On sale in Australia since 2010, the Mitsubishi iMiEV is based on a Japanese Kei class Mitsubishi I that was first released in 2006.
The iMiEV has the same sized lithium ion battery (16 kWh) as the Holden Volt but because it is a much smaller car and doesn't cart around a full sized 1.4 Lt petrol engine range extender the iMiEV weighs only 1,080 kg Vs 1,715 kg for the Volt. Where the Volt routinely achieves 70 - 80 km from a full charge in EV mode the book spec for the iMiEV is 155 km which is approximately twice the distance for the same battery capacity.
For a 5 door hatchback with only 47 kw (63 hp) and 180 Nm (133 lb/ft) from it's BLDC permanent magnet electric motor mated to a 7.065:1 single speed reduction gearbox, acceleration, while not startling off the line, is very impressive above 50 km/h right up to the cars top speed of 130 km/h. The combination of small road foot print and brilliant mid-speed acceleration brings a whole new dimension to 'gap-shooting' in heavy urban traffic.
The iMiEV's dash board instruments aren't as flash as a Volt with a basic set of segmented LCD meters instead of the all-singing all-dancing colour graphics of the Volt, but the relevant information like State Of Charge (SoC), energy consumption and predicted range are all present.
During our week long test drive we didn't quite get a handle on the algorithm behind the iMiEVs range meter. Driving the iMiEV on surface roads at speeds below 60 km/h with the 'gear' selector in the 'B' maximum brake regeneration position, it was possible to not only travel many kilometers without the indicated range changing at all, but we even managed to leave one morning with a full change indicating 106 km range and travelled to our destination 24 km away having used 2 bars on the battery meter (12.5%) with predicted range having gone UP to 113km by the time we arrived?
While low speed urban driving is definitely the iMiEV's forte, high speed motorways are not. We all know that aerodynamic drag increases in proportion to the square of speed ie doubled speed results in four times as much drag. Unfortunately, despite the blunt nose and steeply raked windscreen the iMiEV's coefficient of drag is no better than a large family sedan @ 0.33 Cd. We even double checked by multiplying the frontal cross sectional area to get the CdA figure but the result was still about equal.
Aside from the fact it doesn't have a cruise control which is unusual for a modern car, the range meter plummets when driven for sustained periods above 100 km/h. This serves as a graphic illustration of the extra loads ALL cars face at higher speeds. It only becomes much more noticeable in the iMiEV because a/ The battery capacity is equivalent to having a 1.5 litre fuel tank (petrol contains 10 kWh per litre) b/ ICE cars are so inefficient at low speeds compared to the iMiEV the difference between high and low speed fuel consumption of an ICE car isn't as noticeable as with the iMiEV.
Like Charging an iPhone
Here in Australia 240 VAC is the standard voltage that all appliances run off so the iMiEV can be fully changed in 8 hours using a standard 10 amp supply (although the iMiEV lead has a 15A plug). In the week we had the car we never used much more than ½ the battery on any given day of running errands so plugging it in for a 4 hour re-charge didn't seem much different to plugging in the iPhone / iPad on a daily basis.
The iMiEV has 2 charge sockets, one on either side of the car, with 240v on the drivers (right) side and a large CHAdeMO charger socket under the left hand side filler flap.
In order to test how practical fast charging is we took a drive to the the NRMA DC Fast Charger installed across the road from their North Strathfield head office. Arriving with 55% charge remaining the battery quickly accepted the 359 volts / 125 amps on offer and was topped up to 80% in 11 minutes flat. While the NRMA fast charger is located near a popular restaurant/cafe precinct, and is free of charge to use, 10 minutes isn't even enough time for a coffee although a full 20 min charge might allow enough time for a stroll to get a cappuccino.
With an introduction price of A$65,000, which was reduced to A$48,880 in 2011, the Mitsubishi iMiEV hasn't exactly been selling like hot cakes with only 227 cars delivered locally. Yet 33,000 have been sold worldwide including Peugeot and Citroen versions with Japan, France and Norway being the top selling countries.
Mitsubishi Australia are now selling the last of their 70 remaining iMiEVs and have no plans to order more unless there is customer demand. Dealers have reduced the new price to A$24,990 with rumours doing the rounds that an ex-demo with 10k on the clock can be had for as little as A$20k.
Sure it is a first generation EV in a market where the technology is evolving rapidly, but with local fuel prices currently above 2008 levels and oil prices having just passed A$120, anything electrically powered is looking better by the day.
I certainly wasn't keen to return the iMiEV, which cost approx $2.00 a day to charge, to resume pumping the usual $80 worth of fuel per week. Anyone with a roof-top PV solar system should be giving an iMiEV serious consideration as they can dramatically shorten the payback period of the PV system by eliminating fuel costs instead of utility bills and effectively power the iMiEV free of charge for the next 10-20 years. The EV grin as you drive past $1.70/Lt fuel billboards is almost priceless.
Evans Electric Unveils AWD In-Wheel Motor powered electric car
Australia based start-up company Evans Electric have unveiled an All Wheel Drive In-Wheel Motor powered Lancer Evo 3 during Meguiar's MotorEx at Sydney Olympic Park
The 4 door sedan with World Rally Championship pedigree features a direct drive, disc type electric motor in each of it's 19” wheels. Each Axial Flux 3 phase AC Induction wheel motor has a nominal output of 75 kw and 625 Nm of torque with a peak output of 150 kw and 1,250 Nm giving the vehicle a total peak output of 600 kw (800 hp) and 5,000 Nm.
While the torque figure could at first glance appear fantastic, standard automotive industry practice only quotes torque at the flywheel not at the wheels. As an example the Tesla Model S Performance has a quoted peak motor torque of 600 Nm. With a single speed reduction gear ratio of 9.73:1 that equates to a total of 5,838 Nm (minus gearing losses) at the wheels. The Evans Electric motors are direct drive, so the rotor turns at the same speed as the wheel. Instead of mechanical reduction gearing, they are electrically geared using an 8 pole stator winding configuration.
Direct drive wheel motors eliminate mechanical transmission losses allowing up to 85% of a vehicle's kinetic energy to be recoverable during braking. Maximising brake regeneration lowers a vehicles over-all energy consumption potentially leading to more range per kWh of battery capacity or the use of a smaller battery pack for similar range. As the battery is the single most expensive component in an EV this could lead to lower cost electric cars.
The Evans Electric in-wheel motors enable non-contact electromagnetic braking, replacing hydraulic friction brake systems which are 99% redundant in current generation electric/hybrid vehicles. Using only the wheel motors, the car can brake at greater than 1G.
Evans Electric hold a patent for a vehicle drive system using wheel motors for propulsion and braking, the most impressive feature of which is that safety and vehicle dynamics features such as ABS, stability control, traction control, brake steer, active brake bias, torque vectoring, intelligent cruise control, emergency brake assist and collision avoidance all become customisable and upgradable software functions.
When these systems are combined with wheel motors they allow a new level of performance based active yaw control that unlike most current stability control systems (which only activate in an emergency situation) are active at all times, dynamically fine tuning understeer and oversteer to enhance cornering speed and safety.
After an extensive period of wheel motor validation testing and power electronics development the company has met with several automotive Tier 1 suppliers to discuss collaboration &/or licensing to move the project from proof of concept to commercial product development.
Final preparations are under way with track testing expected to commence by the time the Bathurst 1000 rolls around in October.
Spark-Renault SRT_01E Formula E race car to debut in Frankfurt
Spark Racing Technology has announced plans to introduce their Spark-Renault SRT_01E Formula E race car at the Frankfurt Motor Show on September 10th.
Set to become one the most prominent race cars in the series, the SRT_01E has a Dallara-designed monocoque chassis that is constructed out of carbon fiber and aluminum. The model also features aerodynamic styling and bespoke Michelin tires that are specifically designed to last the entire race.
While the McLaren-sourced electric powertrain can produce up to 270 bhp (200 kW), it will be limited to 180 bhp (133 kW) during races. However, drivers can use a 'Push-to-Pass' system which temporary allows the car to harness its full potential. This should enable the model to accelerate from 0-100 km/h in approximately three seconds and hit an FIA-limited top speed of 225 km/h (140 mph).
Panasonic to make more lithium-ion batteries to meet robust US automotive demand
Panasonic will increase domestic production of lithium-ion battery used for automobiles to meet robust demand in the United States, company officials said on Thursday.
The electronics maker will resume operation of idled lines at the Suminoe Plant in Osaka Prefecture, which produces batteries for U.S. automaker Tesla Motors Inc., as early as next January, while another factory in Kaizuka City in the prefecture, which the company has suspended its operation since March, will reopen by the end of next fiscal year, Panasonic spokesperson Megumi Kitagawa said to Xinhua.
She also said that the company will add some manufacturing lines at the Kasai plant in Hyogo Prefecture, which produces batteries for domestic automakers, by the end of the current fiscal year through next March.
In June Panasonic announced that shipments of its automotive-grade lithium-ion battery cells for Tesla Motors’ premium, all-electric Model S sedan surpassed 100 million units.
GoPro: Monster Tajima – Pikes Peak 2013 EV Class Winner [VIDEO]
Finally the GoPro video of the Pikes Peak EV class winning run is uploaded.
Nobuhiro 'Monster' Tajima returned to the 91st Pikes Peak International Hill Climb with his E-Runner Special electric car. Tajima was back and more determined than ever, not only to break his personal record (9:51.278 in 2011) but to make a statement that the electric car is a force to reckon with.
Tajima set a new personal record of 9:46.530, winning the Electric class and placing 5th overall.










