
Actually, Nissan stated that they were working on their own 'in-house' hybrid system awhile back. It's supposedly going to debut in an Infiniti product in 2010. Carlos Ghosn (Nissan CEO), stated long ago that he felt hybrid technology was just a short term solution. The Toyota system is licensed... who knows for how long.kerrton wrote:And since Nissan bought the rights to use the Toyota hybrid system with the Altima hybrid, I'd say the odds are pretty good that the Rogue or maybe even the Murano will be available in a hybrid model in the next few years.
An article was published by Reuters recently regarding Nissan's in house hybrid technology:philipa_240sx wrote:Actually, Nissan stated that they were working on their own 'in-house' hybrid system awhile back. It's supposedly going to debut in an Infiniti product in 2010.
By Yumiko Nis***ani
TOKYO, July 17 (Reuters) - Nissan Motor Co (7201.T) aims to develop its own hybrid technology for small and midsize cars and end its procurement of hybrid components from Toyota Motor Corp (7203.T), the Nikkei business daily reported on Friday.
Using the technology, Nissan aims to roll out a hybrid version of the Serena minivan, its best-selling minivan in Japan, in its home market in 2011, the newspaper said.
Nissan, Japan's third-largest carmaker, has said that it plans to begin selling a luxury car using its own hybrid system in 2010 but an expansion of its hybrid line-up would suggest a shift in strategy for the company, which has focused its efforts on pure electric cars. [ID:nT97678]
Japanese carmakers are under growing pressure to offer hybrid models as demand in Japan has jumped for gasoline-electric vehicles, which receive tax breaks and subsidies under a government initiative to promote cleaner cars.
"The plan underscores the increasingly difficult outlook for relying on electric cars as mainstay products so soon," said Yoshihiko Tabei, an analyst at Kazaka Securities. "Nissan's long-term focus will probably remain on electric cars, but it needs hybrid cars as bridge products for the next decade or so."
Nissan spokeswoman Yuko Sasaki said that while the automaker is considering various options regarding the use of hybrid technology, it has not decided on anything beyond the launch of the luxury vehicle next year.
Nissan, in which France's Renault SA (RENA.PA) holds a 44 percent stake, has set a goal of becoming the leader in the zero-emissions vehicle market. It plans to begin selling electric cars in the United States and Japan in 2010, followed by a global roll-out in 2012.
It sold its first-ever hybrid, the Tino hybrid compact, in 2000 in Japan, but has mostly stayed out of the hybrid market since then. Its only hybrid model now is the Altima, for which it procures core components from Toyota and which is available only in the United States.
"Nissan probably expects difficulty in improving profitability on electric vehicles with today's technology and with cost cuts mostly in the hands of motor and battery makers, while it probably has gained expertise on hybrid technology by using Toyota's hybrid components," Tabei said.
Shares of Nissan gained 2.5 percent to 569 yen on Friday, outperforming the broader auto sector, which finished flat.
FOR LONGER-TERM GAIN
UBS Securities analyst Tetsuo Yoshida said Nissan should be able to achieve profitability on hybrid cars faster than Toyota or Honda Motor Co (7267.T) did, because the technology is already available.
But making a full-fledged entry into the market years after its two bigger rivals would put Nissan at a disadvantage in terms of sales competition, he said.
"It probably would not even dare to think of competing with Toyota or Honda on sales. Its purpose is probably only to have mass-selling products that can meet tougher emissions regulations such as those in California," he said.
Hybrid cars have been in the spotlight in recent months in Japan thanks to strong sales of Toyota's fully remodelled Prius and Honda's new Insight, both with significantly lowered price tags, as well as government subsidies for low-emissions vehicles.
Honda's new Insight became the first hybrid to top the monthly ranking of best-selling cars in Japan in April, while Toyota's third-generation Prius, which debuted three months after the Insight, was No.1 in May. [ID:nT316781]
Analysts said Nissan's adopting its own hybrid technology instead of buying components from Toyota would not give it much cost advantage but would help it cultivate its technological development as well as secure a stable supply.
"Developing on its own will help Nissan build its technology and data, which will be key to enhancing electric cars in the future. There is also some risk in keeping the supply of core components in the hands of a competitor," Kazaka's Tabei said. (Additional reporting by Nathan Layne; Editing by Chris Gallagher)
July 16, 2009
Automotive Energy Supply CorporationNissan Motor Co., Ltd.NEC CorporationNEC TOKIN CorporationAUTOMOTIVE ENERGY SUPPLY CORPORATION BEGINS TRIALPRODUCTION OF LITHIUM-ION BATTERIES
TOKYO (July 16, 2009) - Nissan Motor Co., Ltd., NEC Corporation, and its subsidiary NEC TOKIN Corporation, today announced that its joint-venture company - Automotive Energy Supply Corporation (AESC) - has begun trial production of advanced lithium-ion batteries for a wide range of automotive applications at its Zama Operations Center.
With start-up capacity at 13,000 units/year, AESC will gradually ramp up production to 65,000 units/year by 2010.
Having twice the energy density of conventional nickel-hydride batteries, AESC's lithium-ion batteries employ a compact module comprised of laminated-type cells, that contribute to more efficient packaging. The use of manganese-type electrode offers thermal stability and the laminated structure improves cooling, thus contributing to the battery's safety performance. The battery has undergone extreme durability tests demonstrating average runs of more than 100,000 km(*) in field tests.
AESC will produce the lithium-ion batteries for Nissan's electric vehicle to be introduced in the U.S. and Japan, as well as Nissan's original hybrid vehicle, in 2010.
AESC intends to mass produce and market its batteries to any interested automaker, with an aim to become a global leader of advanced battery products and services.
(*) Based on tests conducted on Nissan's hybrid vehicle.
08.02.2009 , YOKOHAMANISSAN UNVEILS “LEAF” – THE WORLD’S FIRST ELECTRIC CAR DESIGNED FOR AFFORDABILITY AND REAL-WORLD REQUIREMENTSEvent ushers in a new era for Nissan and a new era for mobility
Nissan Motor Co., Ltd. today unveiled Nissan LEAF, the world’s first affordable, zero-emission car. Designed specifically for a lithium-ion battery-powered chassis, Nissan LEAF is a medium-size hatchback that comfortably seats five adults and has a range of more than 160km (100 miles) to satisfy real-world consumer requirements.
NISSAN LEAFSlated for launch in late 2010 in Japan, the United States, and Europe, Nissan LEAF ushers in a new era of mobility – the zero-emission era. The car is the embodiment of Nissan’s radical, transformative vision for the future and the culmination of decades of investment and research.
“Nissan LEAF is a tremendous accomplishment – one in which all Nissan employees can take great pride,” said Nissan President and CEO Carlos Ghosn. “We have been working tirelessly to make this day a reality – the unveiling of a real-world car that has zero – not simply reduced – emissions. It’s the first step in what is sure to be an exciting journey – for people all over the world, for Nissan and for the industry.”
Key characteristics of the LEAF include:
1. Zero-emission power train and platform 2. Affordable pricing 3. Distinctive design 4. Real-world range autonomy – 160km (100 miles) 5. Connected Mobility: Advanced intelligent transportation (IT) system
The “LEAF” name is a significant statement about the car itself. Just as leaves purify the air in nature, so Nissan LEAF purifies mobility by taking emissions out of the driving experience. Pricing details will be announced closer to start of sales in late 2010; however, the company expects the car to be competitively priced in the range of a well-equipped C-segment vehicle. Additionally, Nissan LEAF is expected to qualify for an array of significant local, regional and national tax breaks and incentives in markets around the world. As an added benefit, because the vehicle has less mechanical complexity than a traditional gasoline-powered car, Nissan LEAF is designed to be friendly to the wallet as well as to the environment.
ZERO-EMISSION MOBILITYNissan LEAF is powered by laminated compact lithium-ion batteries, which generate power output of over 90kW, while its electric motor delivers 80kW/280Nm. This ensures a highly responsive, fun-to-drive experience that is in keeping with what consumers have come to expect from traditional, gasoline-powered automobiles.
Unlike internal-combustion engine (ICE) equipped vehicles, Nissan LEAF’s power train has no tail pipe, and thus no emission of CO2 or other greenhouse gases. A combination of Nissan LEAF’s regenerative braking system and innovative lithium-ion battery packs enables the car to deliver a driving range of more than 160km (100 miles) on one full charge*. (*US LA4 mode)
Extensive consumer research demonstrates that this range satisfies the daily driving requirements of more than 70% of the world’s consumers who drive cars.
And, Nissan’s approach makes charging easy and convenient. Nissan LEAF can be charged up to 80% of its full capacity in just under 30 minutes with a quick charger. Charging at home through a 200V outlet is estimated to take approximately eight hours – ample time to enable an overnight refresh for consumer and car alike.
REAL-WORLD CARThe engineers and designers behind Nissan LEAF worked to create a competitively priced real-world car that would enable Nissan to lead mobility into the zero-emission era. To ensure comfort, spaciousness and cargo capacity, Nissan LEAF employs a completely new chassis and body layout.
”Our car had to be the world’s first, medium-size, practical EV that motorists could afford and would want to use every day. And that’s what we’ve created. The styling will identify not only Nissan LEAF but also the owner as a participant in the new era of zero-emission mobility,” said Masato INOUE, Product Chief Designer.
DISTINCTIVE DESIGNEven the smallest details can yield tremendous effect.
Nissan LEAF’s frontal styling is characterized by a sharp, upright V-shaped design featuring long, up-slanting light-emitting diode (LED) headlights that employ a blue internal reflective design that announces, “This car is special.” But the headlights do more than make a statement. They are also designed to cleverly split and redirect airflow away from the door mirrors, thus reducing wind noise and drag. And, the headlights provide yet one more benefit in that they consume about 50 percent of the electricity of conventional lamps, which helps Nissan LEAF to achieve its world-class range autonomy.
Through bright trim colors inside, Nissan LEAF creates a pleasing and stylish cabin environment. An environmentally friendly “blue earth” color theme originates from the Aqua Globe body color of Nissan LEAF’s introductory model. This theme is carried into the interior through blue dashboard highlights and instrument illumination.
CONNECTED MOBILITY IT SYSTEMNissan LEAF employs an exclusive advanced IT system. Connected to a global data center, the system can provide support, information, and entertainment for drivers 24 hours a day.
The dash-mounted monitor displays Nissan LEAF’s remaining power – or “reachable area” – in addition to showing a selection of nearby charging stations.
Another state-of-the-art feature is the ability to use mobile phones to turn on air-conditioning and set charging functions – even when Nissan LEAF is powered down. An on-board remote-controlled timer can also be pre-programmed to recharge batteries.
“The IT system is a critical advantage,” says Tooru ABE, Chief Product Specialist. “We wanted this vehicle to be a partner for the driver and an enhancement for the passengers. We also wanted this vehicle to help create a zero-emission community, and these IT features will help make that possible.”
HOLISTIC APPROACH TO ZERO-EMISSION MOBILITY AND ECO-FRIENDLY INNOVATIONNissan LEAF is a critical first step in establishing the era of zero-emission mobility; however, Nissan recognizes that internal-combustion engine (ICE) technologies will play a vital role in global transportation for decades to come. Because of this, Nissan is implementing its zero-emission vision through a holistic approach, which provides consumers a comprehensive range of eco-friendly technologies from which to choose.
For some consumers, Nissan LEAF will be the perfect match, and the only car they will ever need. For others, Nissan LEAF will be a logical addition to the family fleet – the optimal choice for the daily commute, for example.
While zero-emission is the ultimate goal, the company is committed to ongoing innovation in eco-friendly technologies that increase efficiency and reduce emissions. As a result, Nissan offers a comprehensive suite of automotive technologies, including CVT, Idle Stop, HEV, Clean Diesel, and ongoing research and investment in FCV technology.
WORLDWIDE PARTNERSZero-emission mobility programs under the banner of the Renault-Nissan Alliance include partnerships with countries such as the UK and Portugal, local governments in the Japan and the USA, and other sectors, for a total of nearly 30 partnerships worldwide.
In these partnerships major efforts focus on three areas:
1. Development of a comprehensive charging infrastructure through public and private investment, 2. Incentives and subsidies from local, regional, and national governments, and 3. Public education on the individual and societal benefits of zero-emissions mobility.
ZERO-EMISSION VEHICLE PRODUCTIONNissan LEAF is the first in the company’s forthcoming line of EVs and is a major milestone in the realization of the Renault-Nissan Alliance’s vision for zero-emission mobility. The first of Nissan’s EV’s will be manufactured at Oppama, Japan, with additional capacity planned for Smyrna, Tennessee, USA. Meanwhile, lithium-ion batteries are being produced in Zama, Japan, with additional capacity planned for the USA, the UK and Portugal, and other sites for investment are under study around the world.
Do you have the same concern when you buy the newest cell phone?Most people don't.They complain about it on cars because they don't like the inconveniences coming with it, but strangely, batteries are more dangerous in a cell phone than in a car, and they are not that concerned.crayb wrote:Many manufacturers are bringing products to market, and some of them are very good. Their long-term dependability is very much in question though. How will there quality be? We know very little about the risks involved should a crash occur. How will the battery packs stand up, will they leak over time, will the electrics interfer causing untoward medical problems?
Batteries currently FLOOD our landfills. Most people don't recycle spent batteries. This will affect us much greater in the future when all the chemicals leach out into our groundwater.
Quoted from Nissan Motor Corp. The full article with photos can be found here:Nissan's Pursuit for Zero Emission Mobility:The Unplugged Story- From Tama to Pivo2, A Look Back at 60 years of Nissan's EV Development -
The Dawn of the EV Age"His other concern was the batteries themselves. Thorne had selected the new lithium-ion batteries from Nissan, which were extremely efficient on a weight basis."
The above quote could easily be from a government official at a pitch for a future fleet of zero emission vehicles. In reality, the source is a scene from Michael Crichton's 1995 novel - and later blockbuster movie - The Lost World.
Nearly 15 years later, Nissan is still an industry leader in lithium-ion battery development. However, the real story of Nissan's history of Electric Vehicles starts much earlier, though not quite in the Jurassic era, in 1947. It was a unique period in the auto industry and the development of electric vehicles. Due to the post-World War II energy shortage at that time, the Japanese government encouraged entrepreneurs to produce EVs to cope with the crisis.
Tama Electric Car (1947)
"Tama Electric Car" was created by Tokyo Electric Cars Company - one of the ancestors of Prince Motor Co., Ltd., which later merged with Nissan. Developed by military aviation engineers who lost their jobs at the end of the war, the Tama utilized replaceable lead-acid batteries and generated 3.3kW power and a top speed of 35 km/h (22 mph). With a cruising range of 65 km (40 miles), they were used mainly as taxis. A compact pickup version was available as well.
Legend has it that the Tama marked a maximum speed of 35.2km/h (22 mph) and cruised for 96 km (60 miles), far better than the brochure specifications, in a Ministry-conducted test. The car was sold until 1950, when Japan's post-war recovery was well underway and oil supplies were stabilized.
Li-ion on the Prairie (1995)
Today, with oil futures again uncertain and the eco-system under stress, it goes without saying that the evolution of battery technology corresponds with social need and an entrepreneurial spirit - both driving forces behind the development of Nissan EVs. The lithium-ion (Li-ion) batteries had been developed in 1990 by Sony Corporation. Just a day after Sony's official announcement, Nissan began to study the automotive application, and later in 1992 started collaboration with the company.
The first fruit of their efforts was in 1995, when Nissan launched the "Prairie EV," the world's first electric car with Li-ion battery power. Although the Prairie EV was limited to fleet sales, around 30 units were sold to various entities.
"The majority of the industry, even our colleagues, were skeptical about the Li-ion system," recalls Hideaki Horie, Expert Leader at EV Technology Development Division. "We chose the Li-ion battery because we believed in its potential and possible applications for vehicles, much higher than the nickel hydride batteries that were common at that time."
EV on Ice (2000)
One of the most unusual applications of the Prairie EV was the years it spent under extreme polar conditions as a support vehicle for the Japanese National North Pole Exploratory Team. In 2000, when the Prairie EV was undergoing cold weather testing at Nissan's Hokkaido Proving Ground, the owner of the inn where the evaluation group was staying told them that the International Arctic Research team was looking for an EV to use at their research station in Ny-Alesund, Svalbard, Norway - which at 79°N is the world's most Northerly settlement.
Nissan engineers thought it would be a great opportunity for an extended extreme cold test - which they themselves could monitor from warmer locations. It was arranged to loan the arctic researchers a Prairie EV fitted with a cylindrical Li-Ion battery. The Prairie EV, with no Nissan support or maintenance, served as the daily transportation from the base research station to the town and airport and, most importantly, while conducting meteorological observations. Zero emissions vehicles are critical for such use in order to not contaminate the research data with CO2 emissions.
"The Nissan EV became a symbol of our pledge at the International Arctic Research Village that the environment would not be damaged by the execution of research activities," recalls Dr. Hajime Ito, Chair NySMAC. "VIPs visiting our village were welcomed at the airstrip by the Prairie EV, which transported them to town without the slightest noise or exhaust gas. It was also an excellent vehicle for scientific purposes, such as the observation of wild animals, which you could approach without sound or smell."
In 2006, after six flawless years of service, the Prairie EV stopped running. Since Ny-Alesund, with a permanent population of just 35 residents, lacked a Nissan dealership, the vehicle was returned to Nissan for investigation and evaluation. When the car was examined, Nissan engineers were delighted to find that the problem was simply a disconnected condenser. Once repaired, the Prairie EV started right up (though cell performance had degenerated slightly but within projections), proving the feasibility and durability of the Li-Ion battery under extreme conditions.
LA Story - Altra EV (1997)
In 1997, two years after the introduction of the Prairie EV, Nissan revealed the lithium-ion battery equipped Altra EV (called the R'nessa EV in Japan). This award-winning electric minivan (honored as one of the "greenest cars" by Green Guide to Cars and Trucks in 1999) was sold both in Japan and the United States, though only an estimated 200 units were produced.
The initial units were delivered to utility companies, including Southern California Edison Company, Pacific Gas and Electric Company, and the Los Angeles Department of Water and Power. They were even used as "meter maid cars" (parking enforcement vehicles) by the Santa Monica Police Department. For a brief period, you could also rent an Altra EV at the Los Angeles International Airport.
Part minivan, part SUV, part station wagon, the Altra EV had a relatively long wheelbase of 2,799 mm (110.2 inches) and 4,869 mm (191.7 inches) length - nearly identical to the 2010 Nissan Maxima's 2,776 mm (109.3 inches) wheelbase and 4,841 mm (190.6 inches) length.
Charging was by a proven, safe, user-friendly inductive battery charging system through an electromagnetic paddle inserted into a charge port located in the front grille. The 83-horsepower (62 kW) synchronous motor utilized a high-performance Neodymium-Iron-Born alloy internal magnet rated at an approximately 89 percent operating efficiency. The Altra EV's 12-module Li-Ion battery pack was located under the passenger compartment floor and offered a "real world" driving range (combined city/highway) of 130 km (80 miles). It also offered a 4-wheel Anti-lock Braking System (ABS), regenerative braking, a 120 km/h (75 mph) top speed and an 800-pound passenger/cargo capacity. Altra EV drivers were treated to amenities such as air conditioning, power windows and door locks, a premium audio system and dual supplemental air bags.
Electric Movie Star - Hypermini (2009)
Shortly after the introduction of the Altra EV, Nissan challenged itself to develop a more compact and less utilitarian dedicated EV. The result was the legendary Hypermini, which debuted in 1999.
Hypermini featured a lightweight, highly rigid aluminum space-frame and was fitted with a neodymium magnet synchronous traction motor and high performance lithium-ion batteries. It took about four hours to recharge the batteries using a 200-volt non-contact inductive AC charger. Hypermini's driving range was 115 km (72 miles) on a single battery charge and it had a top speed of about 100 km/h (62 mph). The car was widely used in Japan and U.S., including at the University of California, Davis and a car-sharing project in Yokohama.
At just 2655 mm (8.3 feet) in length and 1550 mm (5 feet) tall, the dramatically styled two-seat Hypermini garnered attention wherever it went. It even appeared in two U.S.-produced movies, The Princess Diaries 2 and Sleepover, and a Japanese TV animation series, Shigofumi.
Fully Charged for the Future - Li-ion batteries
The turn of the century was a turning point for battery systems as well. Nissan took a major step forward and started developing compact laminated Li-ion batteries together with NEC, replacing the cylindrical cell used up until then. The newly developed laminated batteries are able to store double the energy in the same size. In other words, same amount of energy packed in the curry sauce, instead of a magnum bottle of champagne.
The evolution of battery development has accelerated in the last decade thanks in large part to innovations in home and personal electronics, especially cellular phones.
"We can even say that battery innovation owes a debt to the high school girls in the streets of Shibuya, who are extremely demanding, heavy cell phone users," said Horie. "They are eager to have more chat, more emails, in less charging time. The boom of cell phones definitely accelerated the enhancement of battery technologies."??????
The impact of the ongoing reduction of batteries size has been felt not only in cell phones and computers, but also in designing cars.
Pivo (2005) and Pivo2 (2007)
"You'll be unleashed from various constraints if you choose an electric powertrain," said Shiro Nakamura, senior vice president, Design, Nissan Motor Co., Ltd. "For example, it allows you to make the hood very low, contributing to the vehicle's aerodynamics and style. You can make the center of gravity very low by putting the battery under the floor, or you can even place the motor in the wheel. And ultimately, you can separate the cabin and the platform - thanks to the x-by-wire technology. We wanted to show examples of this freedom of design and mobility for the future with the Pivo and the Pivo2. These concepts feature rotating cabins and the ability to make the four wheels move individually."
The original Pivo was one of the stars of the 2005 Tokyo Motor Show, a feat followed by the next generation Pivo2 two years later. Continuing Nissan's tradition of exhibiting advanced EV concepts to the world's top motor shows, the Nissan Mixim electric sports car debuted at the 2007 Frankfurt Motor Show, followed by the Nissan NUVU (literally a "new view" of the urban transportation vehicle) at the 2008 Paris Motor Show. NUVU incorporates a witty representation of Nissan's green credentials, including solar panels across its all-glass roof and the use of organic and recycled materials within the cabin.
Looking ahead after more than 60 years of EV leadership, the year 2010 will mark the transition from of the era of conventional mobility to true zero-emission mobility, led by the introduction of the next generation Nissan EV.
Cars like the Nissan EV will take us another critical step closer to the day when Nissan lithium-ion battery-powered vehicles will drive cleanly and efficiently through urban amusement parks filled with Raptors and T-rex clones - and not just in novels and movies.
And, where the real dinosaurs on display may just be internal combustion vehicles
Actually, if you read a few posts up Nissan did do some cold weather testing with the all electric Prairie EV. It was stationed at International Arctic Research team in Ny-Alesund, Svalbard, Norway. At 79°N latitude, it's the world's most Northerly settlement. The Prairie spent 6 years in the frigid arctic. It eventually stopped working due to a minor electrical problem. The vehicle was sent back to Nissan where it was repaired and continued to operate.pawprint wrote:What I am most curious about is the battery technology in cold, frigid weather. How many electric vehicles are driving around Yellowknife, NWT Canada in January? The Rogue pictured above is in warm San Francisco and Hawaii.
That is the great thing/innovation with the Leaf: To stay at the top and for the buyers to not regret the investment (think computers, digital camera), the fact to have the last battery technology for your car is the best idea they had .philipa_240sx wrote:The really interesting feature of the LEAF is the batteries. Nissan is working on a leasing program to help finance the costs as the battery is the single most expensive component. The battery is removable and as the technology progresses, I am sure Nissan will offer battery 'upgrades'. They have also shown an automated battery swap system that could swap in a fully charged replacement just as quickly as filling up a gasoline car.
Many great things to come!