Mitsubishi RA Concept Car 2012

Research and development teams at Mitsubishi have been working on building a car that can combine a green personality with a high performance demeanor. The Mitsubishi RA concept car is the result of such an endeavor. .

Volvo Concept

The handcrafted walnut wood, real aluminum details, Bridge of Weir leathers and fabrics designed by Oscar Jacobson in the Volvo Concept You are a clear indication that the Swedish automaker has its eyes set on the upper-level luxury category for its next-generation full-size sedan.

Top 10 Best-Selling Cars

General Motors (up 18%), Ford (up 11.2%), Nissan (up 19.2%) and Hyundai (up 9.1%) all recorded strong growth. Chrysler grew by 31%, which the automaker says is “well above the industry average.” Stable truck sales buoyed GM, Ford and Chrysler: The Ford F-Series and Chevrolet Silverado are firmly the top-selling vehicles of the year thus far, and Ram sales have grown nearly 25% compared with 2010..

Top new Cars Pictures

Top new Cars Pictures.

BMW i3 Concept: First Look

BMW has finally given us our first official, undisguised look at its futuristic, all-electric city car. For now the i3 is still labeled a concept, but this car is much more complete than the MegaCity concept that preceded it. The four-passenger i3 concept is perhaps the most advanced take on electric cars yet, and draws on BMW's experience with a fleet of 600 Mini E and 1000 BMW ActiveE electric cars.

Showing posts with label Battery News. Show all posts
Showing posts with label Battery News. Show all posts

Bosch to build pilot line for the manufacture of lithium-ion batteries



Robert Bosch GmbH is to build a pilot production line in Eisenach in order to research into materials and production processes for future generations of lithium-ion cells. It is planned that the line will produce the first samples for trial purposes from 2012, and will then be extended until it reaches an annual production volume of more than 200,000 cells by 2015. Subsequent preparations for series production are planned for marine applications.

Bosch will be joined in this pilot project by BASF on the materials side and by ThyssenKrupp System Engineering as a specialist for process plant engineering. It is hoped this will drive forward the development of a European supplier network for materials and production machinery.

Bosch will gradually increase the size of the project team to roughly 80 associates. They will work to develop materials for anodes, cathodes, and electrolytes, and also examine their interactions. The knowledge they gain will flow directly into new manufacturing processes.

This focus on the application of the technology needed for the next cell generation to the non-automotive area is an effective complement to the activities that are pooled in Bosch's joint venture with Samsung SDI, SB LiMotive.

Graphene battery could triple Electric Vehicle range


Researchers with the U.S. Department of Energy’s Lawrence Berkeley National Laboratory (Berkeley Lab) have created a graphene and tin nanoscale composite material for high-capacity energy storage in renewable lithium ion batteries. By encapsulating tin between sheets of graphene, the researchers constructed a new, lightweight “sandwich” structure that should bolster battery performance.

“For an electric vehicle, you need a lightweight battery that can be charged quickly and holds its charge capacity after repeated cycling,” says Yuegang Zhang, a staff scientist with Berkeley Lab’s Molecular Foundry, in the Inorganic Nanostructures Facility, who led this research. “Here, we’ve shown the rational design of a nanoscale architecture, which doesn’t need an additive or binder to operate, to improve battery performance.”

Graphene is a single-atom-thick, “chicken-wire” lattice of carbon atoms with stellar electronic and mechanical properties, far beyond silicon and other traditional semiconductor materials. Previous work on graphene by Zhang and his colleagues has emphasized electronic device applications.

In this study, the team assembled alternating layers of graphene and tin to create a nanoscale composite. To create the composite material, a thin film of tin is deposited onto graphene. Next, another sheet of graphene is transferred on top of the tin film. This process is repeated to create a composite material, which is then heated to 300˚ Celsius (572˚ Fahrenheit) in a hydrogen and argon environment. During this heat treatment, the tin film transforms into a series of pillars, increasing the height of the tin layer.

“The formation of these tin nanopillars from a thin film is very particular to this system, and we find the distance between the top and bottom graphene layers also changes to accommodate the height change of the tin layer,” says Liwen Ji, a post-doctoral researcher at the Foundry. Ji is the lead author and Zhang the corresponding author of a paper reporting the research in the journal Energy and Environmental Science.

The change in height between the graphene layers in these new nanocomposites helps during electrochemical cycling of the battery, as the volume change of tin improves the electrode’s performance. In addition, this accommodating behavior means the battery can be charged quickly and repeatedly without degrading — crucial for rechargeable batteries in electric vehicles.

“We have a large battery program here at Berkeley Lab, where we are capable of making highly cyclable cells. Through our interactions in the Carbon Cycle 2.0 program, the Materials Science Division researchers benefit from quality battery facilities and personnel, along with our insights in what it takes to make a better electrode,” says co-author Battaglia, program manager in the Advanced Energy Technology department of Berkeley Lab’s Environmental and Energy Technologies Division. “In return, we have an outlet for getting these requirements out to scientists developing the next generation of materials.”

“With a graphene battery the same amount of weight and volume as a current one, you could drive 300 miles instead of 100,” said Yuegang Zhang, a principal investigator at the lab. “In that case, you’ll like to buy an electrical car.”

Li-Ion Battery Market Set for Boom Courtesy of Electric Vehicles


Driven by plunging prices and accelerating demand from the electric and hybrid automobile market, lithium-ion will emerge as the world’s leading rechargeable battery technology and achieve 350 percent revenue growth from 2010 to 2020, according to a new IHS iSuppli Rechargeable Batteries Special Report from information and analysis provider IHS.

Global lithium-ion battery revenue is expected to expand to $53.7 billion in 2020, up from $11.8 billion in 2010, as presented in the figure below. Revenue will rise to $31.4 billion in 2015, allowing lithium-ion to surpass the current dominant rechargeable battery technology, lead acid.

While lithium-ion will find wide usage in mobile electronics products such as cellphones and notebook PCs, usage in cars will fuel the bulk of sales growth.

“Lithium-ion at present is much more expensive than alternative technologies, costing two to three times as much as sodium-sulfur, lead-acid and nickel-metal-hydride rechargeable batteries,” said Satoru Oyama, principal analyst of Japan electronics research for IHS. “However, lithium-ion pricing will decline much more rapidly than the other technologies, coming close to cost parity in 2015, and then becoming the least expensive type of rechargeable battery in 2020. Combined with the inherent advantages of the technology, the increasingly competitive cost of lithium-ion will cause car makers to employ it as their battery technology of choice in future electric and hybrid vehicles.”


Lithium: Just What the Ddoctor Ordered for Automotive

Lithium-ion delivers several enhancements compared to other rechargeable battery technologies.

These advantages include more flexible form factors and lighter weight. Furthermore, lithium-ion devices have no memory effect, meaning they maintain their full capacity even after a partial recharge. Finally, lithium-ion batteries are considered to be more environmentally safe than other technologies.

These features make lithium-ion particularly attractive for electric vehicles, hybrid electric vehicles and plug-in hybrid electric vehicles.

Because of this, the automotive segment will be the leading market for lithium-ion batteries by 2015, surpassing the current top application, notebook PCs.


Lithium’s Elements of Success in Electric and Hybrid Cars

The dominant battery technology used in hybrid cars now is nickel-metal-hydride. More than 1 million hybrids with nickel-metal-hydride batteries were shipped in 2010, led by the Toyota Prius.

However, shipments of nickel-metal-hydride batteries to the hybrid market will not grow in the future as the use of lithium-ion begins to take off.

While automotive will be the dominant market for lithium-ion batteries, notebook PCs and cellphones will remain major markets for the technology, accounting for $12.3 billion in revenue in 2010, up from $7.8 billion in 2010.

Other major uses for lithium-ion batteries include use in solar power systems, smart electricity grids and electric tools.

Nanosys Receives $11 Million Funding From U.S. Department of Energy


Nanostart-holding Nanosys, Inc. today announced that the U.S. Department of Energy (DOE) has awarded it funds to refine and bring to scale its SiNANOde™ materials for the automotive market. These innovations will enable Electric Vehicles (EVs) to travel 300 miles on a single charge.

In addition to the primary DOE award of USD 4.8 million, approximately USD 6 million will be spent, through sub-awards and matches by the DOE and Nanosys, in the development and commercialization of advanced material technologies and manufacturing in the United States.

"We are honored the DOE has selected Nanosys for this grant," said Jason Hartlove, president and CEO of Nanosys. "The future of a clean energy economy depends on increased adoption of electric and hybrid electric (PHEV) vehicles. Until such vehicles are able to achieve substantial operating range on a single charge with the economics of combustion vehicles, acceptance will be limited to early adopters. The commercialization of architected material solutions like SiNANOde™ provide the breakthroughs needed to progress on the path to achieving those goals."

The grant is a part of the DOE's larger mission to accelerate the development and deployment of advanced vehicle technologies through targeted programs aimed at increasing vehicle efficiency.

DOE's comprehensive approach is aimed at creating new innovations throughout the vehicle, including high capacity electric vehicle batteries and components that should significantly exceed existing state-of-the-art technologies in terms of performance and/or cost.

The agency has set a target for bringing the cost of lithium-ion batteries down to USD 250/kWh and increasing capacity to 300 miles per charge for the next generation of EVs. In recent tests, Nanosys' SiNANOde™ anode material has doubled capacity while providing breakthrough charge/discharge cycle life improvements. Nanosys will use the DOE funds to accelerate development through purchases of additional equipment and the hiring of additional staff.

"The Department of Energy is investing in new advanced technologies that will significantly improve vehicle fuel economy, save consumers money, and create skilled jobs for Americans," said U.S. Energy Secretary Steven Chu in a DOE press release. "Investments in the next generation of autos will strengthen our economy and lead to a more fuel-efficient, clean energy future."

In addition to EVs, Nanosys is currently working with domestic and international battery manufacturers to improve lithium-ion battery capacity using SiNANOde™ in batteries for laptops and tablets, smart phones and other electronic devices

DOE Awards $175 Million in Vehicle Efficiency Development Grants


U.S. Energy Secretary Steven Chu announced that the DOE is providing more than $175 million to 40 projects across 15 states over the next three to five years to accelerate the development of energy-efficient-vehicle technologies.

The projects will pursue innovations in fuels and lubricants, lighter weight materials, longer-lasting and cheaper electric vehicle batteries and components, and more efficient engine technologies, according to a DOE announcement.

Among the grant recipients, United States Automotive Materials Partnership will validate crash models for carbon-fiber composites that would enable the use of lightweight composites in primary-structural automotive crash and energy management applications.

Penn State University will develop a high energy density lithium-sulfur cell technology that significantly reduces battery size, and improves performance and life.

MIT will investigate the use of new lubricant formulations that target differing lubrication requirements of the major engine subsystems.

A complete list of the 40 grant recipients is available at the link below.

DOE Funded Projects

Johnson Controls says it will build another EV battery factory


Johnson Controls Inc. will build a second factory to build lithium-ion batteries for hybrid electric and plug-in electric vehicles, the company announced Thursday.

A location for the factory has not been announced, the company said in a statement.

“Once a location is identified and the facility constructed, it would add nearly 300 additional jobs when at full capacity,” the company said.

Plans for a new factory were announced as company executives welcomed President Barack Obama to its Meadowbrook factory in Holland, Mich.

Obama said administration policies aimed at reducing oil imports are part of an effort to invest both in research and new technology.

“That’s why we’re investing in clean energy,” he said, according to a transcript provided by the White House. “That’s why I brought together the world’s largest auto companies who agreed, for the first time, to nearly double the distance their cars can go on a gallon of gas. That’s going to save consumers thousands of dollars at the pump.”

For more on Obama's appearance, click here.

The Michigan factory that Obama toured will be the first in the country to produce complete lithium-ion battery cells and systems for hybrid and electric vehicles, producing battery systems for automakers such as Ford’s Transit Connect plug-in electric delivery vans.

Johnson Controls and U.S. stimulus package each invested $299.2 million in the Michigan factory, while the state of Michigan provided $168 million in incentives

The Michigan plant will employ 320 people at full capacity, the company said.

“These projects are great examples of public-private partnerships that use innovation and technology to produce products that reduce fuel consumption and create jobs,” said Steve Roell, company chairman and chief executive, in a statement.

Across the Midwest, Johnson Controls Inc. is adding 700 jobs and retaining another 400 through its investment in advanced lead-acid and lithium-ion batteries, Roell said.

"Through innovation and investment in technology and people, Johnson Controls is a leader in the energy storage industry,” he said. “We are investing more than $460 million in our advanced battery business for manufacturing and technical facilities here in Michigan and the U.S. These investments will lead to over 700 new jobs, retention of another 400 and approximately 1,000 construction jobs," Roell said.

In addition to the new factory and the one now opening, the company also recently opened its expanded battery technology and test center in Glendale, which created 60 jobs.

Finally, in June the company announced it would invest $138.5 million at its battery factory in Toledo, to convert it and expand it to produce advanced lead acid batteries that deploy start-stop technology. This technology enables vehicle engines to turn off at intersections, turning back on when the gas pedal is pushed.

A new greenhouse gas and fuel economy program announced last week by the Obama administration will give credits to companies that deploy the start-stop technology, for which Johnson Controls has a leading market share.

The Toledo investment will retain 400 jobs and create 50 jobs, Johnson Controls said.

The investments are part of a plan by Johnson Controls to secure a leadership role in advanced batteries as the automotive industry moves to electrify the vehicle powertrain. The Glendale firm is the world's largest maker of lead-acid batteries, producing them for automakers and for retailers like Sears and Wal-Mart Stores Inc.

GM Does Deal With A123 – Will Launch 1st Pure Battery-EV in 2014


General Motors has inked a deal with U.S. battery supplier A123 – a deal that well-placed sources say confirms the maker’s plans to put at least one battery-electric vehicle into production by 2014.

The maker has a separate deal with LG Chem to produce lithium-ion batteries for its Chevrolet Volt plug-in hybrid. The Korean maker beat out A123 for that contract and is now in the process of setting up a new factory to produce Volt batteries near Grand Rapids, Michigan. Production of the Volt is now ramping up and, along with the similar Opel Ampera, GM hopes to produce as many as 60,000 plug-ins next year.

The new alliance will focus on an entirely different range of vehicles, GM spokesman Kevin Kelly hinted. “It is not for the Volt or the next-generation Volt. This is for a different application, but we can’t get into what this is for or the timing.”

While Kelly declined to comment, GM sources noted that the maker now hopes to expand into a broad range of “electrified” vehicles, from conventional hybrids to plug-ins and pure battery-electric vehicles, or BEVs. The A123 batteries will be utilized for the latter group.
Precisely what is in store is unclear, though there could be battery-electric models sold through “multiple brands,” according to sources. The first of the BEVs is expected to reach market by 2014.

While a variety of different platforms, large and small, have been under study, it appears the first battery-electric models will be in the small car class and similar to the low-volume demonstration fleets GM has launched in two of the world’s fastest-growing automotive markets. In India, the maker has electrified its compact Chevrolet Beat, while in China it has opted to go with the similarly-sized Sail. In Korea GM have a test fleet of GM Daewoo based Chevrolet Cruze EVs and GM Daewoo Lacetti Premieres.

China, in particular, has been pressing the auto industry to adopt battery power as a way to reduce dependence upon imported oil. It is likely to be one of several initial markets for the new GM battery cars.

GM may also go up-market, suggested another source. Its Cadillac brand has been considering several ways to use battery propulsion, though a plan to develop a luxury version of the Volt was rejected by CEO Dan Akerson who is, however, a corporate cheerleader for alternative propulsion.

The decision to go with A123 – which was the first runner-up in the bidding to supply batteries to Volt – reflects the fact that lithium-ion technology is evolving fast. There are about 14 different “families” of lithium chemistry, each with distinctly different properties. Some hold more energy, others store less but permit power to be drawn down more quickly, so some formulations are good for conventional hybrids, while others work better for battery-electric applications.

The latest version of the A123 nanophosphate chemistry appears particularly well-suited to pure battery-electric vehicles, several GM sources explained. It has a higher energy density – a measure of how much power can be stored in a given mass. And more of the potential capacity of the battery can be used.

With the batteries in the Volt, only about 60% of the total 16 kilowatt-hours of capacity are actually used, day-to-day. With the A123 pack that might top 70% or higher – which means fewer batteries are needed. And with lithium batteries running well north of $500 a kWH, that translates into significant savings.

Perhaps equally important, the A123 packaging is more flexible than LG Chem’s, which makes it easier to squeeze a lot of batteries into the nooks and crannies of a small car, rather than the large, T-shaped pack used in the Volt.

With the planned 2014 launch of its first pure batter car GM will enter into an increasingly crowded market. Nissan launched the first mass market battery car, the Leaf, late last year, shortly after followed by Ford’s Transit Connect Electric. Ford will begin a phased roll-out of its Focus Electric later in 2011, with Toyota, Mitsubishi, Honda and Nissan’s Infiniti among the many major other brands getting into BEV production. Meanwhile, start-up Tesla is one of many automotive wannabes also entering the fray, its Model S sedan due to market next year.

Both LG Chem and A123 are vying to supply those carmakers – as are a variety of other battery producers. The batteries for the GM BEVs will be produced at a plant in Livonia, a suburb of Detroit, where A123 already employs 775 people, a workforce expected to rapidly grow as a result of the new contract.

University of Michigan and Ford researchers see plentiful lithium for EVs


Researchers from the University of Michigan and Ford Motor Co. have assessed the global availability of lithium and compared it to the potential demand from large-scale global use of electric vehicles. The research findings, published in the current issue of the Journal of Industrial Ecology, conclude that sufficient resources of lithium exist for the next 90 years to supply a large-scale global fleet of electric vehicles through at least 2100.

The researchers compiled data on 103 deposits containing lithium, with an emphasis on 32 deposits that have a lithium resource of more than 100,000 metric tons each. Lithium is a key ingredient in the development of certain types of batteries, and is a key element of batteries used in hybrid and all-electric vehicles.

The data collected included deposit location, geologic type, dimensions and content of lithium, as well as the current status of production. Using the definition of a lithium "resource" as a deposit from which production is currently or potentially feasible economically, the researchers estimated a global lithium resource of about 39 million tons.

The second part of the study examined lithium demand for the same 90-year period (2010-2100). Demand was estimated under the assumption of two different growth scenarios for electric vehicles and other current battery and non-battery applications.

Areas studied related to demand were lubricating grease, frits and glass, air conditioning and portable batteries, as well as batteries for hybrid electric, plug-in hybrid electric and battery electric vehicles. The total demand for lithium was estimated to be in the range of 12-20 million tons, depending on assumptions regarding economic growth and recycling rates.

"Even with a rapid and widespread adoption of electric vehicles powered by lithium-ion batteries, lithium resources are sufficient to support demand until at least the end of this century," the researchers conclude in the paper.

The study's main authors were Paul Gruber and Pablo Medina. They conducted the research as part of a graduate student research project before graduating in 2010 from the U-M School of Natural Resources and Environment. The research partner was Ford Motor Co., the global automobile manufacturer based in Dearborn, Mich.

"We believe our assessment is a timely and comprehensive study that settles the question of whether the global resources are sufficient for electric vehicles using lithium-ion technology," said Gruber.

Other co-authors were U-M professors Gregory Keoleian of SNRE and Stephen Kesler, a professor emeritus of geological sciences, and two researchers from Ford: Mark Everson, the technical leader of the Manufacturing and Purchasing Strategy research group, and Timothy Wallington, technical leader of the Sustainability Science research group at Ford's Research and Innovation Center.

Nissan LEAF battery technology Explained [video]



Nissan Corporate Vice-President Simon Sproule gives a detailed explanation about the Nissan LEAF battery technology.

Japanese researchers triple li-ion battery capacity using metal foam


A new material has been developed by Japanese researchers, which has the ability to triple the capacity of lithium-ion batteries. Sumitomo Electric Industries has worked to set up a “small-scale production line” for producing such a material at its Osaka Works which is its R&D center. This project is named as “Aluminum-Celmet“.

Aluminum-Celmet forms the base of a highly efficient battery in which the porosity power is up to 98 per cent. It essentially is the replacement for the aluminum foil anode in a secondary rechargeable lithium-ion battery. This porous characteristic of Aluminum-Celmet forms the basis for a huge volume of lithium compound that helps in the flow of electricity.

This development by Sumitomo Electric is infact an outgrowth of its previous work on nickel and nickel-chromium materials which was tagged as Celmet generated from cell and metal. The way these are manufactured involves a high porosity conductive coating to form a foam made of plastic plated with nickel.

The foam is removed by heating the material which results into a 3-D mesh that is spherical in shape and has open pores. This can be easily processed by conventional methods which are cutting and attaching. Hence, Sumitomo Electric decided to use nickel-metal hydride and nickel-cadmium battery cells.

However, the advantage of the new Aluminum-Celmet material lies in it being light and having an improvised electrical conductivity power which can easily avoid corrosion resistance. These are the exact qualities that makes it well-suited for secondary lithium-ion batteries.

The firm has estimated that a lithium-ion automotive battery using Aluminum-Celmet will be able to provide one and a half times more power and a higher charging capacity of up to three times. It also seems to be an answer for improved capacitors seeking an aluminum capacitor having both positive and negative conductors by using a dielectric separator.

Sony eyes making batteries for electric vehicles


Sony is in talks with several automakers both inside and outside of Japan to make lithium-ion batteries for electric vehicles from 2015, expecting a sharp increase in demand, an executive of the electronics company said Tuesday.

"We will consider building factories, including one overseas, if demand becomes full blown," Sony Senior Vice President Shigeki Ishizuka told reporters at a new factory for building battery devices in Motomiya, Fukushima Prefecture.

The company will also consider developing batteries for gasoline-electric vehicles and plug-in hybrids, Ishizuka said.

The Japanese electronics maker is currently developing a lithium-ion battery with a long life that is resistant to deterioration even when recharged repeatedly.

Ishizuka visited the factory of subsidiary Sony Energy Devices Corp. on the day the company unveiled a new plant building there to manufacture electrodes for lithium-ion batteries to be used in such products as electrical power tools.

Nissan and 4R Energy Develop new Solar EV Charging System


Nissan and 4R Energy Corporation today announced that the two companies have developed a charging system for electric vehicles that combines a solar power generation system with high-capacity lithium-ion batteries. Testing of this new charging system began today at Nissan's Global Headquarters in Yokohama.

With the new charging system, electricity is generated through solar cells installed at Nissan's Global Headquarters, and is stored in lithium-ion batteries which are equivalent to four units of Nissan LEAFs. With seven charging stations (three quick charge, four normal charge) located in the headquarter grounds, the total electricity that can be generated and stored is the equivalent to fully charging approximately 1,800 Nissan LEAFs annually.

This new system will enable electric vehicles, which do not emit any CO2 when driven, to be charged through a completely renewable energy source. This is one solution to create a cycle where CO2 emissions resulting from driving is zero. By using the same lithium-ion batteries in electric vehicles as stationary storage batteries, electricity can also be supplied to EVs regardless of the time of day or weather, enabling efficient use of renewable energy sources.

4R Energy Corporation, a joint venture established by Nissan and Sumitomo Corporation in September 2010, has already started tests on a compact electricity storage system installed with second-life lithium ion batteries previously used in Nissan LEAFs. Based on the outcome of this larger system, 4R Energy plans to enter the market of mid-sized electricity storage systems for commercial and public facilities.

Nissan and 4R Energy Corporation will continue various efforts to help move toward a sustainable, zero-emission society.
Demonstration test outline Solar cell: Maximum power output: 40kW (Solar Frontier)
Power conditioner: Rated power output: 40kW (10kW×4)
(Sanyo Denki Co., Ltd.)
Storage battery capacity: 96kWh (Automotive Energy Supply Corporation)
Grid management unit: Rated power output: 200kW
(Sanyo Denki Co., Ltd.)
EV charging equipment: Quick charger: 3 (50kW×3)
Regular charger:4 (3.3kW×14)
Outline of 4R Energy Corporation President: Takashi Sakagami
Company Address: Queen's Tower C 12F, 2-3-5, Minatomirai, Nishi-ku, Yokohama City
Capital: 450 million yen
Date of Establishment: September 14, 2010
Stakeholders: Nissan Motor Co., Ltd. (51%)
Sumitomo Corporation (49%)
Business Description: Demonstration tests and commercialization study for the second-life use of lithium-ion batteries previously used in EVs

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