Samsung announce 900Wh/L All-Solid-State Battery Technology

Researchers from the Samsung Advanced Institute of Technology (SAIT) and the Samsung R&D Institute Japan (SRJ) presented a study on high-performance, long-lasting all-solid-state batteries to Nature Energy, one of the world’s leading scientific journals.

Compared to widely used lithium-ion batteries, which utilize liquid electrolytes, all-solid-state batteries support greater energy density, which opens the door for larger capacities, and utilize solid electrolytes, which are demonstrably safer. However, the lithium metal anodes that are frequently used in all-solid-state batteries, are prone to trigger the growth of dendrites1 which can produce undesirable side effects that reduce a battery’s lifespan and safety.

To overcome those effects, Samsung’s researchers proposed utilizing, for the first time, a silver-carbon (Ag-C) composite layer as the anode. The team found that incorporating an Ag-C layer into a prototype pouch cell enabled the battery to support a larger capacity, a longer cycle life, and enhanced its overall safety. Measuring just 5µm (micrometers) thick, the ultrathin Ag-C nanocomposite layer allowed the team to reduce anode thickness and increase energy density up to 900Wh/L. It also enabled them to make their prototype approximately 50 percent smaller by volume than a conventional lithium-ion battery.

This promising research is expected to help drive the expansion of electric vehicles (EVs). The prototype pouch cell that the team developed would enable an EV to travel up to 800km on a single charge, and features a cycle life of over 1,000 charges.

As Dongmin Im, Master at SAIT’s Next Generation Battery Lab and the leader of the project explained, “The product of this study could be a seed technology for safer, high-performance batteries of the future. Going forward, we will continue to develop and refine all-solid-state battery materials and manufacturing technologies to help take EV battery innovation to the next level.”

VW increase stake in solid-state batteries with $100M investment

Volkswagen will increase its stake in the California technology company QuantumScape Corporation and form a new joint venture.

VW says it is paving the way for the next level of battery power for long-range e-mobility. Dr. Axel Heinrich, Head of VW Group Research, who will take a seat on the board of directors of QuantumScape, says: “We want to accelerate the commercialization of QuantumScape’s solid-state batteries. And we combine forces to leverage Volkswagen’s experience as a production specialist and QuantumScape technology leadership. Volkswagen is thus taking another step toward a sustainable, zero emission mobility for our customers in the future.” Volkswagen will invest 100m USD in US-based QuantumScape and will become the innovative enterprise’s largest automotive shareholder. Closing of the transaction is subject to regulatory approval.

Since 2012, Volkswagen Group Research has already been collaborating closely with the Stanford spin-off. Based on the significant technical progress that this cooperation has made, QuantumScape and Volkswagen will work together within a newly formed joint venture with the aim to enable an industrial level of production of solid-state batteries. One of the long-term targets is to establish a production line for solid-state batteries by 2025.

“Volkswagen is the world’s largest automotive manufacturer and leads the industry in its commitment to electrification of its fleet,” says Jagdeep Singh, CEO of QuantumScape. “We are thrilled to be chosen by Volkswagen to power this transition. We think the higher range, faster charge times, and inherent safety of QuantumScape’s solid-state technology will be a key enabler for the next generation of electrified powertrains.”

Founded in 2010, QuantumScape is headquartered in San José, California and holds approximately 200 patents and patent applications for solid-state battery technology. Its deep expertise makes the company a leading pioneer in the development of this form of energy storage. “The solid-state battery will mark a turning point for e-mobility”, says Axel Heinrich of Volkswagen Group. “By increasing our stake in QuantumScape and forming the joint venture we strengthen and deepen our strategic cooperation with an innovative partner and secure access to the promising QuantumScape battery technology for Volkswagen.”

Solid-state battery cell technology is seen as the most promising approach for the e-mobility of the future. For example, a solid-state battery would increase the range of the E-Golf to approximately 750 kilometers compared with the present 300 kilometers. This battery technology has further advantages over the present lithium-ion technology: higher energy density, enhanced safety, better fast charging capability and – above all – they take up significantly less space. A solid-state battery of the same size as a current battery package can achieve a range comparable to that of conventional vehicles. While the approach has a lot of promise, advances have been difficult to attain and no other battery supplier has been able to achieve automotive performance. Volkswagen successfully tested QuantumScape early-stage solid-state battery sample cells in Germany running at automotive rates of power—an industry first.

Honda to halve electric cars’ charging time to 15 minutes

Honda Motor plans to release in 2022 a selection of fully electric cars that can run 240km on a single 15-minute charge. Most electric vehicles now available take at least twice that long to reach an 80% charge even using a high-speed charger.

Key to this plan is developing a new type of high-capacity battery that can handle the ultra-quick charging. The carmaker sources batteries for its electric-gas hybrid vehicles from Panasonic and others, but plans to create the new batteries in collaboration with a partner to be chosen later. A lighter vehicle body and more efficient power control system will ensure the new cars can go farther on a single charge.

Before then, Honda plans to release mass-market electric vehicles in Europe in 2019 and in Japan the following year.

Fast chargers in Japan now provide a maximum output of 150kW, but industry plans call for raising that to 350kW starting in 2020. Europe is expected to have a network of several thousand 350kW charging stations by that year. Honda's next-generation electric vehicles will take advantage of this faster charging infrastructure.

Nissan Motor's new 2018 Leaf will also offer quicker charging times than the current model and range 30% longer -- more than 500km on a single charge. The automaker has a head start on Japanese rivals Honda and Toyota Motor in mass-market electric vehicles.

There were 470,000 electric vehicles on the world's roads in 2016, according to Tokyo-based research firm Fuji Keizai, making up 0.5% of the total. That share is expected to climb to only 4.6% by 2035. By offering faster charging and longer range, Honda hopes to give its electric cars an edge with everyday drivers.

VW to Invest €3.5B in Battery Cell & Modular Electric Drive Plant

Volkswagen will invest €3.5-billion (US$3.7-billion) in e-mobility and digitalization for its German plants.

To bring Volkswagen up-to-date in the future-oriented areas of e-mobility and digitalization, the company will be making a massive investment in new technologies. The German plants are to enter the field of developing and producing electric vehicles and components. A pilot plant for battery cells and cell modules is to be developed. Volkswagen will be investing €3.5 billion in the transformation of the company.

New competences in future-oriented areas are to be developed at the various locations. About 9,000 additional jobs with a secure future are to be created. Volkswagen will mainly be filling these vacancies with existing employees and will also be recruiting specialists from outside the Group. Over the next few years, Volkswagen will be cutting up to 23,000 jobs via natural fluctuation and partial early retirement, taking the demographic curve into account. It is expressly stated that this reduction in the workforce will be accomplished without compulsory redundancies.

The pact for the future includes agreements on new future-oriented vehicle products. The plants at Wolfsburg and Zwickau are to assume responsibility for the production of electric vehicles based on the Modular Electric Drive Kit (MEB). By investing in e-mobility, Volkswagen will create jobs with a secure future at these locations. In order to ensure efficient capacity deployment, a further model is to be produced at the Emden plant. At Wolfsburg, an additional Volkswagen Group vehicle will also be produced.

Future-oriented work is to be divided between the main German components plants. Brunswick will continue to produce the battery system for the Modular Transverse Toolkit and will also be developing and producing the battery system for the Modular Electric Drive Kit (MEB). Kassel is to develop the MEB drive system and to be responsible for the assembly of the entire system in addition to electric transmission production. Salzgitter will produce and supply MEB drive system components. In addition, the plant will be building a pilot facility for battery cells and cell modules.

By 2020, the Volkswagen brand intends to be completely repositioned.

Scientists develop new lithium-sulphur battery that offers up to 5x the energy density of Li-ion

Scientists have developed a new prototype battery inspired by human anatomy. The prototype – which offers up to 5x the energy density of the lithium-ion batteries – uses a lithium-sulphur cell with an intestine-mimicking design that could finally make these energy-dense batteries long-lasting enough for commercial use.

Headed by the University of Cambridge, this research has managed to overcome one of the major drawbacks to lithium-sulphur cells: the fact that they disintegrate very quickly, despite their superior energy density to lithium ions.

When a lithium-sulphur battery discharges, sulphur in the cathode absorbs lithium from the anode. This interaction causes the sulphur molecules to transform into chain-like structures called poly-sulphides.

After the battery goes through numerous charge-discharge cycles, the reaction starts to stress the cathode, leading to bits of the poly-sulphides breaking off and entering the battery's electrolyte, which joins the two electrodes.

When this happens, the battery starts to degrade, as it loses its active material.

Here is where bio-mimicry comes in. Our gut is lined with tiny protrusions called villi, which absorb nutrients during digestion. The villi increase the surface area of the intestines by 30x. Scientists have now developed a nano-structure made of zinc oxides which resembles and act like the villi. These prototype villi will absorb the polysulphides in the electrolyte, slowing down the degradation process of the lithium-sulphur cell.

In testing, after 200 cycles at 1C, the prototype nanostructure saw only 0.05% average capacity loss per cycle, making it almost as stable as lithium-ion – which ranges between 0.025 to 0.048 percent average capacity loss per cycle.

Samsung SDI to build $358M car battery plant in Hungary by 2018

South Korea's Samsung SDI plans to invest about 400 billion won ($358 million) to build a plant to make electric vehicle batteries in Hungary, joining the race to build capacity and tap European demand.

Samsung SDI, whose customers include BMW, said on Tuesday that the proposed factory near Budapest would start production in the second half of 2018 and it would be able to produce batteries used for 50,000 pure electric vehicles (EVs) annually.

The plant will "help us save logistics costs and quickly cope with demand from customers, as European companies have manufacturing bases around Hungary," Samsung SDI, an affiliate of Samsung Electronics, said in a statement.

The company currently produces batteries for BMW's i3 in South Korea. Samsung SDI last year started production at its factory in China, the world's biggest EV market, but subsidy regulations have hampered its sales.

Cross-town rival LG Chem plans to build an EV battery plant in Poland to meet rising demand from European automakers, a person familiar with the matter told Reuters in April.

Samsung buys $450 million stake in Chinese electric car firm BYD

Samsung Electronics will pay $450 million for a stake in Chinese automaker and rechargeable batteries firm BYD Co Ltd, the Chinese company said in a stock exchange filing on Thursday.

Automakers and technology companies have formed a series of partnerships in recent years as the race to develop electric, self-driving, internet-connected vehicles has created demand for more electronics components and software.

The Samsung investment has been made through Chinese subsidiary Shanghai Samsung Semiconductor and gives the Korean firm a 1.92 percent stake in BYD, making it the ninth largest investor in the company.

Samsung Electronics said last week it was in talks to acquire a stake in BYD to boost its automotive chip business, after the Korea Economic Daily first reported that Samsung had agreed to buy a stake.

BYD, which also counts Warren Buffet's Berkshire Hathaway as a backer, began as a battery maker for personal electronics before launching its automotive business that focuses on electric and hybrid vehicles.

CHAdeMO Announce 150 Kw Supercharging Protocol

During CHAdeMO’s annual General Assembly in Tokyo, Japan, the Association’s management has announced its plans and ongoing activities towards bringing high power CHAdeMO chargers to the market.

The Association plans to release an amendment to the current protocol, which will enable charging with up to 150kW (350A), this year. The revision of the protocol, announced to the Regular Members already last year, is still ongoing with technical consultations with members happening both in and outside of Japan.

CHAdeMO’s Secretary General Dave Yoshida said: “One of the purposes of the Association is to evolve CHAdeMO protocol so that it can better respond to market needs. We see a movement towards mass market EVs with higher capacity batteries and we, as the Association of fast charging protocol, prepare for it by working on the high power protocol. This will enable faster deployment of the high power charging infrastructure, in preparation for EVs that can charge with higher power.”

Recognising that the upward trend in EV autonomy will lead to a need for charging with higher power at key locations, especially along the motorways, CHAdeMO mandated its Technical Work Group to tackle issues such as the size of the high power cable or managing temperature increase of the charger that may come in contact with users.

The ‘plug’ itself will remain exactly the same as the current one, meaning the high power CHAdeMO chargers can feed power to both the current EVs as well as the upcoming EVs with higher battery capacity. Current CHAdeMO EVs will also be able to use the 150kW charger, but as today’s EVs are configured to charge at around 50kW, they will charge at the current speed.

Dave Yoshida added: “We are very pleased that, thanks to the hard work of our technical team, we will soon be able to release the new version of the protocol to our members. We expect first 150kW standardised chargers to be deployed in 2017.”

CHAdeMO technical representatives are also actively involved in the IEC Committee working on high power charging, where, together with other international experts, they are preparing a revision of the DC high power standards, based on the IEC standards published in 2014.

In terms of higher power, for example 350kW (1 000V x 350A), technical studies are ongoing and the Association will determine its further development around 2018, should there be market demand.

Volkswagen planning a multi-billion euro battery factory

Volkswagen is considering building a multi-billion-euro battery factory as part of a major expansion of its electric-car portfolio, Handelsblatt has learned from company sources.

The factory would allow VW to operate independently of Asian firms like Panasonic, LG and Samsung that have dominated the battery market to date.

VW Chief Executive Matthias Müller and his team are currently working on a new strategy to increase electric car sales in the coming 10 years to 1 million. The non-executive supervisory board will consider the plans before the Wolfsburg-based firm’s annual meeting on June 22.

The aim of the new plans in part is also to put the recent “Dieselgate” scandal over cheating emissions tests behind it. The hope is that focusing on battery technology and electric cars can help the beleaguered company make a fresh start and improve its negative image.

Building a new battery factory would also allow VW to take a leadership role in the development of the new technology. The company’s executive board looks likely to approve the plan, which is also supported in principle by the works council and the state of Lower Saxony, its major shareholder, sources said.

VW invested in solid-state battery startup QuantumScape in late 2014 and have publicly stated they expect the technology can deliver 700 km range. VW is also targeting a 66 percent cost reduction by using a single battery module design for all of its electrified vehicles.

“We want to launch a major initiative, one that will put us at the top of the industry,” said one insider familiar with the plans.

To date one of the main reasons established automakers have been reluctant to move into high volume EV manufacture is having to outsource battery production. Where the largest cost component in an internal combustion car is the engine itself, which virtually all automakers build in-house, in an EV it is the battery that is the most expensive component. Automakers need to vertically integrate battery production into their manufacturing process in order to make EVs profitable.

Tesla consider LG, Samsung & SK for Model 3 battery supply

Tesla Motors is approaching LG Chem, Samsung SDI and SK Innovation as part of its strategy to diversify its battery-sourcing channels beyond Japan's Panasonic.

LG Chem is expected to win the Tesla business thanks to its output commitment, good pricing and on-time delivery. A solid partnership with LG Display could also help LG Chem. The company previously supplied batteries for Tesla's Roadster model, though the volume it shipped was "small."

"Tesla intends to use more Korean technology on its Model 3. It decided to use tires manufactured by Hankook Tire and LG Display will possibly be supplying its OLED panels for the automotive systems. Additionally, Tesla is testing the manufacturing capability and production of LG Chem, Samsung SDI and SK Innovation," said an official, Tuesday.

Tesla executives recently visited key research centers at LG Chem, Samsung SDI and SK Innovation, holding working-level meetings with all of them.

An LG Chem spokesman said the largest battery supplier in the world has no official comment about its business with specific clients. Samsung SDI said it has no authority either to confirm or to deny business deals with its major clients. SK Innovation wasn't available for comment.

The Model 3 electric vehicle is faster, cleaner, more reliable and has better handling; while its entry price will start at around $35,000, cheaper than many competing gas powered cars.

Because of those factors, market analysts and officials say that the Model 3 "should be a game changer" at an affordable price point.

They said the Model 3 will drive the "third wave of adoption" in the electric vehicle industry. This third wave will finally attack the majority "mainstream and economically attractive" segment and it's been expected that others will follow including the GM Chevy Bolt, which should help propel EVs to the real tipping point of mass adoption.

"This is why LG Chem, Samsung SDI and SK Innovation all are keenly interested in boosting their tie-up with Tesla. The three Korean battery manufacturers can't afford to lose the new business given the Model 3's impressive initial responses from customers," said another official.

Tesla plans to produce up to 500,000 electric vehicles by 2018. The Model 3 will be available in 2017, at the earliest. The company has received 400,000 pre-orders.

Currently, Japan's Panasonic is the exclusive battery partner with Tesla, supplying 18650 batteries as these are more economical and easier to mass produce.

Both LG Chem and Samsung SDI are also manufacturing 18650 cells.

Although LG is pushing the pouch-type battery as its mainstream product with Samsung SDI focusing on the rectangular-type battery, sources who are involved with the issue say Tesla may use LG and Samsung's mainstream technologies to keep adequate inventory levels as it's been widely expected the supply for the Model 3 will remain tight.

Nissan working on next-gen amorphous silicon (SiO) Li-ion battery

Nissan Motor Co., Ltd. and Nissan Arc Ltd. announced today joint development of an atomic analysis methodology that will aid in boosting the performance of lithium-ion batteries, and ultimately extend the driving range of zero-emission electric vehicles.

The breakthrough was the result of a combined R&D effort between Nissan Arc Ltd., a Nissan subsidiary, Tohoku University, the National Institute for Materials Science (NIMS), the Japan Synchrotron Radiation Research Institute (JASRI), and Japan Science and Technology Agency (JST).

The analysis examines the structure of amorphous silicon monoxide (SiO), widely seen as key to boosting next-generation lithium-ion battery (Li-ion) capacity, allowing researchers to better understand electrode structure during charging cycles.

Silicon (Si) is capable of holding greater amounts of lithium, compared with common carbon-based materials, but in crystalline form possesses a structure that deteriorates during charging cycles, ultimately impacting performance. However, amorphous SiO is resistant to such deterioration.

Its base structure had been unknown, making it difficult for mass production. However, the new methodology provides an accurate understanding of the amorphous structure of SiO, based on a combination of structural analyses and computer simulations.

The atomic structure of SiO was thought to be inhomogeneous, making its precise atomic arrangements the subject of debate. The new findings show that its structure allows the storage of a larger number of Li ions, in turn leading to better battery performance.

“The invention of this new analysis method is essential to further develop the next generation of high-capacity lithium-ion batteries. It will certainly become one of our core technologies. The utilization of this analysis method in our future R&D will surely contribute to extending the cruising range of future zero-emission vehicles,” said Takao Asami, senior vice president of Nissan Motor Co., Ltd. and President of Nissan Arc Ltd.

Daniele Schillaci, executive vice president of Nissan Motor Co., Ltd., Global Sales & Marketing including Zero Emission Vehicle and Battery business, said the development was another proof point of Nissan’s commitment to innovation in advanced technologies.

“Nissan is exploring a wide range of energy sources for tomorrow’s vehicles, and we recognize our role in continuously investing in multiple technologies and intelligent mobility,” said Schillaci.

More: Nature Communications

Ford, Xerox PARC & Oak Ridge Labs Team up to Develop EV Battery

Xerox PARC today announced its ‘Co-Extrusion (CoEx) for Cost Reduction of Advanced High-Energy-and-Power Battery Electrode Manufacturing’ project funded by the U.S. Department of Energy’s (DOE) Office of Energy Efficiency and Renewable Energy (EERE). In collaboration with Oak Ridge National Laboratory (ORNL) and Ford Motor Company, the project will use PARC’s novel CoEx printing technology to fabricate thick higher energy and higher power battery electrodes with the end goal of enabling longer range and low cost electric vehicles.

The project goal is to demonstrate pilot-scale, electric vehicle (EV) pouch cells with a 20% improvement in gravimetric energy density (Wh/kg), and a 30% reduction in $/kWh costs. CoEx allows fine structures to be printed at high speed, and when applied to thick battery electrodes, it adds a new design dimension that can be used to enhance energy and power performance. This innovative approach has the potential to help make high performance and affordable electric vehicles (EVs) a reality.

PARC will develop the inks and CoEx hardware required to fabricate a thick high energy and high power CoEx cathode electrodes. ORNL will assist PARC with the matching anode development, anode and CoEx cathode coating at pilot scale, and electrochemical performance optimization in automotive-relevant lithium-ion pouch cells. The bulk of this research will occur at the DOE Battery Manufacturing R&D Facility (BMF) at ORNL, which was designed in 2011 with these types of projects in mind. PARC will design a custom CoEx apparatus that will be integrated into one of the research coating lines at the BMF.

“The PARC team is excited to start this collaboration with ORNL and Ford. CoEx has the potential to make higher capacity EV batteries possible through the creation of two and three dimensional structures which can enhance lithium-ion pathways in ultra-thick battery electrodes. Our goal is to fabricate EV pouch cells that are higher in energy and power than conventional, with a path towards a reduction in $/kWh costs for EVs”said project principal investigator and PARC CoEx technical lead Dr. Corie Cobb.

“PARC and ORNL have a track record of working successfully together, and their collaboration on this project will transform the way lithium-ion electrode coatings are made and perform under high discharge rates,” said ORNL project lead David Wood.

PARC’s CoEx project is part of a portfolio of research within the PARC Energy Technology Program aimed at developing practical solutions to make clean and abundant energy available across a wide range of applications. This includes a focus on improving energy storage for EVs, consumer electronics, and electric grid support through better ways to make, monitor, and manage batteries.

“By leveraging our deep background in printing, PARC has developed the CoEx printing process to enable higher performance solar cells, fuel cells and batteries.,” said Scott Elrod, Vice President of PARC’s Hardware Systems Lab. “By applying CoEx to printed batteries, we can create optimal structures that boost power performance without compromising energy storage. It’s an efficient and a lower-cost approach that can be applied to the mass manufacturing of batteries.”

LG Chem plans to build electric car battery factory in Poland – source

South Korea's LG Chem plans to build an electric vehicle battery factory in Poland to meet rising demand from European automakers, a person familiar with the matter said on Thursday.

"The plant will be completed in about one-and-a-half years," said the source, who did not want to be named as he was not authorized to talk to the media. He did not provide any details on the size of the investment.

The facilities, to be located in the southwestern Polish city of Wroclaw, will ultimately have a production capacity of 229,000 EV batteries a year, making it LG Chem's second-biggest EV battery factory after China, the source said.

The company also builds EV batteries in South Korea and the United States.

LG Chem - the battery supplier for General Motors' upcoming electric car Bolt - counts a total of 25 automakers globally, including Renault, Volkswagen, Audi and Volvo in Europe, as its customers.

A spokesman for LG Chem said it was considering adding car battery production facilities, but nothing had been decided.

Automakers around the world are expected to roll out a slew of electric vehicles to meet tougher emissions and fuel economy regulations, although there are concerns that current low oil prices will dent demand for fuel-efficient cars.

LG Chem's rival Samsung SDI, which has BMW as one of its customers, is also considering building an EV battery factory in Europe, a Samsung SDI spokesman said.

2017 BMW i3 to get 200 km (EPA) range, starts production in July

BMW will boost the range of its i3 electric car by about half for the 2017 model year.

This summer, the lithium ion battery pack of the compact EV will be improved, "which puts it into a much more usable range," Ian Robertson, BMW AG board member for sales and marketing, told Automotive News at the Detroit auto show.

BMW doesn't have the exact figure yet, but a 50 percent increase means about 200 km on a single charge, up from the current 130 km (EPA).

The 2017 i3 will begin production in July of 2016 and will use Samsung 94 Ah battery cells. The 2017 i3 needs the increase in range to compete with the 2016 30 kWh Nissan Leaf with 250 km range and the upcoming Chevy Bolt, which will have a range of 300+ km.

The i3 went on sale in the U.S. in the spring of 2014 and has a base price of $43,350 including shipping. A model with a range extender is also available -- with about double the range -- and starts at $47,200 including shipping. Those prices are before tax credits.

BMW sold 24,057 i3s worldwide last year, an increase of 50 percent from 2014. In the United States, BMW sold 11,024 i3s, up from 6,092 in 2014. Nearly 60 percent of those were with the range extender.

Panasonic & Bosch bid for Porsche Mission-E battery

Porsche AG has been weighing bids from Panasonic Corp. and Robert Bosch GmbH for a long-range battery as it prepares to challenge Tesla Motors Inc. with an all-electric sports car, according to people familiar with the matter.

Costs for the package offered by crosstown neighbor Bosch would be higher than the competing technology from Japanese peer Panasonic, which supplies Tesla’s batteries, said the people, who asked not to be identified because the talks are confidential. The advantage to Bosch’s offer would be less-complex logistics.

“We’re in the final stage of making a decision,” Porsche Chief Executive Officer Oliver Blume said in an interview last week at the Geneva International Motor Show. He declined to comment on the suppliers being considered.

The unit of Volkswagen AG, Europe’s largest automaker, earmarked 1 billion euros ($1.1 billion) to build its first battery-powered sports car in December. It’s part of the parent company’s broader push for more low-emission electric and hybrid cars. Volkswagen has sped up its electric efforts since admitting six months ago it had cheated on emissions tests for diesel cars.

Audi CEO Rupert Stadler said a week ago the company, a fellow Volkswagen unit, will purchase batteries for its electric vehicles from Korean suppliers LG Chem Ltd. and Samsung Electronics Co., who have plans in place to start producing battery cells in Europe.

Electric Investment

With the Volkswagen scandal throwing the long-term future of diesel into question, other carmakers are also turning anew to electric cars. Daimler AG’s Mercedes-Benz said last week it will invest 500 million euros to build a second battery factory in Germany because it expects demand to pick up.

Porsche’s electric sports car will be based on the low-slung Mission E concept shown at the Frankfurt auto show six months ago. Set to be produced near the automaker’s German headquarters in Stuttgart, the new model will create some 1,000 jobs.

A spokesman for Porsche referred to the brand’s annual earnings conference, scheduled Friday morning, and declined to comment beforehand. Bosch declined to comment. Yayoi Watanabe, a spokeswoman for Panasonic, declined to comment.

Daimler to invest 500 million Euros in new battery factory in Germany

Daimler will invest 500 million Euros in a new battery factory in Germany. The new battery factory will produce lithium-ion battery packs for hybrid and electric vehicles for Mercedes-Benz and smart brands.

Li-Tec, a subsidiary of the Daimler Group, ceased manufacture of battery cells in December 2015. The majority of the 280 employees were transferred to the Deutsche Accumotive—also a wholly owned Daimler subsidiary—which manufactures battery packs based on LG Chem cells.

Daimler consistently expands its activities in the area of electromobility and invests around 500 million Euros in the construction of a new battery factory. This will lead to a significant expansion of the production capacities for lithium-ion batteries of Deutsche ACCUMOTIVE located in the Saxon city of Kamenz.

The new factory will produce batteries for electric and hybrid vehicles of the brands Mercedes-Benz and smart. As a first step, the full Daimler subsidiary has purchased about 20 hectares of land adjacent to the existing battery factory.

"To get closer to fully electric driving, we keep investing big in the key component of emission-free vehicles: powerful batteries. We are now devoting another 500 million Euros to build a second battery factory in Germany. This underlines our commitment to the consistent expansion of electromobility", said Dr. Dieter Zetsche, Chairman of the Board of Management of Daimler AG and Head of Mercedes-Benz Cars.

Daimler announced a initial 100 million euros investment to expand East German battery pack output in 2014.

With the growing electrification of the automobile, the demand for highly efficient lithium-ion batteries is also rising steadily. Through its entry into the new business field with stationary battery storage for private and industrial applications, Deutsche ACCUMOTIVE will tap into additional growth opportunities.

By the end of 2014, the Daimler subsidiary had already announced its plans for a significant increase in its production capacities and an investment of around 100 million Euros in the expansion of the existing battery factory. "With the purchase of the new land, our production area at the site will be tripled.

The previous 20,000 square meters will be stocked up by an additional 40,000 square meters of production space. We will expand the production capacity consistently in the coming years", said Harald Kröger, Head of Development Electrics/Electronics and e-Drive Mercedes-Benz Cars.

The groundbreaking ceremony for the new factory is planned for fall 2016. The topping-out ceremony will then follow in spring 2017. The new production plant is to start operations in summer 2017.

Daimler entered into the business with stationary battery storage with Deutsche ACCUMOTIVE last year. The scalability of the systems enables the use of the lithium-ion batteries in big industry for network stabilization and smoothing of peak shaving for energy producers as well as private households, for example in conjunction with photovoltaic installations.

Mercedes-Benz energy storage units for private households can already be ordered and will soon be installed at customers in collaboration with selected sales partners. In the area of industrial applications, around 29 megawatt will be connected to the network jointly with different partners.

Samsung SDI to invest $1 Billion in EV Battery Gigafactory

In order to acquire the dominance and leadership in Chinese EV market, Samsung SDI became the first global battery manufacturer to construct an EV battery plant and initiate mass production in China, beating LG Chem who broke ground on a similar plant in China a year ago.

The Xi’an plant has initiated its operation from September. It has finalized battery supply agreements with 10 local personal and commercial vehicle companies and is already delivering the goods. Some of these companies include Yutong, the leader of China’s and also the world’s bus industry and then Foton, the leader of China’s truck industry.

The finalized Samsung SDI Xi’an Plant is a cutting-edge production line that can manufacture high-performance electric vehicle (in standard of pure EVs) batteries for an amount of approximately 40 thousand cars a year. The plant is capable of carrying out the whole production process of EV battery cells and modules. Preparing for increased market demand in the future, Samsung SDI will invest – by adding production line, etc. – 600 million USD into the Xi’an battery plant until 2020 and aim to achieve 1 billion USD in sales.

Samsung SDI CEO Cho Nam Seong said in his welcoming address, “Xi’an is a starting point of Silk Road and is also a focal point of China’s One Belt, One Road initiative.” He added, “To go hand in hand with China’s time-honored tradition and future development strategy, we will bring up Xi’an plant to become the world center of EV battery industry.”

Anqing Ring New Group Chairman Pan Yi Xin said, “By integrating our expertise in the automotive business with Samsung SDI’s advanced technical capability, we will promote Xi’an Plant as the number one production base of EV battery.”

Dyson acquires Sakti3 for $90M

Dyson, the U.K. company famous for its bagless vacuum cleaners, has acquired Michigan-based solid-state battery startup Sakti3 for $90 million and announced plans to build an important $1 billion battery factory to mass produce the next generation battery technology.

This is the second important solid-state battery technology acquisition in a short period of time – Bosch recently bought Seeo Inc. to bring their battery technology to market. Solid-state batteries are thought to be a lot safer than common li-ion cells and could have more potential for higher energy density, but we have yet to see a company capable of producing it in large-scale and at an attractive price point.

Sakti3 made the headlines last year when it announced that it had produced a solid-state battery cell with 400 Wh/kg energy density, compared to Tesla’s cells believed to be around 230 Wh/kg.

Dyson had already invested $15 million in Sakti3 before now buying the company.

Founder and CEO Ann Marie Sastry will join Dyson as an executive and lead development of her battery technology for the company. When she first unveiled her technology and was trying to attract investors, Sastry said that the company’s solid-state cells aimed at the electric vehicle industry.

Dyson says that they remain open at licensing the technology and the cells could eventually find their way into electric cars, but for now the plan is to integrate the technology into Dyson’s cordless vacuum cleaners. The company expects to start producing its systems with the new batteries within a year or two.

“If we are to continue to create new and disruptive technology we must develop more advanced core technologies,” said Dyson founder James Dyson. “We have invested nearly $310 million into the research and development of the Dyson digital motor, a technology that now powers our most successful machines. We will do the same with batteries. Sakti3 has developed a breakthrough in battery technology, and together we will make this technology a reality.”

Bosch working on 50 kWh battery packs weighing only 190 kg

Bosch is researching batteries that will make it possible to drive longer distances without recharging, and will also cost less than current batteries. “Our battery experts are playing a key part in paving the way for electromobility,” says Dr. Michael Bolle, president of the corporate sector for research and advance engineering at Robert Bosch GmbH. As early as 2020, Bosch batteries should be capable of storing twice as much energy while costing significantly less. The market forecasts are correspondingly bullish: ten years from now, Bosch expects some 15 percent of all new vehicles worldwide to have an electrical powertrain. As a result, Bosch is investing 400 million euros a year in electromobility.

Current challenge: heavy weight, low energy density

Dr. Thorsten Ochs, head of battery technology R&D at the new Bosch research campus in Renningen, explains what will be necessary for progress in battery technology: “To achieve widespread acceptance of electromobility, mid-sized vehicles need to have 50 kilowatt hours of usable energy.” With conventional lead batteries, this would mean increasing the weight of the battery to 1.9 metric tons, even without wiring and the holder. That is the same weight as a modern-day mid-sized sedan, including occupants and luggage. At a weight of 19 kilograms, a conventional lead battery – as found today in nearly every car for powering their starters – stores a comparatively low 0.5 kilowatt hours.

The goal: a weight of just 190 kilograms, recharged in 15 minutes

Today’s lithium-ion batteries are superior in this respect. They store more than three times the amount of energy per kilogram. At a weight of 230 kilograms, the battery of a modern-day electric car provides approximately 18 to 30 kilowatt hours. But to achieve the desired 50 kilowatt hours, a battery weighing 380 to 600 kilograms would be necessary. With his colleagues around the world, Ochs is therefore working on energy storage media with even better performance. Their goal: to pack 50 kilowatt hours into 190 kilograms. In addition, the researchers are looking to significantly shorten the time a car needs to recharge. “Our new batteries should be capable of being loaded to 75 percent in less than 15 minutes,” Ochs says.

Ochs and his colleagues firmly believe that improved lithium technology will make it possible to achieve these goals. “There is still a long way to go when it comes to lithium,” Ochs says. To make progress in this area, his team in Renningen is working closely with Bosch experts in Shanghai and Palo Alto. And as a further measure to advance lithium-ion battery research, Bosch has established the Lithium Energy and Power GmbH & Co. KG joint venture with GS Yuasa and the Mitsubishi Corporation.

More space for electrical power – thanks to start-up technology from Silicon Valley

In theory, the solution sounds simple: “The more lithium ions you have in a battery, the more electrons – and thus the more energy – you can store in the same space,” Ochs says. But because researchers need to improve cells at the atomic and molecular level, putting this into practice is a challenge. One of the main keys to achieving this goal is to reduce the proportion of graphite in the anode (the positively charged part of the battery), or do without graphite altogether. Using lithium instead of graphite would make it possible to store up to three times as much energy in the same space. Ochs and his colleagues have already developed many approaches for removing the graphite and replacing it with other materials. The Bosch CEO Volkmar Denner recently presented a prototype solution at the IAA. Thanks to its purchase of Seeo Inc., a start-up based in Silicon Valley, Bosch has now acquired crucial practical expertise when it comes to making innovative solid-state batteries. Such batteries have one other decisive advantage: they can do without any liquid electrolyte. Such an electrolyte is to be found in conventional lithium-ion batteries, where, in certain circumstances, it can pose a safety risk.

Advantages in a number of areas

Improved lithium-ion batteries would benefit not only drivers, but also all other applications that employ this technology, such as smartphones, laptops, tablets, cordless household appliances and tools, and many more products.

Mercedes open to battery alliance with BMW and Audi

Daimler is open to the idea of creating an alliance between Germany's premium carmakers to manufacture next-generation batteries.

"There are commonalities between the German carmakers." Daimler CEO Dieter Zetsche said when asked whether Mercedes-Benz would consider extending an alliance formed earlier this year to buy Nokia's maps business, Here, to battery technology.

"Nokia Here led to a common approach... and there might be other areas," he told a news conference at the Frankfurt auto show, adding that any such cooperation would most likely start with the next generation of batteries.

Daimler, Volkswagen's Audi and BMW teamed up to buy Nokia Here last month for around 2.5 billion euros ($2.8 billion) in the most significant cooperation to date between the rival premium carmakers.

Daimler are currently exiting the battery cell manufacturing business by closing subsidiary Li-Tec later this year while planning to spend 100 million euros (US$125 million) in coming years to increase production of lithium-ion battery packs in eastern Germany using cells provided by South Korean based LG Chem.

Mercedes, BMW and Audi/Volkswagen all rely on Korean battery manufactures, LG Chem, Samsung SDI and SK Innovation, who between them hold 41% of global automotive battery patents for current generation battery cells.

Samsung SDI Battery Systems (SDIBS), a subsidiary formed after SDI's acquisition of Magna in May are working to strengthen the competitiveness of their European automotive battery business with a Low Pack battery designed for key customers including BMW and Audi .

Daimler CEO Zetsche suggested an alliance to manufacture next-generation battery cells which is clearly a mission critical technology for the electric vehicle industry. The battle is currently focused on solid state battery development with Volkswagen, Bosch, Samsung and General Motors all having made recent investments.

Perhaps, most noticeably, Daimler are not known to have any IP investments in this key area.