Thread for new battery breakthrough PR releases

Researchers find synergy between lithium polysulfide and lithium nitrate as electrolyte additives prevent dendrite growth on Li metal anodes

http://www.greencarcongress.com/2015/06/20150617-slac.html

Yet-Ming Chiang said the next step is to see if this approach can prevent dendrite formation in larger-scale cells that are closer to being practical batteries. It may also work for electrodes made of other metals, such as magnesium, calcium or aluminum, that also have potential for storing much more energy than today’s batteries.

The researchers assembled coin cells using various concentrations of the two chemicals to the ether-based electrolyte. They found that by simply manipulating the concentrations of Li2S8 and LiNO3, they could prevent the formation of lithium dendrites at a practical current density of 2 mA cm-2 up to a deposited areal capacity of 6 mAh cm-2.

They also demonstrated excellent cyclability: the Coulombic efficiency can be maintained at >99% for more than 300 cycles at 2 mA cm-2 with a deposited capacity of 1 mAh cm-2. Even for cyclic deposition of a high areal capacity of 3 mAh cm-2, the average Coulombic efficiency can be as high as 98.5% over 200 cycles (and is higher at ~99.0% between 70 and 200 cycles).

Woah, this could dramatically increase the cycle life of many batteries. Looks like this extends the life of lithium sulfur batteries into the >1000 cycle range, which is amazing.
 
Sadoway has won almost every teaching award they have at MIT, some of them multiple times. But he also explodes that nasty old distinction between teachers and doers. He is an inventor with 19 patents, and he’s about to launch a battery that could change the world.

... the battery will rely on low-cost materials whose identities remain secret. At 500 C, these mystery metals liquify and send current through a layer of molten salt.

The battery’s other key strength, according to Sadoway, is its ability to be recharged frequently...

Seen here:
http://www.theglobeandmail.com/repo...an-building-a-better-battery/article25066417/
 
More on 24M lithium: "Lithium battery technology breakthrough could totally change solar power"
http://inhabitat.com/lithium-battery-technology-breakthrough-could-totally-change-solar-power/

Includes:
At least 10,000 prototype batteries have been produced at 24M’s facility in Cambridge, Massachusetts. Customers have been testing these new batteries since December 2014. In 2020, the company aims to begin high-volume production of grid-scale batteries for use by utilities. By that same year, Chiang estimates that 24M will be capable of producing batteries for less than $100 per kilowatt-hour of capacity, far less than the cost of contemporary batteries.
 
Hi,

http://fortune.com/2015/07/14/tesla-cto-low-cost-batteries-change-everything/?xid=yahoo_fortune
The CTO and co-founder of Tesla, JB Straubel, speaking at a solar conference in San Francisco.
Photo courtesy of Katie Fehrenbacher, Fortune
The cost of lithium-ion batteries will quickly plummet, and that will transform transportation and electricity use, says JB Straubel.

Tesla’s CTO JB Straubel predicts that low cost batteries will transform transportation and access to electricity over the next decade. In a wide ranging talk at a solar conference in San Francisco Monday night, Straubel described a future in which all vehicles (other than planes and rockets) are powered by batteries, and new electricity systems are built with solar panels combined with batteries.

While less prominent than Tesla’s high profile CEO Elon Musk, Straubel is considered one of the company’s co-founders and is a key inventor of the company’s battery pack technology. Straubel is also one of the core executives working on Tesla’s massive battery factory, which is under construction outside Reno and is supposed to produce enough batteries for 500,000 electric cars annually by 2020.

While the cost of lithium-ion batteries has dropped in recent years, Straubel said that the price will continue to decline dramatically — and he thinks it will happen much more quickly than most people think. These batteries are just at the beginning, or at “the cliff,” of even lower prices, said Straubel.

When it becomes cheaper to drive on battery energy than it is to drive on gasoline, electric vehicles will dominate world transportation, predicted Straubel. Likewise, he said, when the combination of batteries and solar panels become cheap enough to provide electricity for less than the cost of fossil fuel power, solar energy will become the low cost choice.

“Once we get to that there is no going back. That’s the tipping point that’s going to happen, I am quite certain, over the next 10 years,” said Straubel.

Straubel has long proclaimed much more aggressive declines in cost for lithium ion batteries than most executives have in the consumer electronics, auto and energy industries. When Straubel first met Musk, he was busy trying to build a lithium-ion battery pack for a car that could last 1,000 miles.

Over a decade after Musk and Straubel’s first meeting, Tesla is now far closer to that goal as well as the duo’s over arching vision of transforming the way energy is generated and consumed. In April, after close to five years of research and testing, Tesla launched a new division focused on building batteries for the power grid and buildings, which the company calls “Tesla

But launching the division was a natural evolution for Tesla, from Straubel’s perspective. With just roughly 60,000 battery-filled cars on the roads, Tesla already has 5 gigawatt hours worth of batteries deployed and connecting to the power grid when the cars charge, said Staubel.
 
http://fortune.com/2015/07/27/battery-startup-china/?xid=yahoo_fortune
Silicon Valley startup is headed to China to make its batteries

Leave it to Tesla to make something geeky like lithium-ion batteries produced with bits of silicon seem cool. But that new secret sauce, revealed by Tesla CEO Elon Musk last week, belies an important point.

For over a year, a little known startup, Amprius, has been selling its own version for cell phones, tablets and drones. Backed by Silicon Valley investors, like Google executive chairman Eric Schmidt, the company is hoping to perfect an innovative idea that could make batteries last significantly longer.

Researchers and battery giants have spent decades working on adding silicon to lithium-ion batteries to increase the energy they can store. Eventually, most people in the industry think it will become standard.

But making the silicon work is a difficult challenge because it swells and can crack the battery. Despite all the attention, manufacturers have been slow to bring these batteries to market.

If Amprius can figure out how to mass produce its batteries at a lower cost, it could be an important break through. Not only could the company make cell phones and gadgets function longer on a single charge, but it might also one day be able to expand into the electric vehicle market and increase car driving ranges.

But Amprius won’t be building a U.S. factory to churn out its batteries, at least not initially. In an interview with Fortune, Amprius CEO Kang Sun says that late last year the company partnered with the Chinese city, Wuxi, on a joint venture that includes a plan to build a large factory in the city. Wuxi’s development group invested $40 million into the company, Sun says, and the city will also fund Amprius’ planned battery production line that is expected to be completed next year.

Amprius isn’t the first battery startup, or energy startup for that matter, to head to China. The country is both bullish on electric cars and eager to spend money developing domestic industries. And with a lack of funding recently for energy startups from both Silicon Valley venture capitalists and the U.S. government, it certainly won’t be the last to head to Asia.

Battery startup Amprius' production pilot line in Nanjing, China.
Battery startup Amprius’ production pilot line in Nanjing, China.
Photo courtesy of Amprius.
Battery basics

To understand what Amprius is trying to do, let’s look at the building blocks of a battery. A battery is made up of two electrodes—a positive cathode and a negative anode—and a medium through which the electric charge flows. Lithium ions move back and forth between the two electrodes when a lithium-ion battery charges and discharges.

The standard lithium-ion battery that is used in your cell phone and laptop commonly uses graphite for the negative electrode, and a lithium oxide combination for the positive electrode. The negative electrode essentially acts as a host to the lithium ions when the battery charges.

Many battery companies plan to add small amounts of silicon to the negative anode graphite mixture, on the order of 1% to 5%. Tesla’s Musk said that the company (presumably through Panasonic) is still using mostly graphite but over time would increase the amount of silicon.

Silicon helps batteries store more energy because its chemical structure can hold more lithium atoms during charging. Lawrence Berkeley National Lab Scientist Gao Liu, who leads a team that has developed silicon battery materials, explained the issue to me with a metaphor involving a bag. Say the battery’s negative electrode is a bag that holds the lithium, or the energy source, when the battery charges. Silicon provides a much bigger bag than graphite does, and it can hold much more lithium and thus more energy.

But one of the major problems with silicon is that it swells, and can shatter the negative anode during charging. It’s like if a bag is filled with sand and each grain of sand quadruples in size during charging, causing the bag to split open. Scientists like Liu are creating binding materials that can hold the silicon particles together even as they expand.

One of Amprius’ core innovations is to use nanotechnology to create a silicon structure that can be blended with graphite. The design, which is less than 10% silicon, according to Sun, doubles the amount of energy the negative electrode can hold.


Batteries made by startup Amprius.
Photo courtesy of Amprius
The company first started selling this technology to Asian smart phone makers in late 2013, making it one of the first times silicon was used commercially, albeit in small volumes, in a lithium-ion battery’s negative electrode. Tesla’s news appears to be the first time it’s being used more widely for an electric vehicle.

Amprius has been selling its battery tech to makers of consumer drones, gadgets, military applications, and to NASA. Customers for whom longer charges are important have been willing to pay higher prices for the batteries. For example a high end drone maker would be willing to pay extra for batteries that let people fly their drones 25% longer.

Amprius also has been developing a more advanced negative electrode made from silicon nanowires, which are tiny tubes of silicon. The structure of those micro wires make them more resistant to the swelling effect during charging and discharging.

That technology, in theory, could rely on silicon for most, or even all, of the negative electrode, and could have six times the energy density (the amount of energy that can be stored for its size). While Amprius has yet to commercialize this idea, Sun says the company will produce a test run of it later this year.

Sun says that Amprius’ current batteries using the blend of silicon and graphite composite already deliver an energy density of 700 watt hours per liter and, with more tweaks, will soon produce 750 watt hours per liter. The nanowire tech is showing an energy density of 940 watt hours per liter in the lab, he says. A standard lithium-ion battery has closer to 300 to 400 watt hours per liter.

Battery startups

For years, Amprius had other companies make its batteries. But soon the company will make its own through its China joint venture.

Sun says through this higher volume manufacturing, Amprius will be able to reduce the cost of its batteries so that they’re more competitive with standard lithium-ion batteries. Pilot production in Wuxi will start in November and then ramp up in 2016, he says.

In a sign of what may come next, Sun says the company is in discussions with another investor that could help the company eventually get into using its battery tech for electric vehicles. But battery factories typically take much longer and cost more money than companies expect.

If Amprius’ plan to make its batteries in China sounds simple enough, it’s anything but. Sun explains that the company has been split into three. One arm called Nanjing Amprius is making the battery materials. Then there’s Amprius Wuxi, which will make the batteries. And finally Amprius Technology Inc. will continue researching and developing the company’s silicon nanowire technology.

Funding for new batteries from young startups like Amprius has dried up in the U.S. Venture capitalists have shied away after big investments years ago in cleantech startups failed to live up to the early hype. And the U.S. government mostly will only provide small grants for basic research and development these days.

A Panasonic Corp's lithium-ion battery is pictured with Tesla Motors logo in Tokyo
A Panasonic Corp’s lithium-ion battery, which is part of Tesla Motor Inc’s Model S and Model X battery packs. November 19, 2013. REUTERS/Yuya Shino
Photograph by Yuya Shino — Reuters
For example, Lawrence Berkeley National Laboratory probably won’t commercialize Liu’s innovation through a startup nor raise funding to build a factory. Instead the team is planning to get the technology out by licensing it to large battery makers.

A number of other startups are working on using silicon for lithium ion batteries, too, and it’s unclear how these technologies will be commercialized or which one will have the biggest impact. Among them are Nexeon, SiNode Systems, and Sila Nanotechnologies plus many big companies like Hitachi, Samsung, and Panasonic.

Stanford professor Yi Cui came up with the original technology for Amprius, which has since been tweaked and refined. In addition to Google’s Schmidt, the company has received funding from Silicon Valley heavyweight Kleiner Perkins, the venture capital firm behind early Internet giants like Amazon and AOL. The company also claims former Department of Energy Secretary Steven Chu, a Nobel laureate, on its board.

But if a battery startup wants to find enough money to build a factory, odds are it’s going to end up in China, or somewhere else in Asia. For example, battery startup Boston Power, founded in 2005 in Massachusetts, headed to China years ago to raise money and build batteries.

Chinese investors are also grabbing up U.S. battery technology. Auto parts maker Wanxiang bought up both U.S. battery maker A123 Systems, and U.S. electric car maker Fisker Automotive out of bankruptcy.

China is the world’s biggest market for automobiles. But partly because of its major air pollution problem, the country is trying to pushing electric cars, electric scooters and electric buses in some regions.

Cities like Wuxi are encouraging the shift by providing low cost financing for the technology’s development. Energy tech startups LanzaTech and EcoMotors are also following this strategy of partnering with a Chinese company to fund a factory.

Amprius’ future is still far from certain. But that Chinese investors, because of their willingness to fund cleantech cleantech manufacturing, could mean that China could emerge as a major leader of battery technology.

In the U.S., Tesla’s massive battery factory, under construction outside of Reno, will be the most important move for U.S. battery manufacturing in years. Amprius’ Sun is bullish on Tesla’s use of silicon in batteries. He says it’s “very good news” and “an endorsement” of the technology’s bright future.
 
"Sol-gel capacitor dielectric offers record-high energy storage"
http://phys.org/news/2015-07-sol-gel-capacitor-dielectric-record-high-energy.html

solgelcapaci.jpg


In their structures, the researchers demonstrated maximum extractable energy densities up to 40 joules per cubic centimeter, an energy extraction efficiency of 72 percent at a field strength of 830 volts per micron, and a power density of 520 watts per cubic centimeter. The performance exceeds that of conventional electrolytic capacitors and thin-film lithium ion batteries, though it doesn't match the lithium ion battery formats commonly used in electronic devices and vehicles.

"This is the first time I've seen a capacitor beat a battery on energy density," said Perry. "The combination of high energy density and high power density is uncommon in the capacitor world."
 
LockH said:
In their structures, the researchers demonstrated maximum extractable energy densities up to 40 joules per cubic centimeter, an energy extraction efficiency of 72 percent at a field strength of 830 volts per micron, and a power density of 520 watts per cubic centimeter.

I make that 11.1 Wh/litre volumetric energy density and 520 Kw/litre volumetric power density.
 
but it is a capacitor and not likely to ever be accepted as a charge storage device in an EV because of the risk of shorting imo.

the silicon nanowires is an extension of the research started at stanford and all of the researchers working on it at stanford were all chinese too.

not only is there the problem of the polysilicon expanding with charge because of the electrostatic interaction but there is the problem of making the ohmic connection between the polysilicon and the carbon.
 
"World's first "aqueous solar flow battery" outperforms traditional lithium-iodine batteries"
http://www.gizmag.com/aqueous-solar-flow-battery-osu/38748/
The scientists that revealed the "world's first solar battery" last year are now, following some modifications, reporting its first significant performance milestone. The device essentially fits a battery and solar cell into the one package, and has now been tested against traditional lithium-iodine batteries, over which the researchers are claiming energy savings of 20 percent.

It was last October that researchers at Ohio State University (OSU) first detailed their patent-pending design for a dye-sensitized solar cell also capable of storing its own power. With three electrodes rather than the typical four, it featured a lithium plate base, two layers of electrode separated by a thin sheet of porous carbon, and a titanium gauze mesh that played host to a dye-sensitive titanium dioxide photoelectrode.

The reasoning behind the porous nature of the materials was to allow the battery's ions to oxidize into lithium peroxide, which was in turn chemically decomposed into lithium ions and stored as lithium metal. But the team has redesigned the battery so that air no longer needs to pass through it in order to function.

In the original version, the researchers used a more conventional liquid electrolyte consisting of part salt and part solvent (perchlorate mixed with organic solvent dimethyl sulfoxide, to be precise). This has been replaced with water as the solvent and lithium iodide as the salt, which offers low-cost, high-energy storage capabilities. The result is a water-based electrolyte and a prototype battery now classed as an aqueous flow battery – or as the researchers call it, the first "aqueous solar flow battery".

As it no longer requires air to function, the battery can now be topped with a solid solar panel forming a single solid sheet. This still bears the dye-sensitized solar cells of the original, in which the researchers use a red dye called ruthenium to tune the wavelength of the light it captures.

Looking to compare the new design's performance to a typical lithium-iodine battery, the researchers ran tests which involved charging and discharging them 25 times. With each discharge, the batteries released around 3.3 volts. But where the solar flow battery had an advantage was the charge required to reach this output. Where the typical battery was charged to 3.6 volts and discharged 3.3 volts, the solar flow battery only needed to be charged to 2.9 volts with the solar panel making up the difference, which equates to almost 20 percent.

The researchers say that the design of the battery is likely to undergo further refinement to make it more efficient and they're hopeful it could one day evolve into a practical solution for the renewable energy sector.

"This solar flow battery design can potentially be applied for grid-scale solar energy conversion and storage, as well as producing 'electrolyte fuels' that might be used to power future electric vehicles," says Mingzhe Yu, lead author of the paper and a doctoral student at Ohio State.

The research will published in the Journal of the American Chemical Society.

Source: Ohio State University
 
http://www.geek.com/chips/forgetful-scientists-accidentally-quadruple-lithium-ion-battery-lifespan-1631273/


"Rather than discarding this forgotten batch, they decided to test it by building batteries using these particles. It turns out they have potentially solved the problem of using aluminum for the anodes in the battery. The extra long soak meant the anodes did not expand and contract, in fact they created a battery that over 500 charge/discharge cycles retained up to four-times the capacity of the equivalent graphite anode batteries. These batteries last considerably longer in terms of usable lifespan and, according to MIT, can hold up to three-times the energy."
 
maydaverave said:
http://www.geek.com/chips/forgetful-scientists-accidentally-quadruple-lithium-ion-battery-lifespan-1631273/


"Rather than discarding this forgotten batch, they decided to test it by building batteries using these particles. It turns out they have potentially solved the problem of using aluminum for the anodes in the battery. The extra long soak meant the anodes did not expand and contract, in fact they created a battery that over 500 charge/discharge cycles retained up to four-times the capacity of the equivalent graphite anode batteries. These batteries last considerably longer in terms of usable lifespan and, according to MIT, can hold up to three-times the energy."
Wow, all these articles over the last week have been pretty exciting but your one tops the lot I think. Especially in terms of seeing it somewhat soon in the real world.
But I love super capacitor breakthroughs as well I think because caps are the closest thing metaphorically to merely having bucket and filling it with electrons and having the buggers actually sit there until you need them, you simply can't argue with the beauty of that..
The x4 times recharge cycle breakthrough news came out on my birthday as well, I don't think that's a coincidence.. so happy birthday news to me. :lol:
 
TheBeastie said:
maydaverave said:
http://www.geek.com/chips/forgetful-scientists-accidentally-quadruple-lithium-ion-battery-lifespan-1631273/


"Rather than discarding this forgotten batch, they decided to test it by building batteries using these particles. It turns out they have potentially solved the problem of using aluminum for the anodes in the battery. The extra long soak meant the anodes did not expand and contract, in fact they created a battery that over 500 charge/discharge cycles retained up to four-times the capacity of the equivalent graphite anode batteries. These batteries last considerably longer in terms of usable lifespan and, according to MIT, can hold up to three-times the energy."
Wow, all these articles over the last week have been pretty exciting but your one tops the lot I think. Especially in terms of seeing it somewhat soon in the real world.
But I love super capacitor breakthroughs as well I think because caps are the closest thing metaphorically to merely having bucket and filling it with electrons and having the buggers actually sit there until you need them, you simply can't argue with the beauty of that..
The x4 times recharge cycle breakthrough news came out on my birthday as well, I don't think that's a coincidence.. so happy birthday news to me. :lol:
Happy birthday definitely a good omen. It would be cool if it was a breakthrough they could easily add to existing factories. Apple pie tomorrow is great but apple pie today is best.
 
Sounds pretty good, doubt we will see these batteries anytime soon though, we are a consumer society. A battery that has tens of thousands of cycles makes no economical sense. Unless its sold at an insane price keeping it out of mainstream for decades. Nasa and space x might get to use them :)
 
Jestronix said:
Sounds pretty good, doubt we will see these batteries anytime soon though, we are a consumer society. A battery that has tens of thousands of cycles makes no economical sense. Unless its sold at an insane price keeping it out of mainstream for decades. Nasa and space x might get to use them :)

You think too small.
We now put batteries in devices, and slap a warranty on them. When you're covering a claim of something to last 3-5-8-10 years, you want the battery to last. Especially if they are non-replaceable, or expensive to replace. A car company would save thousands in not replacing batteries under warranty.

However, you are correct that you will not see these in your TV remote.
 
Recommended reading:

"Rechargeable batteries with almost indefinite lifetimes coming, say MIT-Samsung engineers"
http://www.kurzweilai.net/rechargeable-batteries-with-almost-indefinite-lifetimes-coming-say-mit-samsung-engineers
 
http://www.sciencealert.com/this-transparent-lithium-ion-battery-charges-itself-with-sunlight

This transparent lithium-ion battery charges itself with sunlight

Researchers in Japan have invented a rechargeable lithium-ion battery that can charge itself using sunlight - no solar cell required.

The working prototype was demonstrated at the Innovation Japan 2015 trade show last month in Tokyo, and the team behind it hopes to see the technology integrated into a ‘smart window’ that can act as both a large rechargeable battery and a photovoltaic cell all at once.

The team, led by Mitsunobu Sato, professor at the Department of Applied Physics at Kogakuin University in Japan, announced the development of this device back in 2013. They’ve since been working towards a battery-integrated window that can store energy from sunlight while also changing its structure automatically to provide a tint during the day.

According to Bob Yirka at techxplore, when the battery is exposed to sunlight, it becomes tinted to about 30 percent light transmittance, and this allows the energy to be captured more efficiently.

"The trick in getting them to be nearly transparent is in making them really thin - the electrodes are just 80 nm and 90 nm," says Yirka. "After discharge, the team reports that light transmittance rises to approximately 60 percent."

How did they make the electrodes so thin? Back in 2013, the main component of the electrolyte for the battery's positive electrode was lithium iron phosphate, and for the electrolyte used for the negative electrode, they used lithium titanate and lithium hexafluorophosphate - both of which are commonly used in rechargeable lithium-ion batteries.

For the prototype that was put on display in Tokyo last month, they altered the transparent oxides used for the negative electrode to achieve incredibly thin, transparent electrodes. While they’re yet to publish details on what these changes were, they were able to facilitate charging via sunlight or other bright sources of illumination.

In testing, the team reports an output from the battery of 3.6 volts, and say they managed to successfully complete 20 charge/discharge cycles.

While the prospect of smart windows is what's got Sato and his team excited, another possibility for the technology is self-charging smartphone screens made from transparent lithium-ion batteries. They'll just have to compete with these guys from Michigan State University in the US, who are working on something very similar.
 
LockH said:
"World's first "aqueous solar flow battery" outperforms traditional lithium-iodine batteries"
http://www.gizmag.com/aqueous-solar-flow-battery-osu/38748/
The scientists that revealed the "world's first solar battery" last year are now

And now "The 2015 $500,000 Lemelson-MIT Prize has gone to Jay Whitacre for his invention of the Aqueous Hybrid Ion (AHI) battery."
http://inhabitat.com/jay-whitacre-t...saltwater-battery/aquion-saltwater-battery-1/
 
LockH said:
LockH said:
"World's first "aqueous solar flow battery" outperforms traditional lithium-iodine batteries"
http://www.gizmag.com/aqueous-solar-flow-battery-osu/38748/
The scientists that revealed the "world's first solar battery" last year are now

And now "The 2015 $500,000 Lemelson-MIT Prize has gone to Jay Whitacre for his invention of the Aqueous Hybrid Ion (AHI) battery."
http://inhabitat.com/jay-whitacre-t...saltwater-battery/aquion-saltwater-battery-1/
Yeah wow, never heard of the Aqueous Hybrid Ion (AHI) battery until now (or maybe just forgot).
I wonder if this technology is the go compared to Teslas home power systems.... Sounds like the AHI battery is more sustainable in the long term environment point of view. Sounds cheap to produce as well. here are some links for those who are interested... says it can do 5000 cycles with little degradation by looks, has a youtube video..
http://www.aquionenergy.com/energy-storage-technology
https://www.youtube.com/watch?t=118&v=aANBtotnsLI
https://en.wikipedia.org/wiki/Aquion_Energy

Watching this youtube video below he talks about the same price point as Lead Acid but 5 to 10 times the amount of battery cycles (and of course less nasty pollutants at the end of its life.)
https://www.youtube.com/watch?v=IfQc7lPPtsE

It makes sense that home batteries don't need to be compact and light as they are for a car. I remember years ago seeing the basic construction of a capacitor made from kitchen/home products which was 2 long sheets of aluminum foil rolled between a grad-wrap thin plastic (as the dielectric) and kind of fascinated at the amount of energy that could be stored in it and thought what if we made one out of the same simple materials but made it the size of a water tank for the average home it would still work, still not enough storage in watts to be commercially practical but you would at least get a million plus cycles out of it, but it seems this guy with AHI has taken the size doesn't really matter idea to a commercial/practical level.
Talks here about the energy density http://enipedia.tudelft.nl/wiki/Aquion_Saltwater_(AHI)_batteries

http://www.businesswire.com/news/home/20150915005538/en/Inventor-Creates-Mass-Produced-Low-Cost-Eco-Friendly-Battery-Awarded#.Vf5uZ9Wqqko
 
Bosch claims they will commercialize 400 watt hour per kilogram solid state batteries at half the price of todays batteries by 2020
http://nextbigfuture.com/2015/09/bosch-claims-they-will-commercialize.html
German company Bosch acquired California Battery startup Seeo.

Seeo submitted batteries for official testing late last year, claiming an energy density of 220 watt-hours per kilogram. CEO Hal Zarem told GigaOm's Katie Fehrenbacher that the company had "started working on a second-generation battery" which will have an energy density of 400 watt-hours per kilogram, claiming that the company's current batteries were at 300 watt-hours per kilogram. (Keep that "400" number in mind.) The second-generation Li-ion batteries use polymer solid-state electrolytes and metallic lithium anodes.

Here's a guide to gravimetric energy density:
117 watt-hours per kilogram: The level Tesla and Panasonic were achieving in 2008 for the Roadster
200 watt-hours per kilogram: The level Sonny Wu, Boston-Power's CEO, says the company is achieving today
250 watt-hours per kilogram: The approximate energy density of the batteries in the Tesla S
400 watt-hours per kilogram: According to Tesla's Elon Musk, the concept of battery-powered transcontinental airplanes becomes “compelling” once batteries hit 400 watt-hours per kilogram
400 watt-hours per kilogram: The level that battery aspirant and ARPA-E grant recipient Envia claimed it could achieve

The Seeo battery operates at a temperature of 178 degrees Fahrenheit. It may not need a cooling system but it definitely needs a heating system. At least it will if it is going to be used in electric vehicles. Bosch obviously believes it can overcome that obstacle and make the new battery commercially viable; we won’t know if that is true for several years.

SOURCES - Ecomento, Greentechmedia
seeobattery.png
 
This work looks pretty solid, looks like they know what there doing, probably a while away before commercial appearance though..

Angela Belcher programs a Virus To Grow A High Powered Battery, Professor at the Department of Material Science and Engineering and Department of Biological Engineering at the Massachusetts Institute of Technology (MIT) is using nature to grow batteries!

http://interestingengineering.com/angela-belcher-programs-a-virus-to-grow-a-high-powered-battery/
 
http://english.chosun.com/site/data/html_dir/2015/09/24/2015092401020.html

LG Chem to Build EV Battery Plant in Europe

LG Chem will build a plant to produce batteries for electric vehicles in Europe.

The company on Wednesday said that it decided to build an electric car battery plant with an annual production capacity of 50,000 batteries in Europe and is looking for a suitable site.

The most likely location is in Wroclaw in Poland, where LG Electronics, LG Display and LG Innotek have their branches.

LG Chem has a plant here with an annual production capacity of 200,000 batteries in Ochang, North Chungcheong Province and another overseas with an annual production capacity of 50,000 batteries in Holland, Michigan.

It is also building a factory in Nanjing, China, which is scheduled to be completed by the end of this year. The plant will produce 100,000 batteries annually starting next year.

A company spokesman said, "A factory in Europe will help us reduce logistics costs and increase supplies to the European market."

Dunno if this qualifies as a "new battery breakthrough"?
 
LockH said:
Dunno if this qualifies as a "new battery breakthrough"?
It could be a confirmation that LG Chem has a breakthrough technology ready for the market (it announced 50 and 100 kWh batteries for car within 2018).
 
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