Showing posts with label Electric Vehicles. Show all posts
Showing posts with label Electric Vehicles. Show all posts

Saturday, September 3, 2022

Graphene Aluminum Ion Battery


GAME CHANGING Graphene Aluminum Ion Battery w/ Craig Nicol
Aug 4, 2022  Lithium-ion batteries are great, but the Graphene Manufacturing Group is developing some very impressive Graphene Aluminum-Ion batteries that could be the NEXT BIG STEP CHANGE in battery technology! In this video GMG's CEO Craig Nicol explains this amazing new battery tech and the proprietary technology that could very well make it viable for EVs in the coming near future.



Ultrafast all-climate aluminum-graphene battery with quarter-million cycle life


Right now there is a competition between Battery vs Hydrogen , this for the the Global Win, who will replace gasoline?

What interesting is GMG has a foot in both camps, by using the Hazar process , they are producing battery components while making hydrogen fuel. 

Friday, October 9, 2020

Four (4) startups working on EV batteries in India

Business World India outline some EV startups that the Indian government is throwing money into.

Aqueouss: Aqueouss came into existence in the year 2016. They have the reputation of being one of the leading manufacturers and exporters of a high-quality range of Li-ion batteries and LifeP04 batteries. ..

Grinntech: Founded in 2018, Grinntech works on Lithium-ion cells to pack technology and supplies Li-ion battery packs for multiple EV applications. ..

ION Energy: Founded in 2016 by a team of Ph.D. Engineers from Stanford, Penn State and IIT with decades of experience in advanced electronics and battery systems. ..

Lohum Cleantech Private Limited: Established in the year 2018, “Lohum Cleantech Private Limited” is a leading manufacturer of a wide range of Lithium-ion batteries, power banks, Lithium-Ion cells and Lithium-Ion battery charger. ..


Start-Ups Working On Battery Technology For EV Sector
http://bwdisrupt.businessworld.in/article/Start-Ups-Working-On-Battery-Technology-For-EV-Sector/09-10-2020-329646/
9 Oct 2020


Sunday, November 16, 2014

Gigafactory sequel? California lobbies Elon Musk for second Tesla battery megaplant

http://www.bizjournals.com/sanjose/news/2014/09/23/gigafactory-sequel-california-lobbies-elon-musk.html

"""
Tesla Motors Inc.'s home state of California already saw the electric
car company's initial, hysteria-inducing $5 billion Gigafactory
project go to a lower-cost competitor after Nevada's $1.25 billion
incentive offer.

But Golden State lawmakers aren't giving up on the lure of several
thousand high-tech manufacturing jobs that easily.
"""

Thursday, April 3, 2014

RCS System Achieves Wirelsss Charging for AGV !! B&PLUS



http://www.b-plus-kk.com/newspdf/RS_Compact12_BNBe.pdf

B&PLUS K.K.
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Facebook: http://www.facebook.com/BplusUsaInc.

Aluminium-air battery can power electric vehicles for 1,000 miles, will come to production cars in 2017

http://www.extremetech.com/extreme/151801-aluminium-air-battery-can-power-electric-vehicles-for-1000-miles-will-come-to-production-cars-in-2017

Phinergy, an Israeli startup, has demonstrated an aluminium-air battery that is capable of powering an electric vehicle for up to 1,000 miles (1,609km). Unlike other metal-air batteries that we’ve written about in the past, such as IBM’s lithium-air battery, Phinergy’s Al-air battery actually consumes aluminium as a fuel, allowing for an energy density that far surpasses conventional battery technologies and even begins to rival gas and diesel. Phinergy says it has signed a contract with a global automaker for “production volumes” of the battery, starting in 2017.
Metal-air batteries aren’t a new idea. Zinc-air is a very well understood battery chemistry that is used in hearing aids, and potentially in other biological implants. IBM is busy working on a lithium-air battery that, like Phinergy’s battery, is also targeted at long-range electric vehicles. In recent months, it has emerged that sodium-air might also be a viable battery chemistry. In all three cases, it is the air component that makes these batteries so desirable. In a conventional battery, the chemical reaction is entirely internal, which is why batteries tend to be very dense and heavy. In a metal-air battery, energy is produced by the oxidization of a metal — lithium, zinc, aluminium — with the oxygen coming from the air around us, rather than being stored in the battery, resulting in a much lighter battery.
A diagram of the aluminium-air battery chemistry
Phinergy’s Al-air battery is novel for two reasons: First, the company seems to have found a way of preventing carbon dioxide causing corrosion damage to the aluminium. Second, the battery actually consumes the aluminium as a fuel, slowly turning the aluminium into aluminium oxide. Phinergy’s prototype Al-air battery has 50 aluminium plates, with each plate providing enough fuel for 20 miles. After 1,000 miles, the plates must be mechanically recharged — a euphemistic way of saying that the plates must be physically switched out. The Al-air battery must also be refilled with water every 200 miles, to replenish the electrolyte.
Depending on your point of view, mechanical recharging is both awesome and awful. On the one hand, you can give your car another 1,000 miles of range just by slotting in a new battery; on the other hand, buying a new battery every 1,000 miles sounds like very poor overall economy. Ultimately, it will probably come down to the price of the battery. At today’s market rate, a kilo of aluminium costs $2, and one pack of 50 plates weighs 25kg — so, ignoring labor costs, it would cost $50 to refill your Al-air battery. $50 to travel 1,000 miles is really rather good — at $4 per gallon of gas, that’s an equivalent of around 90 mpg. The aluminium oxide can be recycled back into aluminium, too, though it isn’t a particularly cheap or easy process.
For now, though, it seems like Phinergy is using its Al-air battery as a range extender, with a standard lithium battery as the primary energy source. In the video below, a Citroen C1 has been outfitted with a small lithium-ion battery that can power the car for a few dozen miles — and then an Al-air battery in the trunk that acts a range extender, feeding power to the Li-ion battery. Phinergy tells Green Car Reports that it has signed a contract with a global automaker to bring its Al-air battery to production cars in 2017, though it isn’t clear if the batteries will be used as a range extender, or as the primary power source. Presumably, though, the automaker will bundle the car with a monthly supply of aluminium plates, shipped to your doorstep.

Sunday, March 30, 2014

A meme that is derailing transition to renewable energy.

Alex Lightman Said:
One pernicious meme that is derailing the essential and overdue transition to renewable energy is the notion that driving an electric car doesn't matter because the electricity might come from a coal fired plant. That's like saying, from 1976 to 2011, that there's no reason to buy a personal computer because you don't have iCloud.

Once you get an electric car, one part of a system is in place, and then you become part of a movement to seek cleaner utility power and local solar/wind charging. You don't have to have the entire system (what Geoffrey Moore called the "whole product") transitioned to by the entire world in a day. You do what's possible as a component, and encourage others to do the same, and seek out Makers who can help you be cleaner, greener, and more self-sufficient all the time. There are plenty of people who charge their electric cars from their own solar cells on their own home.

Sunday, February 17, 2013

Chinese firm gets OK to buy failed U.S. battery maker A123

Chinese firm gets OK to buy failed U.S. battery maker

http://www.cbsnews.com/8301-202_162-57566519/chinese-firm-gets-ok-to-buy-failed-u.s-battery-maker/

These batteries are a vital industry in the immediate future. Letting this leave our shores will be a trillion dollar mistake. This isn't about this one company but the future of robotics and all vehicles. Not just cars but trucks, busses, trains and planes. UAVs and self driving autonomous systems of all forms depend on high density batteries.

Saturday, July 7, 2012

Japanese group transmits electricity through 4-inch concrete block, could power cars on roads

From: http://www.engadget.com/2012/07/07/wireless-power-through-4-inch-concrete/?icid=eng_latest_art

Japanese group transmits electricity through 4-inch concrete block, could power cars on roads

Japanese group transmits electricity through 4inch concrete block, demonstrates potential for powering cars on roads
The decision to invest in an electric vehicle would be much easier to justify if the car in question offered unlimited range. That appears to be the concept behind a Toyohashi University research group's wireless power prototype, which can successfully transmit electricity through a 10 centimeter-thick concrete block. During a demonstration in Yokohama, Japan, the team sent between 50 and 60 watts of power through a pair of concrete blocks to two tires, which then juiced up a light bulb (you can see the rig just above). The project is called EVER (Electric Vehicle on Electrified Roadway), and could someday be used to keep cars moving along a highway without any need to pull over for a recharge, thanks to a constant stream of electricity coming from below the road. There are some serious obstacles to overcome before EVER can get some wheels turning -- namely, a need to pump nearly 100 times the current maximum load through concrete that's twice as thick as what they've managed today, not to mention improving undisclosed efficiency levels -- but the group reportedly said that it's up to the task, making us fairly optimistic that such a solution could one day get us from A to B without petrol. Until then, you'll probably want to plan out a pit stop or two before you leave the garage.

Wednesday, June 20, 2012

ANSYS Making Electric Vehicle Batteries More Practical And Efficient

http://www.virtualpressoffice.com:80/publicsiteContentFileAccess/860581/860581.html/?fileContentId=860581&fileName=860581.html&fromOtherPageToDisableHistory=Y
PITTSBURGH, June 20, 2012 /PRNewswire/ -- One year into a U.S. Department of Energy (DOE) funded project, ANSYS (NASDAQ: ANSS), General Motors LLC, the National Renewable Energy Laboratory (NREL) and ESim are leveraging engineering simulation technology to optimize electric and hybrid vehicle battery performance. The team achieved significant milestones during the past year in support of the DOE's Computer Aided Engineering for Electric Drive Vehicle Batteries (CAEBAT) project.
(Logo: http://photos.prnewswire.com/prnh/20110127/MM38081LOGO )
GM awarded ANSYS a subcontract to develop battery software tools that will help accelerate development of next-generation electric vehicles (EV). The project is a result of a competitive procurement through the DOE's NREL that was presented to GM last year (http://www.nrel.gov/news/press/2011/1472.html).
The main goal of the CAEBAT project is to incorporate existing and new battery models into engineering simulation software to shorten design cycles and optimize batteries for increased performance, safety and life span. The project is driving EV innovation.
The GM-ANSYS-ESim team's achievements over the past year include prototyping and validating three electrochemistry modeling approaches. The partners also prototyped a co-simulation feature, which blends battery multiphysics and system simulation technologies that enable engineers to shed unnecessary details and increase simulation efficiency without compromising the accuracy of the model.
"Traditionally, the EV battery industry depends mostly on the expensive and time-consuming process of design-build-test-break for prototyping and manufacturing these batteries," said Jan Aase, director of the vehicle development research lab at GM Global R&D. "However, the virtual development of engineered products has proven to be an effective way of evaluating many design alternatives. This specific team was selected because of their individual track records of success in their respective fields for providing reliable technologies that lead to efficient products."
The team is leveraging NREL's considerable experience in multiphysics, multi-scale modeling of lithium-ion battery systems. The resulting design tools will be made commercially available through ANSYS. GM plans to validate and apply the model to its electric vehicles in development.
"ANSYS is well known for providing reliable simulation technology to enable sustainable design across a wide range of industries, including automotive," said Sandeep Sovani, manager of global automotive strategy at ANSYS. "The recent demands from customers to make vehicles more practical coupled with government regulations are creating unprecedented innovation within the auto industry. ANSYS is proud to be at the forefront of this innovation surge by developing software tools that will accelerate the production of safe, reliable, high-performance and long-lasting lithium-ion batteries for EVs and make vehicles more fuel efficient and sustainable."
NREL expects that the resulting systems will become commercial offerings in about two years. This initiative is funded by DOE's Vehicle Technologies Program in the Office of Energy Efficiency and Renewable Energy.
About ANSYS, Inc.
ANSYS brings clarity and insight to customers' most complex design challenges through fast, accurate and reliable engineering simulation. Our technology enables organizations ― no matter their industry ― to predict with confidence that their products will thrive in the real world. Customers trust our software to help ensure product integrity and drive business success through innovation. Founded in 1970, ANSYS employs more than 2,200 professionals, many of them expert in engineering fields such as finite element analysis, computational fluid dynamics, electronics and electromagnetics, and design optimization. Headquartered south of Pittsburgh, U.S.A., ANSYS has more than 65 strategic sales locations throughout the world with a network of channel partners in 40+ countries. Visit www.ansys.com for more information.
ANSYS-G

Friday, March 9, 2012

Fisker Karma Dies During Road Test - ABC News

http://abcnews.go.com/m/story?id=15885837

The government-backed electric car maker Fisker Automotive  a California-based car company
 has encountered its share of speed bumps financially -- announcing in recent weeks that it would have to lay off some workers and suspend work on a more affordable electric-gas hybrid version of its new luxury sports sedan, the Karma.

But since unveiling the $107,000 Fisker Karma, the car conceptualized by legendary designer Henrik Fisker, the sleek and quiet vehicle has received mostly rave reviews from auto experts, enthusiasts, and several of those who have bought the 2,000 cars that have so far come off the line.

Wednesday, November 9, 2011

Wednesday, July 20, 2011

Wireless Electricity Is Here: And It's Being Used to Charge Cars

http://www.energyandcapital.com/articles/wireless-electricity-is-here/1656

Ultra Luxury
Rolls-Royce's flagship model, the Phantom, is going all electric.

A company that exclusively caters to high-net-worth individuals is preparing its clientele for the end of oil (and the end of the internal combustion engine) as we know it.

The reasons for buying those cars are much different, with marketing aimed more toward environmentalism, climate change, and high gas prices.
The impetus behind an electric Rolls is different. It's about foresight. It's about remaining elite.

 Rolls-Royce is making an all-electric car so its well-off and boastful owners can still park it outside swanky Soho clubs long after gas engines are banned in bustling boroughs.

Sunday, June 5, 2011

Integrating Capacitors Into Car Frames

From Slashdot: Integrating Capacitors Into Car Frames
"It has long been recognized that adding capacitors in parallel with batteries can improve the performance of hybrid and electric vehicles by accepting and supplying spikes of power, which reduces stress on the battery pack, extending range and improving cycle life. The challenge has been figuring out where to put them, when batteries already compete for space. A new research prototype from Imperial College London has integrated them into the body panels and structural frame of the vehicle itself. In their prototype, carbon fiber serves as both the structure for the vehicle and electrode for the energy storage sandwiched within."

Friday, March 25, 2011

Styrofoam to create incredibly fast-charging batteries

From Engadget: Styrofoam touches electrodes to create incredibly fast-charging wonderbatteries

Elon Musk's heart may have already given up on the humble battery, lusting after capacitors, but researchers at the University of Illinois have think there's life in the 'ol cells yet, creating batteries that charge and discharge in seconds. They've found a way to create electrodes using polystyrene beads as a sort of substrate, tiny spheres helping to set the porosity of either the nickel-metal hydride or lithium-manganese capacitor material. By adjusting the size and density of the bean bag innards the team was able to create an electrode porosity of 94 percent, which is just a few ticks short of theoretically ideal for exposing the maximum surface area of the electrode to the battery material. This results in extremely fast charges and discharges, the NiMH cell hitting 90 percent capacity in just 20 seconds and discharging in as quickly as 2.7 seconds. While we don't know just what kind of charging system the team was using to achieve this, even assuming a high-amperage stream of electrons this is still a remarkable feat. But, like most major advances there's a drawback: similar to Toshiba's SCiB batts the capacity of these cells is only about three quarters what it would be using normal battery construction, meaning you'd need roughly 25 percent more mass to get the same range in your ultra-fast charging EV of the future. That might just be a worthy trade-off.
ars technica
sourceNature Nanotechnology, University of Illinois