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What’s next for the electric car? Wireless power, lithium-air batteries and more - lithium air battery

What’s next for the electric car? Wireless power, lithium-air batteries and more  -  lithium air battery

The first generation of electric vehicles came out at the beginning of the last century, but gradually died out because the battery could not compete with the gas tank.
Over the past decade, the second generation has been led primarily by Tesla, but although the batteries have improved significantly over the past century, they are still limiting factors.
At the same time, the economy of gasoline cars has also improved significantly, which makes the competition for electric cars more intense than those of gasoline cars decades ago.
While the third generation of electrical will bring some improvement, the most important improvement will solve the pressing problem of electricity.
There are many technologies that can eventually refuel electric vehicles, either alone or together --
Electric cars outside the venue.
Inductive charging allows the device (whether it's a smartphone or an electric car) to be charged without a physical connection to the power supply.
Interestingly, Nissan and Infiniti will take the lead in launching the car, although since its launch in 2003, Tesla has been in the lead in almost every other aspect of electric vehicles.
(This is particularly unusual because the first demonstration of this technology in a car was done with a Tesla sports car, but apparently there was no interest in Tesla.
) Qualcomm has launched an induction charging product called Halo, designed for parking points and interstate highways.
It needs to be up close but does not require contact, which is still a huge improvement compared to having to actually plug in the car.
Part of the reason for the improvement is that the equipment may be completely buried, which makes it harder to damage a broken or inexperienced driver.
In most cases, all you have to do is park, and any electricity your car consumes is either free of charge (as a motivation to park you there, a shopping mall or retailer may do so) or, no matter what you consume, you will receive the bill at the end of the month.
Unless the technology is installed on the road, as Qualcomm is promoting, it won't solve the battery problem
However, this will reduce the related issues and make the charges more transparent and reliable.
However, a standard conflict can pose a problem (which is already plaguing the electric car industry) which may mean that you have to look for a parking space that your car can use
Street solutions won't work
That could be the reason for Tesla.
Now that Tesla has a unique local charging system that is much faster than the standards implemented, I expect it would initially want to do the same for the inductive charger.
IBM and others are working on a promising technology called lithium air, which is close to the energy density of the gas tank.
In the past few years, significant progress has been made in metallurgy, creating a lithium-based battery
Air technology is feasible in ten years.
If you can have the same energy capacity in a battery that only needs the same size as the gas tank and put it in a large battery pack of Tesla S, you might have expanded the range of that car to four times.
Within 1,000 miles, you don't have to worry too much about the charger.
More likely, engineers will only use smaller batteries, eventually making the car lighter and cheaper.
Plus the more popular charger, this will be the changer for electric games
More than gasoline represents the potential for energy efficiency.
Super capacitors and super capacitors are alternatives to batteries that have actually been implemented on commercial vehicles.
Capacitors are solid state, they have almost infinite cycle life and they can charge and discharge thousands of times faster than lithium
There is no damaged ion battery.
To some extent, the capacitor is a normal battery, what is the flash memory compared to the hard disk.
Initially, the performance of flash was much better, but much more expensive than magnetic media.
Even the ipod originally had a hard drive.
But with the price of flash memory falling, it takes up more and more markets, and now the magnetic drives are phasing out.
Unfortunately, the capacitor is still at the beginning of this shift.
Now, they are very expensive and lose charge over time, and their energy density is very low even compared to the battery.
It's almost impossible for them.
Short-term solution, but like flash, prices are expected to drop significantly, energy density should increase, self-
The emission rate (probably the biggest problem) will increase.
Over time, they can solve the battery problem together.
However, they are already used in a hybrid configuration where you can quickly charge the capacitor, like in a few minutes, and then charge the battery while you're driving.
It's a fascinating technique and I don't think people are looking at it carefully enough.
I am not referring to Tesla, but to Tesla.
Until his mysterious and premature death (apparently related to the mysterious death ray), he has been studying the power of broadcasting.
Intel and other companies have made great progress in this area recently, but they are still a few years away from using this technology for personal electronics, and decades away from using it for cars.
But once developed, it will always eliminate the problem of the battery and we will live in a world of electricity.
Of course, there are some health issues that need to be overcome: Although the idea of glowing in the dark may be cool, we need to bypass the "death ray" section.
In any case, I think broadcasting power will herald the ultimate, lasting generation of electric vehicles.
If we moved somewhere else after that, it wouldn't be electric, and most of us probably wouldn't be nearby.
Post what is the next step for electric vehicles?
Wireless power, lithium battery
For the first time in digital trends such as air batteries.

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