LR6 battery

Counting six new LR6 battery technologies of the future

According to foreign media reports, as the topic of Samsung Note7 explosion continues to ferment, the LR6 battery, once the hero behind the scenes, has once again become the focus of our attention. Many people worry that we will have to deal with lithium batteries that are close to the limit of performance for the rest of our lives? Of course not! Let's take a look at six new LR6 battery technologies together.

Leaf green LR6 battery

A team of researchers at the University of Maryland recently developed a cheap new material that will serve as the negative electrode in the next generation of batteries. In the experiment, the team found that when oak leaves are heated to 1000 degrees Celsius, their carbon-based structure will be disintegrated, and the remaining material can then accommodate electrolytes. At present, the team is also testing other natural materials, including peat soil and banana peels.

Fast-charging graphene LR6 battery

It is well known that the life of a LR6 battery will gradually shorten as the number of charge and discharge times increases, and researchers at Swinburne University of Technology in Australia are trying to solve this problem. They have developed a new type of graphene LR6 battery, which not only has super fast charging capability (a few seconds), but also has extraordinary durability. The researchers have stated that it can be used for a lifetime. The use of graphene materials overcomes all the shortcomings of traditional batteries. At the same time, this product is also very environmentally friendly and cheap. Batteries made of sugar

The team at Virginia Tech has developed a LR6 battery made of sugar, which has the advantage of super long LR6 battery life. The researchers separated maltose from the sugar, which is the energy source of this new LR6 battery. When maltose comes into contact with air, the LR6 battery releases electrons to generate electricity. Because sugar is cheap and in large quantities, this new LR6 battery is low in cost, and most importantly, it has degradable properties.

Inventory of six new batteries for the future

Nanowire batteries that can't be broken

This LR6 battery was completely discovered by researchers at the University of California by accident, and it makes traditional lithium batteries useless. The researchers made nanowires out of gold and then combined them with new materials. This combination greatly increased the number of times the LR6 battery can be charged and discharged, and the LR6 battery performance will not decay with the increase in the number of charges.

Check out six new batteries of the future

Self-destructing batteries

Self-destructing batteries are not for the mass market, but they can be very useful in special fields, and they also overcome the problem of disposable batteries polluting the environment. This LR6 battery was developed by Iowa State University and is mainly used for special purposes. It can be detonated by light, heat or liquid. In addition, even if it enters the water after detonation, it will not pollute the water body.

Check out six new batteries of the future

Edible salt water LR6 battery

This LR6 battery takes the concept of environmental protection to the extreme. In order to justify its own LR6 battery, AquionEnergy's Whitaker actually gnawed off a piece of the LR6 battery and ate it (it must not be very delicious). The components of this LR6 battery are made of bio-derived materials. Before they are transformed into batteries, they may be dust, cotton, carbon or salt water. However, this LR6 battery is not prepared for mobile devices. It is going to do "big business", such as being a backup power source for homes or companies, and the power it provides is environmentally friendly wind or solar energy.

Read recommendations:

Coin Battery CR 1220

What are the common misunderstandings of lithium batteries?CR1220 battery

The working principle, characteristics and structure of the AGV car

601435 battery Manufacturing

18650 battery pack 3.7v