A team from Cornell Engineering University, in the United States, is innovating in the field of batteries for electric vehicles, presenting a lithium battery capable of being charged in less than five minutes. This advancement represents a promising solution to the “range anxiety” often experienced by electric vehicle drivers.
The group, led by Professor Lynden Archer, has identified an indium anode material that, when combined effectively with other materials, results in a fast-charging battery that maintains stable performance during extended charge and discharge cycles. Indium, known for its unique properties in industry, is now being applied in the development of batteries for electric cars.
The ability to charge a battery in less than five minutes could have a transformative impact on the electric vehicle market. This innovation means that it will no longer be necessary to equip vehicles with large batteries to achieve a considerable range of 480 kilometers. With such fast charging times, electric vehicles can be equipped with smaller batteries, reducing costs and making electric transport more accessible to a wider audience.
- Company launches the smallest and most POWERFUL electric bike motor in history — It's smaller than an iPhone and weighs just 1,2 kg
- Toyota promises to change the game with the Japanese company's new 2.0 turbo engine that will have three power outputs: 300, 400 and even 600 hp
- Are you buying a used car? This Nissan model could be the ideal one for you! Meet the Nissan Versa Unique, a car with a 1.6 engine, 111 hp and very economical, getting an average of 14,4 km/L!
- No Volkswagen, Toyota or BYD: Brazil's most modern automotive factory belongs to the company that is often overlooked by Brazilians
Challenges involving the new battery for electric vehicles
Despite exciting advances, a significant challenge is Indian weight. To address this issue, researchers are exploring computational chemical modeling, including the use of artificial intelligence (AI) tools, to develop lighter materials that maintain fast charging and long-term storage characteristics. The objective is to find solutions that strike a balance between efficiency and practicality.
Professor Lynden Archer points out that there is a general principle at work, allowing anyone to design a more efficient battery anode, surpassing the charge rates of existing technologies. This advancement not only represents a solution to “range anxiety,” but also opens the door to a revolution in electric vehicle battery design.