The race is on to generate new technologies to ready the battery industry for the transition toward a future with more renewable energy. In this competitive landscape, it’s hard to say which companies and solutions will come out on top.
Corporations and universities are rushing to develop new manufacturing processes to cut the cost and reduce the environmental impact of building batteries worldwide. They are working to develop new approaches to building both cathodes and anodes—the negatively and positively charged components of batteries—and even using different ions to hold charge. While we can't look at every technology that's in development, we can look at a few to give you a sense of the problems people are trying to solve.
The California-based company Sylvatex has developed a water-free, efficient process for manufacturing cathode active material (CAM). “This process innovation reduces the total cost of CAM by 25 percent, while using 80 percent less energy and eliminating water use and sodium sulfate waste streams,” said Virginia Klausmeier, CEO and founder of Sylvatex.
Apple wants batteries for its latest generation of iPhones to be made in India, as part of the US tech giant’s efforts to diversify its global supply chain and move manufacturing out of China.
The world’s most valuable company has informed component suppliers of its preference to source batteries for the forthcoming iPhone 16 from Indian factories, according to two people close to Apple.
Battery manufacturers, such as Desay of China, have been encouraged to establish new factories in India, while Simplo Technology, a Taiwanese battery supplier for Apple, has been asked to scale up production in India for future orders, said three people familiar with the situation.
Objectively speaking, a battery-electric vehicle provides a superior driving experience in cold and inclement weather to its internal combustion engine-powered counterparts—for numerous reasons. Comfort, control, even durability benefits come along for the cold ride. Let me explain.
First, actually, let me concede a point. It's true that BEVs lose range in colder climates. The two main reasons for that stem from the need to keep both the cabin and battery pack warm, which requires energy that would otherwise go toward moving. And, generally speaking, it takes more energy to warm an electric vehicle in the winter than to cool it in the summer.
But bear in mind, all cars lose range in the winter. Air gets denser as it cools, which takes more work to push through. And all the viscous fluids vehicles need take more time to warm up to their respective operating temperatures. And that means your engine, transmission, and differential all have more work to do—requiring more energy—in the cold.