iPhone 16 Pro Max battery life to improve with enhanced energy density and steel case- All details

tech.hindustantimes.com:

The upcoming iPhone 16 series, slated for a September release, has become a hot topic in tech circles with numerous leaks surfacing. One prominent leak suggests that the iPhone 16 Pro Max could see a significant increase in battery capacity.

According to Apple analyst Ming-Chi Kuo, known for his accurate predictions, Apple is set to enhance the energy density of the battery cells in the iPhone 16 Pro Max. This improvement promises longer battery life without altering the physical size of the battery.

Also read: iPhone 16 launch in September 2024: Specs, AI features and more- Here's everything we know so far

Kuo explained in a recent update that the enhanced energy density of the battery cells may lead to higher operating temperatures. To counteract potential overheating issues, Apple plans to introduce a stainless steel battery case, a novel thermal solution for the iPhone series.

While stainless steel may not be as effective in heat dissipation as aluminium, it offers superior durability and corrosion resistance. This choice not only aids in heat dissipation but also provides enhanced protection for the battery and the iPhone system as a whole.

Also read: iPhone 16 launch in September 2024: Specs, AI features and more- Here's everything we know so far

Moreover, Kuo highlighted that using a stainless steel battery case will simplify the battery removal process, which aligns with future regulatory requirements in the European Union for mobile phone batteries.

The successful mass production and positive feedback of this new battery design, which combines upgraded energy density with the stainless steel case, could pave the way for its adoption in all new iPhone models by the second half of 2025.

Also read: iPhone 16 Pro launch: 4 reasons not to wait, and why to buy iPhone 15 Pro now

Beyond battery enhancements, rumours suggest other intriguing updates for the iPhone 16 series. These include the replacement of physical buttons with touch-sensitive equivalents that simulate a