All phones sold in the EU to have replaceable batteries from 2027

Original Article ↗ Hacker News Discussion ↗

From 2027, EU rules will require phones and tablets sold in the bloc to have batteries that can be replaced with commercially available tools, or else meet strict longevity and water‑resistance criteria (e.g. 1,000 cycles while retaining 80% capacity). Commenters argue this could curb planned obsolescence, cut e‑waste, and make independent repair more viable, but they also worry about loopholes, manufacturers gaming the “1,000 cycles” exemption, and potential trade‑offs with thinness, durability, and high IP water‑resistance. Many see it as part of a broader push alongside USB‑C and mandatory security updates to extend device lifespans, though some doubt it will materially change upgrade habits without stronger measures on software support and standardized parts.

Overall sentiment

  • Many commenters welcome the rule as pro‑consumer and pro–right‑to‑repair, comparing it to the USB‑C mandate.
  • Others are skeptical, arguing it solves a secondary problem (batteries) while software and radios obsolete phones first, or that most users don’t actively ask for replaceable batteries.

What the regulation actually requires

  • Batteries must be removable with “commercially available” tools; specialized tools can’t be required unless included for free.
  • No heat, solvents, or proprietary tools are allowed for battery removal.
  • There is an alternative path: if a device is at least IP67/68 and the battery still has ≥83% after 500 cycles and ≥80% after 1000 cycles, it can avoid the “layman‑replaceable” requirement.
  • Separate EU rules already mandate ~5 years of OS/security updates and 7+ years of spare‑part availability.

Waterproofing, size, and design trade‑offs

  • One camp claims sealed/glued batteries enable thinner, stronger, more water‑ and dust‑resistant phones, and most buyers prefer that.
  • Others counter with concrete examples (Galaxy S5, rugged Samsung/Xcover lines, Japanese/Kyocera phones, watches, GoPros) that combine IP67/68 and user‑swappable batteries, arguing gaskets and screws are sufficient.
  • Some note rubber gaskets wear and must be replaced with each battery change; others say that’s solvable engineering, not a show‑stopper.

Planned obsolescence, cost, and e‑waste

  • Many see sealed batteries and high official replacement prices (vs. cheap cells) as deliberate obsolescence, especially when a weak battery is the main reason to upgrade.
  • Counterpoint: flagship vendors already offer long software support and relatively affordable battery swaps; some users happily pay ~€70–120 every few years.
  • Several argue the main environmental win is either:
    • Longer‑lasting batteries via the 1000‑cycle standard, or
    • Making independent repair cheap and routine, not necessarily user hot‑swap.

Practical repair and parts supply

  • Commenters stress that repairability only matters if:
    • OEM or high‑quality compatible batteries are actually available for many years.
    • Designs don’t require breaking glass, voiding water resistance, or risking fire to swap a cell.
  • Some want standardized battery formats or at least fully documented specs to avoid “black‑market” or unsafe packs.

Beyond batteries: software and openness

  • Multiple comments say security updates and app support are a bigger driver of obsolescence than batteries.
  • Desired future regulations: unlockable bootloaders, mandatory long‑term firmware support, SD card slots, non‑soldered storage/RAM, and broader right‑to‑repair for laptops and EVs.

Concerns and uncertainties

  • Fears that:
    • Cheap phones may get bulkier or less durable.
    • Manufacturers may game the 1000‑cycle rule via conservative charge limits or understated capacity.
    • Regulation could increase prices in the EU or produce only minimal real‑world lifespan gains.