AirPods 5 Show Modest Repairability Improvements in iFixit Teardown

iFixit's teardown reveals that Apple's AirPods 5 feature more accessible pronged batteries than previous models, making them slightly easier to repair with specialized tools like tweezers and a heat source. The earbuds achieved a repairability score of 2/10, a notable improvement from the 0/10 scores of earlier AirPods generations, though the charging case remains difficult to service. Battery replacement is now feasible for skilled technicians and experienced DIY enthusiasts, though the left and right earbuds use batteries with different polarities.
Apple's latest earbuds represent a step forward in device serviceability, though meaningful repair access remains limited. The pronged battery design allows technicians to disconnect power sources without soldering, a significant improvement over models that permanently fused components together. However, asymmetrical battery polarity between left and right earbuds creates additional complexity, requiring users to source matching pairs rather than interchangeable replacements.
The charging case, which houses critical power management electronics, continues to resist repair attempts. iFixit's assessment suggests that even minor case damage typically necessitates complete replacement rather than component-level fixes, meaning the majority of AirPods users would still face substantial costs for non-earbud issues.
This modest repairability gain could influence consumer attitudes toward long-term ownership and device lifespan. Users with failing batteries might now consider professional repair as an economically viable alternative to replacement, potentially reducing electronic waste. However, the 2/10 score indicates most consumers still cannot perform repairs independently, meaning access remains restricted to specialized technicians. The development may signal growing industry pressure regarding repairability standards, though the limited improvement suggests manufacturers continue balancing repairability against compact design constraints.