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Apple has integrated Laser Powder Bed Fusion (LPBF) additive manufacturing into the production of the Apple Watch Ultra 3, specifically utilizing titanium powder to fabricate the device chassis.
Technology
2 min read

Apple has integrated Laser Powder Bed Fusion (LPBF) additive manufacturing into the production of the Apple Watch Ultra 3, specifically utilizing titanium powder to fabricate the device chassis.

Originally reported by ad hoc news

Apple has integrated Laser Powder Bed Fusion (LPBF) additive manufacturing into the production of the Apple Watch Ultra 3, specifically utilizing titanium powder to fabricate the device chassis. This transition to 3D-printed titanium components, announced in March 2026, enables Apple to optimize material usage and reduce production cycle times while maintaining a hardness rating of 6 on the Mohs scale. The manufacturing process is currently deployed at scale for the flagship Ultra 3 model, marking a significant shift from traditional subtractive machining for complex structural geometries in consumer electronics.

This adoption of metal AM by a high-volume consumer electronics manufacturer validates the scalability of LPBF for mass-market hardware. While competitors typically rely on CNC milling for titanium components, Apple's move addresses the material waste inherent in subtractive processes and allows for more complex internal geometries that support the integration of larger batteries and advanced sensor arrays. As Apple continues to refine its supply chain, the ability to produce high-strength, lightweight titanium parts at this volume positions the company as a leader in the industrialization of metal additive manufacturing for consumer goods.

For the additive manufacturing sector, this deployment confirms that LPBF has reached the necessary throughput and quality control standards required for high-volume, high-reliability consumer electronics. Manufacturers should focus on the trade-offs between the design freedom provided by AM and the resulting challenges in device repairability, as evidenced by the current 4 out of 10 repairability score for the Ultra 3. Future iterations will likely require advancements in modular design to ensure that the benefits of additive manufacturing do not compromise the lifecycle and serviceability of the product.

Topics

Apple3D printingLPBFtitaniumconsumer electronicsadditive manufacturingApple Watch