
Renishaw and Irish Manufacturing Research have partnered to optimize the production of freeform optical components for satellite communications using the RenAM 500Q Flex laser powder bed fusion sys...
Hardware
Originally reported by ico-optics.org
Renishaw and Irish Manufacturing Research have partnered to optimize the production of freeform optical components for satellite communications using the RenAM 500Q Flex laser powder bed fusion system. Supported by the Disruptive Technology Innovation Fund and led by photonics firm mBryonics, the project aims to transition these components from manual machining to industrial-scale additive manufacturing by autumn 2026. The technical focus involves utilizing the four-laser 500Q Flex platform, which incorporates TEMPUS process control to mitigate thermal fluctuations during the printing of aerospace-grade materials. The collaboration seeks to scale production capacity from low-volume prototyping to hundreds or thousands of units per month at the IMR facility in Dublin.
This initiative addresses the scalability bottleneck inherent in traditional subtractive manufacturing for complex, high-precision aerospace optics. By leveraging LPBF, the project targets the integration of structural and optical functions in a single build, reducing assembly complexity and weight. The aerospace optics market is increasingly demanding higher throughput to support the deployment of large-scale satellite constellations, where current machining methods fail to meet volume requirements. Renishaw is positioning its multi-laser hardware as a solution for high-precision, repeatable metal production, competing against established CNC and specialized casting workflows in the photonics sector.
Successful implementation requires the team to validate consistent surface finish and dimensional accuracy across high-volume builds to meet stringent satellite performance standards. Buyers should evaluate whether the resulting surface quality of the additive parts eliminates the need for extensive post-processing, which remains a primary cost driver in optical manufacturing. The project provides a clear roadmap for moving from process parameter development to a validated industrial production environment by 2026.
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