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Researchers have successfully integrated gallium nitride blue lasers onto silicon nitride chips using micro-transfer printing, overcoming previous bonding limitations to enable high-performance visible light photonics. This breakthrough facilitates the development of compact optical systems for applications in life sciences and advanced displays by combining a passive waveguide platform with active light sources. The achievement marks a significant step forward in chip-scale integration for next-generation photonic circuits.
Researchers Print Blue Lasers on Silicon Nitride Chips
At 455 nanometres, blue light emission has long proved elusive for silicon nitride photonics, until now. By bypassing limitations of full-wafer bonding and flip-chip techniques, micro-transfer printing successfully integrates gallium nitride lasers onto this platform for the first time. This advance unlocks potential applications ranging from life sciences to advanced displays with compact, high-performance light sources.
Integrating high-performance blue light sources onto silicon nitride photonic circuits previously presented key hurdles due to limitations in existing bonding techniques. Micro-transfer printed blue lasers have now been realised on a silicon nitride platform, overcoming challenges associated with releasing devices from their original substrate via optimised electrochemical etching. The technique efficiently integrates blue lasers onto silicon nitride chips by moving tiny light sources from their original substrate onto a new platform. This advancement addresses longstanding difficulties in combining gallium nitride laser components with existing chip technology, enabling more…
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