We are thrilled to announce our latest publication on waveguide integrated graphene-based light emitters. This innovative technology represents a significant advancement in the use of graphene for thermal light emission, offering versatile integration possibilities across a range of applications.
🔬A Breakthrough in Graphene Light Emission
Our research team has successfully demonstrated the ability to drive a current through graphene, heating it to produce a thermal emitter. This novel approach leverages graphene’s exceptional thermal and electrical properties, enabling the creation of a compact, efficient light emitter that can be seamlessly integrated wherever graphene and contacts can be applied.
The primary focus of our work is mid-infrared (mid-IR) sensing, an area with critical applications in environmental monitoring, industrial process control, and medical diagnostics. However, the potential applications for this technology extend far beyond these initial targets, offering exciting possibilities for future innovation.
🌐Applications and Future Prospects
The integration of graphene-based light emitters into waveguides paves the way for new advancements in photonic devices. Our research is part of the broader efforts within the H2020 AEOLUS Project. These projects aim to harness advanced materials and technologies to address pressing challenges in various sectors.
Mid-IR sensing, our current application focus, is just the beginning. The versatility of graphene thermal emitters suggests potential uses in a wide array of fields, including telecommunications, imaging, and beyond. The ability to integrate these emitters with existing technologies and platforms makes them a powerful tool for researchers and engineers looking to push the boundaries of current capabilities.
🤝A Collaborative Achievement
This publication is the result of a collaborative effort involving numerous talented researchers from prestigious institutions including AMO GmbH, the Chair of Electronic Devices (ELD) at RWTH Aachen University, Senseair, KTH Royal Institute of Technology and Bundeswehr University Munich.
The ICCS, particularly the Photonics Communications Research Laboratory (PCRL), coordinates the AEOLUS Project.
For any further information, please contact Prof. Hercules Avramopoulos at hav@mail.ntua.gr or Harry Zervos at hzervos@mail.ntua.gr.
🔍Learn More
For a detailed exploration of our research and findings, we invite you to read the full publication. Discover the intricacies of our methodology, the significance of our results and the future directions we envision for this technology.
📄 Check out the publication here.
📢 Stay tuned for more news and updates!