Deterministic Quantum Emitter Formation in Hexagonal Boron Nitride via Controlled Edge Creation

Case ID:
UO-19-19
Web Published:
6/10/2022
Description:

1. Technology Overview 

The invention leverages a novel method for deterministic quantum emitter formation in hexagonal boron nitride (hBN) using focused ion beam (FIB) milling. This technique achieves a high yield of quantum emitters with exceptional stability and brightness, making it ideal for integration into hybrid optoelectromechanical devices. The technology is currently in the development stage, with promising cross-industry applications in quantum computing, communication, and photonics. 

2. Key Features and Benefits 

  • High Yield: Achieves 94% production of quantum emitters with a 33% yield of single QEs. 

  • Stability: Quantum emitters are stable under ambient conditions and high temperatures. 

  • Integration Potential: Facilitates integration into hybrid optoelectromechanical devices. 

  • Scalability: Technique can be scaled by adjusting milling parameters and exploring different ion types. 

  • Versatility: Applicable to various industries, including quantum computing, communication, and photonics. 

3. Applications and Market Focus 

  • Quantum Computing: Reliable single-photon sources for quantum information processing. 

  • Secure Communication: Quantum emitters for secure data transmission. 

  • Photonics: Integration into photonic circuits for enhanced data processing. 

  • Optoelectronics: Use in advanced optoelectronic devices. 

  • Material Science: Development of high-quality 2D materials and nanotechnology applications. 

4. Commercial Advantages 

  • Strategic Benefits: Provides reliable and scalable quantum emitters for various applications. 

  • Implementation Advantages: Facilitates integration into existing semiconductor and photonic devices. 

  • Market Positioning: Positions technology as a key enabler for advanced quantum and photonic solutions. 

  • Competitive Advantages: Offers high yield, stability, and integration potential compared to existing methods. 

5. Partnership Opportunities 

  • Ideal Licensing Partners: Semiconductor manufacturers, photonics companies, quantum technology developers. 

  • Cross-Sector Partnership Benefits: Collaboration opportunities across quantum computing, communication, and photonics industries. 

  • Diverse Market Opportunities: Potential for global market expansion in regions with strong semiconductor and photonics industries. 

  • Collaborative Development: Opportunities for joint development of hybrid devices and custom QE formation services. 

Patent Information:
For Information, Contact:
Elliot Reed
Innovation Partners Director
University of Oregon
elliotr@uoregon.edu
Inventors:
Benjamin Aleman
Keywords:
Science
© 2026. All Rights Reserved. Powered by Inteum