single atomic plane. The goal is reproducible, wafer-uniform, position-controlled emitters verified by Raman, photoluminescence and single-photon (g²(0) < 0.1) measurements, providing a scalable supply of identical quantum light sources for secure communication and integrated quantum photonics.

Candidates with strong backgrounds in one or more of the following areas are encouraged to apply:

• Highly motivated student with a background in Electrical/Electronic Engineering, Materials Science, Applied Physics, or Chemistry
• Hands-on experience in thin-film growth (CVD of 2D materials) and cleanroom nanofabrication would be ideal
• Familiarity with materials characterisation such as Raman, photoluminescence or SEM/AFM is an advantage.

single atomic plane. The goal is reproducible, wafer-uniform, position-controlled emitters verified by Raman, photoluminescence and single-photon (g²(0) < 0.1) measurements, providing a scalable supply of identical quantum light sources for secure communication and integrated quantum photonics.

Candidates with strong backgrounds in one or more of the following areas are encouraged to apply:

• Highly motivated student with a background in Electrical/Electronic Engineering, Materials Science, Applied Physics, or Chemistry
• Hands-on experience in thin-film growth (CVD of 2D materials) and cleanroom nanofabrication would be ideal
• Familiarity with materials characterisation such as Raman, photoluminescence or SEM/AFM is an advantage.