How far can we push control over light at the nanoscale?
In this PhD project you will design next-generation metasurfaces that efficiently manipulate quantum states of light and enable compact and precise computational imaging systems.
InformationControlling the interaction between light and matter is central to modern photonics and to technologies such as quantum computing, optical communications, imaging, and sensing. A key challenge is to engineer optical components that can precisely shape the spatial and temporal properties of light with high efficiency, speed, and resolution.
Recent advances in platforms such as metasurfaces, metamaterials, digital holography, 2D materials, and nanophotonics have opened new opportunities for wavefront control, yet fundamental limitations and trade-offs remain.
In this PhD project, you will investigate the fundamental limits of wavefront shaping systems and develop new meta-optical concepts to overcome them. The project will combine electromagnetic modeling, nanofabrication, and optical characterization to realize multi-layer metasurface platforms. The resulting devices will be integrated into photonic systems targeting applications in quantum information processing, computational imaging, free-space communications, and machine vision.
The project will leverage TU/e’s nanofabrication cleanroom and advanced optical characterization facilities. Possible research directions include:
- Multi-layer nano-optics for efficient quantum state manipulation and detection.
- Tailoring the spatial and temporal coherence of optical beams for remote sensing.
- Light transport through scattering and disordered media with active meta-optics.
- Metasurface integration on-chip for neuromorphic computing.
You will also become a member of the
Photonics and Semiconductor Nanophysics (PSN) group which consists of ~45 researchers (PhD students, postdocs and staff). The group covers a wide range of topics including the investigation of optical processes in resonant nanostructures, the exploration of novel nanophotonic structures for applications in sensing, optical communications and lab on chip, and the physics of light transport in complex and disordered media. The group also plays a key role in the
Casimir Institute and
the Institute for Complex Molecular Systems at TU/e, and within the PhotonDelta growth fund program. Besides research you will also contribute to education within our group and the Department of Applied Physics and mentor BSc and MSc students during their research projects.