10 parallel-processing "UCL" Postdoctoral positions at Institute of Photonic Sciences
Sort by
Refine Your Search
-
for the generation of clean H2 from non-ideal water streams, looking at oxygen evolution and parallel purification reactions. The candidate(s) will also work with the team to scale-up of the system in area, number
-
light sources, quantum frequency conversion and quantum processing nodes. The current position will be within a project aiming at developing quantum network nodes with laser cooled atoms, including
-
record to contribute to the development and automation of advanced electrolysis systems. The successful candidates will work on the automation, operation and optimization of electrochemical systems
-
candidate will be expected to: Develop and optimize processes for the modification and nanostructuring of glass and optical material surfaces. Investigate relationships between fabrication parameters, surface
-
quantum memories, quantum light sources, quantum frequency conversion and quantum processing nodes. The current position will be within a project aiming at developing quantum network nodes with laser cooled
-
to the development of advanced photonic integrated circuits (PICs) for a wide range of applications, including optical switching and processing. Key Responsibilities: The selected candidate will be expected to: Design
-
of advanced photonic integrated circuits (PICs) for optical switching and processing applications. Key Responsibilities: The selected candidate will be expected to: Design, simulate, and optimize integrated
-
integrated circuits (PICs) tailored to quantum applications. Quantum technologies, including neutral atom quantum computing and simulation, rely heavily on photonics for encoding, processing, and detecting
-
quantum memories, quantum light sources, quantum frequency conversion and quantum processing nodes. The current positions will be within a project aiming at developing quantum repeaters using solid-state
-
, we aim to establish a foundation for compact, sensitive, and fast photonic sensing devices. The same waveguide platform will also be evaluated for use in signal processing applications, where phase