/Next generation materials for electro-optical quantum devices

Next generation materials for electro-optical quantum devices

PhD - Leuven | More than two weeks ago

Exploring new materials to redefine the next generation of electro-optical technologies for emerging quantum technologies.  

What is limiting the upscaling of current quantum computing technologies? One might correctly point out to the maturity of the qubit and that this is a question that needs to be answered specifically for each individually quantum computer technology ranging from superconducting qubits over ion trapping to optical quantum computing. A well-functioning electro-optic device technology will be key to each of those quantum computing technologies. For example, the optical readout of superconducting quantum computer requires a single photon up-conversion from the RF-domain to the optical domain.  Or optical and ion quantum computing require highly efficient EO-devices for entangling or routing photons via an electrically controlled high-speed optical switching network.
 
In this PhD, we will explore novel materials that are key to realize our vision of the next generation electro-optical devices. The crystallinity of these material is inherently associated to their performance and ideally, we would like to incorporate perfect crystals into our electro-optical devices. During your PhD you will explore and push the limits of material growth by means of MBE, PLD, etc. Part of the work will also focus on the various experimental characterization methods. Beyond the material growth you will also be part of our team and learn more about device fabrications and characterization, modelling quantum systems and performing classical electromagnetic simulations. 
 
The research environment provides unique opportunities for your personal and professional development by exploring academic research within IMEC - an organization that has a strong drive to enable fundamental research to solve society ’s challenges. 
 

Required background: Material Science, Physics, Electrical Engineering or Nanotechnology 

Type of work: 70% Experiments (Material Growth & Characterization), 30% Theory

Supervisor: Clement Merckling

Daily advisor: Christian Haffner

The reference code for this position is 2022-134. Mention this reference code on your application form.