The Information and Communication Theory Lab (ICT lab) is currently seeking to recruit, starting in February 2024 1 Doctoral candidate/Research Associate (m/f/d)
working on Modulation and Error Correcting Codes for quantum key distribution applications
within the framework of the European Doctoral Training Network 'QuNEST' (QuNEST Doctoral Candidate 2).Research Programme Description
'QuNEST- Quantum Enhanced Optical Communication Network Security Doctoral Training
' is hiring 11 Doctorate Candidates to be funded by the Marie Skłodowska-Curie Actions (MSCA) Doctoral Networks. QuNEST is a highly interdisciplinary and intersectoral Doctoral Network composed of leading academic and industrial partners. The consortium consists of six academic institutions, namely: Eindhoven University of Technology (Coordinator), Technical University of Denmark, Karlsruhe Institute of Technology, University of L'Aquila, University of Warsaw and University of Geneva as well as the companies: ADVA Network Security, Exatel, IDQuantique, Infinera Germany, KEEQuant (SME), NKT Photonics, Nokia Bell Labs France, Telecom Italia Mobile, Quantum Optical Technologies (SME), Quantum Telecommunications Italy and VPIphotonics and involves seven different European countries. The diverse consortium provides a unique and timely opportunity to train students in quantum physics and optical communications.
The driving force for QuNEST - is to provide high-level and highly collaborative training to 11 highly achieving Doctoral Candidates. This Doctoral Network is a highly multi-disciplinary, spanning areas of quantum physics, simulations, photonics, optical transmission, Quantum Key Distribution (QKD) protocols, implementation security, error correction algorithms, digital signal processing, networks and control, requiring cross-disciplinary and intersectoral training targeted at creating experts in this emerging multidisciplinary field. The QuNEST Doctoral Candidates will be trained by doing research, in which they will demonstrate the potential of combining quantum and classical optical data signals in a single fiber with the aim to develop ground-breaking and commercially attractive, short-to-medium term solutions targeting European industry leadership in this highly challenging sector. QuNEST will train much-needed future scientists and engineers who will design, build, deploy and operate the next generation quantum secured optical communications infrastructure.
The Doctoral Network program is designed to follow technical, scientific, and transferable skills, enabling the next generation of young researchers/engineers with excellent skills in understanding the challenges of quantum secure optical communications. All Doctoral Candidates will carry out secondments and placements with industrial partners at the earliest possible opportunity. Transferable skills and technical workshops from industrial partners will be central to the training of the Doctoral Candidate.Host institution
Eindhoven University of Technology (TUE) is a highly rated technical university located in Eindhoven, the Netherlands. With an annual budget of 500 million euros, TUE has over 3,000 staff members and 13,000 students and is dedicated to groundbreaking research and education in engineering, science, and technology. TUE has created the new Eindhoven Hendrik Casimir Institute for Photonic Integration and Quantum Technology. Eindhoven University of Technology (TU/e) in the Netherlands offers (pre)graduate engineering programmes (BSc and MSc) and post-graduate technological design (MTD), PhD and teacher training programmes (MSc) and post-academic continuing education. The courses are research-driven and design-oriented. TU/e coordinates several prominent Dutch research schools and institutes, such as Institute for Photonic Integration (IPI) and the Center for Quantum Material and Technology (QT/e) have strong position and a role to play within international research networks. The TU/e is hence a natural partner for technology-intensive enterprises. The campus is a fertile breeding ground for new business ventures. The TU/e hosts the Dutch national centre on III-V-semiconductors and optoelectronics. With these facilities, TU/e have one of the world's best-equipped academic research centres in the field of Photonics and Quantum Communications
The Information and Communication Theory Lab (ICT Lab) at TU/e is a globally recognized research group focusing on information and communication theory, and its applications. At the ICT Lab, we study information processing in a broad sense. We focus on finding fundamental limits but also on the data processing techniques (often codes and digital signal processing algorithms) and architectures that aim at approaching these limits. Main areas of interest are source coding, channel coding, multi-user information theory, security, and machine learning. We typically use information-theoretical frameworks to model the scenarios under investigation. This allows us to find out what the optimal trade-offs are. The scenarios that we study often result from close interaction with industry.
Curious to hear more about research at the ICT Lab? Please view this video.Job Description
Project title: Development and analysis of modulation and shaping schemes for quantum key distribution protocols
Host institution: Eindhoven University of Technology
PhD enrolment: Eindhoven University of Technology
Supervisors: Alex Alvarado, Gabriele Liga, (Eindhoven University of Technology), Laurent Schmalen (Karlsruhe Institute of Technology). Mentor: Antonio Napoli (Infinera).
Research Objectives: To design modulation formats and error correction protocols for QKD schemes. The doctoral candidate will jointly design the protocol and the high-order (shaped) modulation format for practical settings. Information-theoretic security of QKD with such finite-cardinality constellations for the specific error correction protocol under consideration will be analysed. The susceptibility of the proposed techniques and constellations to finite-size effects resulting from a finite number of communication attempts will be investigated. The final goals are to increase the state-of-the-art secret key rates and transmission distances in practical QKD settings. The doctoral candidate will tailor the proposed protocol and modulation format to the state-of-the-art error correction codes.
Expected Results: Error correction protocol for QKD schemes with shaped modulation formats designed to maximize secret key rates and transmission distances. Experimental assessment of the protocol in conjunction with industrial partner. Extension of the techniques with advanced channel code designs.
Secondments: Secondment periods are planned at Karlsruhe Institute of Technology, Nokia Bell Labs France and University of Aquila.