The Director of the MAB QLAB Centre announces a recruitment process for a PhD student position in Group 1 - Quantum-secure communication of MAB QLAB, financed under International Research Agendas (MAB), Measure 2.1 of the European Funds for a Modern Economy 2021-2027 Programme (FENG), project FENG.02.01-IP.05-B013/25, Center for Hybrid Quantum-Classical Information Technologies – QLAB. The successful candidate will be offered an employment contract (umowa o pracę) at the University of Warsaw, on a non-academic-teacher research position. Concurrent enrolment in a UW doctoral school is required. The MAB QLAB Centre is being established at the University of Warsaw as a joint undertaking with Sorbonne Université. The Centre develops scalable hybrid quantum-classical technologies in four pillars: (i) quantum-secure communication, (ii) quantum infrastructure and photonic information processing, (iii) quantum imaging and metrology, and (iv) quantum computation and artificial intelligence. Group 1 – Quantum-secure communication – works on security proofs for quantum communication protocols, hybrid solutions combining quantum and post-quantum cryptography, and research on quantum networks and their integration with critical infrastructure. Skills/Qualifications:
Master's degree (or equivalent, e.g. Inżynier mgr) in physics, computer science, mathematics, electronic engineering or a related discipline; candidates in the final year of MSc may apply provided the diploma is obtained before signing the employment contract. Strong academic record (transcript of records, MSc thesis topic relevant to QLAB Group 1). Background in at least one of: quantum information theory, quantum cryptography, quantum communication, post-quantum cryptography, photonic quantum technologies. Fluency in spoken and written English (level B2 or higher). Programming skills (Python / MATLAB / Mathematica or equivalent) and ability to work with research-grade scientific software (LaTeX, version control). Willingness and eligibility to enrol in the UW Doctoral School of Exact and Natural Sciences (no prior doctoral degree). During the employment period the employee shall not be employed under another full-time employment contract from any other entity.
Language: English (C1+)
TECHNICAL & MARKET ANALYSIS | Appended by Quantum.Jobs
The global acceleration of quantum computing capacity has introduced a systemic vulnerability into the classical cryptographic infrastructure that secures national digital identities and financial systems. The emergence of the "harvest now, decrypt later" threat necessitates a proactive transition to quantum-safe architectures, making research roles in quantum-secure communications structurally essential for ensuring long-term data integrity. These roles function as the primary interface between theoretical physics and applied cybersecurity, translating complex mathematical proofs into scalable defense mechanisms for critical infrastructure. As market signals indicate a compression of the quantum risk timeline, with major industry players forecasting cryptographic breaches within the next decade, the capacity to validate hybrid security models has become a prerequisite for maintaining digital trust. This research position directly addresses the Technology Readiness Level (TRL) gap between experimental quantum key distribution and standardized post-quantum cryptography integration.
The quantum communications sector is currently positioned at a critical junction between academic validation and industrial-grade deployment. Global ecosystem analysis reveals that while point-to-point quantum links have been successfully demonstrated, the primary bottleneck to widespread adoption remains the lack of standardized, interoperable frameworks that can merge quantum mechanics with existing classical network protocols. As nations establish sovereign quantum strategies, such as the European Quantum Communication Infrastructure initiative, the demand for specialized talent capable of architecting these hybrid systems has outpaced the available workforce. This scarcity is particularly acute in the "security proof" layer of the value chain, where the formal verification of protocol resilience against quantum-enabled adversaries is mandatory for commercial viability.
Furthermore, the transition to quantum-secure communications is increasingly shaped by public funding cycles and international research agendas, such as the European Funds for a Modern Economy. These frameworks prioritize the development of scalable, non-niche solutions that can be integrated into high-traffic telecom networks without prohibitive latency or hardware costs. The role of research centers like the University of Warsaw within this ecosystem is to serve as a translation pathway, moving high-risk, high-reward theoretical research into the "technical enablement" tier of the market. This involves addressing macro-constraints such as the physical vulnerabilities of photonic information processing and the certificate-management barriers inherent in transitioning legacy infrastructure to post-quantum standards.
Strategic advancement in this domain hinges on the integration of quantum information theory with practical networking constraints. Workforce and infrastructure development remain priority areas across the value chain, as the sector moves from individual protocol testing to the design of distributed, fault-tolerant key distribution services. By focusing on the intersection of security proofs and critical infrastructure integration, the research output from these roles establishes the foundational trust required for the next generation of the digital economy.
The capability architecture for this role type centers on the coupling of abstract mathematical rigor with computational reproducibility. Expertise in quantum information theory and quantum cryptography is required to develop and audit the security proofs that underpin trusted communication channels. This is augmented by a technical interface with photonic technologies, which are essential for the physical layer of quantum key distribution. Mastery of research-grade scientific software and version control systems ensures that algorithmic developments are transferable and verifiable across multidisciplinary teams. These capabilities are critical for bridging the gap between theoretical breakthroughs and the deployment of hybrid quantum-classical technologies. By integrating post-quantum cryptographic primitives with quantum-based sensing and metrology, these roles facilitate the development of a unified security stack capable of resisting both classical and quantum-scale attacks.
Ensures the long-term integrity of global digital infrastructure against quantum-enabled adversarial threats
Accelerates the transition from experimental prototypes to standardized commercial-grade security protocols
Reduces integration friction between quantum-secure primitives and classical telecommunications networks
Facilitates the formal verification of hybrid cryptographic systems for critical national infrastructure
Strengthens the resilience of the digital economy by mitigating the systemic risk of cryptographic collapse
Harmonizes international standards for quantum key distribution and post-quantum certificate management
Optimizes the translation pathway for high-TRL quantum communication research into industrial applications
Supports the development of sovereign computing capabilities through advanced human capital formation
Shortens the iteration cycles for security proof validation in scalable quantum network architectures
Improves the interoperability of quantum-secure protocols across multi-jurisdictional research hubs
Protects mission-critical data assets by addressing the harvest-now-decrypt-later vulnerability
Enables the deterministic progression of the quantum economy through the stabilization of trust frameworks
Industry Tags: Quantum Communications, Post-Quantum Cryptography, Quantum Key Distribution, Cybersecurity Research, Photonic Information Processing, Quantum Information Theory, Hybrid Networks, Critical Infrastructure Security
Keywords:
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