Postdoctoral position (M/F) – Theory of disordered quantum systems

CNRS; France; On-site; EUR 40,000 - 60,000; Full time

Job summary

CNRS – Institut de Physique de Nice is seeking a researcher to conduct theoretical work on transport and dynamics in quantum systems with disorder, interactions and topology, within the PEPR QUTISYM framework. The role emphasizes independence and collaboration across theory and experiment.

The candidate will focus on Anderson localization, KPZ physics, and related signatures, publishing in international journals and presenting findings at conferences, while joining a collaborative network of

Qualifications

• PhD in theoretical/quantum physics or a related field.
• Solid knowledge of quantum mechanics and statistical physics of disordered/open systems.
• Experience with numerical simulations of quantum systems.
• Autonomy, creativity and ability to collaborate across theory and experiment.
• Interest in Anderson localization, quantum transport or KPZ phenomena.

Responsibilities

• Develop theoretical models and analyses of disordered quantum systems.
• Perform numerical simulations and analytical studies.
• Investigate transport, localization and fluctuation properties.
• Publish results and present at conferences and project meetings.
• Collaborate with partners of the PEPR QUTISYM programme.

Skills

Quantum mechanics

Statistical physics

Numerical simulations

Autonomy and collaboration

Open quantum systems

Education

PhD in theoretical physics

Job description

Organisation/Company CNRS Department Institut de physique de Nice Research Field Mathematics History » History of science Researcher Profile Recognised Researcher (R2) Application Deadline 23 Oct 2026 - 23:59 (UTC) Country France Type of Contract Temporary Job Status Full-time Hours Per Week 35 Offer Starting Date 1 Dec 2026 Is the job funded through the EU Research Framework Programme? Not funded by a EU programme Is the Job related to staff position within a Research Infrastructure? No

Offer Description

The successful candidate will carry out theoretical research on transport and dynamics in quantum systems in the presence of disorder, interactions and/or topology, within the framework of the PEPR QUTISYM programme.

A particular focus will be on Anderson localization and its connection to Kardar-Parisi-Zhang (KPZ) physics, with a particular interest in identifying experimentally observable signatures of this connection. Other research directions may also be explored, including the superfluid-to-insulator transition, random quantum circuits, and the effects of quantum measurements.

• Develop theoretical models and analyses of disordered quantum systems.
• Perform numerical simulations and analytical studies.
• Investigate transport, localization and fluctuation properties of the systems under study.
• Compare theoretical predictions with experimental results in collaboration with partners of the PEPR QUTISYM programme.
• Publish results in international scientific journals and present them at conferences and project meetings.

The position is funded within the framework of the PEPR QUTISYM programme and will be based at the Institut de Physique de Nice (INPHYNI, CNRS–Université Côte d'Azur). The successful candidate will join an environment bringing together several theoretical and experimental groups working on quantum transport, disorder, interactions and topology.

The position offers opportunities for collaboration with the various partners of the PEPR and a degree of autonomy in shaping the research project according to the candidate's skills and interests.

• PhD in theoretical physics, quantum physics, statistical physics, condensed matter physics, or a related field.
• Knowledge of quantum mechanics and statistical physics of disordered and/or out-of-equilibrium systems.
• Experience with numerical simulations of quantum systems.
• Autonomy and creativity, with the ability to work collaboratively and an interest in interactions between theory and experiment.
• Experience in Anderson localization, quantum transport, KPZ phenomena, quantum circuits, or open quantum systems would be an advantage.