PHD POSITION IN FUNCTIONAL ORGANIC NANOASSEMBLIES FOR ULTRAFAST INVESTIGATIONS OF OPTICAL AND MAGNETIC COUPLING IN NANOMEDECINE
CEISAM - UMR CNRS 6230 / NANTES UNIVERSITY
France
Deadline: Dec 11, 2026
Details
Context. The CEISAM lab seeks talented and motivated students to conduct research works in the field of
photo- and magneto-responsive nano-architectures, driving considerable interest in data storage, catalysis
and nanomedicine. While most of the studies have been carried on inorganic materials, combining both
photo- and magneto-activities within organic architectures remains quite scarce. Moreover, whereas such a
coupling has often been investigated at the stationary state, deciphering how magnetic switching could
influence the dynamics of photoexcited states, and conversely how light could impact the magnetic
properties at short ns and sub-ns timescales, would bring considerable progress in the design of performing
materials.
Research studies. The multiple goal of the planned researches will be to design, elaborate and investigate
hybrid nanoassemblies, composed of organic radicals, endowed with photoactive units (fluorescent,
photochromic and strong affinity toward superparamagnetic iron oxide nanoparticles. Particular attention
will be paid to retention and reproducibility of the properties after self-assembly, which will require precise
molecular engineering as well as size control of the nano-objects by resorting to microfluidic synthesis,
allowing for additional post-processing like surface functionalization. This work will be carried out in the
framework of interdisciplinary projects, funded by the French Research National Agency (ANR), addressing
high-level challenges in light-matter interactions. It will involve strong collaborations with chemists at
Sorbonne University (PHENIX), photophysicists at ENS Paris, physicists at Strasbourg University (IPCMS) and
theoreticians at Perpignan University (PROMES), respectively experts in nanomagnetism and magnetic
nanoparticles, ultrafast spectroscopic studies, ultrafast spin dynamics and theory of heat and optical coupling
in magnetic nanoparticles and nanoassemblies.
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