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January 01 2023

Neural signal decoding for clinical Brain Spine neuroprosthesis

The postdoctoral project will be carried out at CEA/LETI/CLINATEC, in collaboration with EPFL (Lausanne, Switzerland) within the frame of multidisciplinary Brain-Machine Interface program. The program goal is to explore novel solutions for functional rehabilitation and/or compensation for people with sever motor disabilities using neuroprosthetics. Neuroprosthetics record, and decode brain neuronal signal for activating effectors (e.g. […] >>

January 01 2023

Advanced biological functionalization for graphene biological sensors on flexible subtrate

The need for biological sensing solutions is constantly growing. Amid targeted applications, some require biosensor with high sensitivity. At CEA LETI we are running a project that aim at developing novel innovative wound dressing equipped with graphene biological sensors to track wound bacterial proliferation indicative of sepsis. The sensor is a Solution gated graphene FET-like […] >>

January 01 2023

Development of large area substrates for power electronics

Improving the performance of power electronics components is a major challenge for reducing our energy consumption. Diamond appears as the ultimate candidate for power electronics. However, the small dimensions and the price of the substrates are obstacles to the use of this material. The main objective of the work is to overcome these two difficulties […] >>

January 01 2023

Catalytic properties at the nanoscale probed by time-resolved Bragg coherent diffraction imaging

The postdoctoral research project is part of a five-year ERC-funded project called CARINE (Coherent diffrAction foR a Look Inside NanostructurEs towards atomic resolution: catalysis and interfaces – https://carine-erc.eu) to develop and apply new coherent diffraction imaging (CDI) capabilities. The main objective of the project is to image nanostructures in situ during reaction and to reveal […] >>

January 01 2023

Optomechanical force probes development for high speed AFM

The proposed topic is part of a CARNOT project aiming at developing a new generation of force sensors based on optomechanical transduction. These force sensors will be implemented in ultrafast AFM microscopes for imaging and force spectroscopy. They will allow to address biological and biomedical applications on sub-microsecond or even nanosecond time scales in force […] >>
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