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develop innovative THz biosensors based on dielectric patterned photonic crystal cavities. We will design photonic crystal cavities providing a high electric field concentration with an ultra-high Q factor
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operation under varying conditions. The research will explore these aspects, focusing on designing, modeling, and experimentally validating a decentralized control system that addresses the technical hurdles
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on the choice of detection method, while exploring the possibility of parallelizing analyses on multiple markers. To this end, work on the design and manufacture of microfluidic chips will require the use
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incorporating a PAC-selective nanomaterial based on preliminary results; 2) study the adsorption and desorption efficiencies of PACs with these materials; 3) design and manufacture a highly sensitive PAC
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quantum dashes grown by droplet epitaxy [2]. We will explore the potentialities of this new approach to demonstrate the first monolithic tunable LC-PD and optimize its design and performances for FBG
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scientific teams, one of which focuses on solar-terrestrial relations and space plasmas. The laboratory has strong expertise in space instrumentation, from design to production and implementation of on-board
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through resilient multi-path routing could be potential solutions. Considering the capabilities of satellites and drones in terms of computing performance, memory, energy, and availability to design new
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project, we anticipate significant innovation potential, including the development of a functional prototype. Candidate • Education: MS or equivalent degree in biomedical engineering, electrical engineering
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strong expertise in the conception and synthesis of molecules, of crystals, of tailor-made materials, with dedicated properties, thanks to well-adapted engineering tools. It specifically addresses