PhD Candidate - Development of novel SiC MEMS-Based Microanalytical Systems for low-power, fiel[...]
Descrizione dell'offerta
Organisation/Company Fondazione Bruno Kessler Research Field Other Researcher Profile Other Profession Positions PhD Positions Application Deadline 24 Aug 2026 - 23:59 (Europe/Rome) Country Italy Type of Contract Temporary Job Status Full-time Offer Starting Date 1 Nov 2026 Is the job funded through the EU Research Framework Programme? Other EU programme Reference Number CUP C63C23001090006 Is the Job related to staff position within a Research Infrastructure? No
Offer Description
The development of innovative microanalytical technologies for real-time, on-line measurements is a critical bottleneck in modern industrial monitoring. This project proposes a monolithic micromachined system based on Silicon Carbide (SiC), strategically leveraging SiC’s superior chemical inertness and mechanical robustness compared to standard Silicon. By utilizing SiC, the system achieves enhanced thermal stability for microhotplate configurations and improved frequency stability in resonant sensors. The architecture integrates (i) an ultra-low form factor microfluidic separation module and (ii) a multi-modal SiC sensor for precise analyte identification. The seamless integration of a microfluidic pretreatment stage with a SiC-based sensing core eliminates sample degradation during transport, enabling sub-minute analytical cycles essential for precision farming and safety monitoring. The final output is a low-power, field-deployable platform tailored for the agri-food sector, capable of detecting early-stage contamination or quality shifts directly in harsh production environments. Advisors FBK: A. Bagolini, A. Adami
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The development of innovative microanalytical technologies for real-time, on-line measurements is a critical bottleneck in modern industrial monitoring. This project proposes a monolithic micromachined system based on Silicon Carbide (SiC), strategically leveraging SiC’s superior chemical inertness and mechanical robustness compared to standard Silicon. By utilizing SiC, the system achieves enhanced thermal stability for microhotplate configurations and improved frequency stability in resonant sensors. The architecture integrates (i) an ultra-low form factor microfluidic separation module and (ii) a multi-modal SiC sensor for precise analyte identification. The seamless integration of a microfluidic pretreatment stage with a SiC-based sensing core eliminates sample degradation during transport, enabling sub-minute analytical cycles essential for precision farming and safety monitoring. The final output is a low-power, field-deployable platform tailored for the agri-food sector, capable of detecting early-stage contamination or quality shifts directly in harsh production environments. Advisors FBK: A. Bagolini, A. Adami
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Candidatura e Ritorno (in fondo)
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