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theory on benchmark van der Waals heterostructures and interface the results with the AUTOMATA and COMPASS workflows. Publish the results in peer-reviewed journals, present them at conferences, and
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fabricate, functionalize, and characterize electrochemical interfaces, prepare biomolecular recognition elements, and perform electrochemical characterization and validation of biosensors. The position also
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Research Engineer - Tools developer for LSQUANT platform (Theoretical and Computational Nanoscience)
Waals heterostructures. The project will contribute to the establishement of such a platform and interface with in-house computational artillery of TCN (www.lsquant.org) and to demonstrate predictive
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towards the development of technological applications based on these materials such as electronics, bioelectronics and biosensing, neural interfaces, etc. The activities cut across different scientific
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the development of technological applications based on these materials such as electronics, bioelectronics and biosensing, neural interfaces, etc. The activities cut across different scientific aspects, from
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. The researcher will fabricate, functionalize, and characterize sensing interfaces, prepare biomolecular recognition elements, and perform electrochemical characterization of biosensors. The position also involves
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engineering, by controlling the precise arrangement of atomic layers and their relative angle and interface quality. Main Tasks and responsibilities: The candidate will be involved in the international (Europe
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-dimensional materials for brain cancer monitoring and detection of tumor recurrence. This is a collaborative effort with colleagues from Università di Pisa, Instituto de Ciencia de Materiales de Madrid-CSIC
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-dimensional materials for brain cancer monitoring and detection of tumor recurrence. This is a collaborative effort with colleagues from Università di Pisa, Instituto de Ciencia de Materiales de Madrid-CSIC
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). The objective of the project is to extend the range of operando experiments with scanning tunnelling microscopes (STM) to multiphase environments, namely solid/liquid interfaces. To answer a wide range of