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Field
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implants for personalised orthopaedic reconstruction. The PhD will focus on the design and optimisation of porous and lattice orthopaedic implant architectures with tailored mechanical properties and long
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of computational fluid dynamics (CFD). Mastery of applied mathematics and numerical methods. Resolution and discretization of partial differential equations (PDEs) and the algorithm applied to the simulation
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have advanced molecular biology skills • You have developed and optimised new experimental protocols • You keep meticulous records Competences • You can work in an interdisciplinary team • You can plan
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irreversibly electroporated areas based on measurements of local electrograms and electrical impedance. This precise delimitation will enable optimisation of pulsed field ablation, maximising its effectiveness
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in dynamic environments. The role will involve the design and analysis of control algorithms based on mathematical and optimisation tools, their implementation in Python, validation through simulations
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optimisation of analytical methods for VOC characterization. Chemical analysis of air and rainwater samples using advanced instrumentation. Data processing, statistical analysis and interpretation of large
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and their application using fluorescence lifetime imaging for elucidating membrane tension propagation in living cells. The successful candidate will be responsible for: Optimising imaging conditions
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on the design of image analysis strategies tailored to their projects. — Develop and optimise analysis pipelines for wide-field, confocal, super-resolution (STED) and lightsheet microscopy. — Implement
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electrical and structural mechanisms driving arrhythmia in individual patients. This project will develop a patient-specific cardiovascular digital twin to support the planning and optimisation of AF ablation
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, logic synthesis, functional verification and power-performance optimisation for CMOS technology. The position is framed within the following research areas on the project: (i) Designing and implementing