Human stability in dynamic marine environments
Study of postural response and Motion Induced Interruptions, linking biomechanical behaviour with vessel-motion and seakeeping concepts.
My current work connects human movement, musculoskeletal simulation and marine engineering. I focus on traceable modelling, sensitivity analysis and critical validation rather than treating software output as evidence by itself.
Final-year Erasmus+ research internship at DITEN, University of Genoa, supervised within a multidisciplinary engineering context.
Study of postural response and Motion Induced Interruptions, linking biomechanical behaviour with vessel-motion and seakeeping concepts.
Musculoskeletal modelling, inverse kinematics, inverse dynamics, static optimisation and controlled simulation used as complementary levels of analysis.
Interpretation is based on coherence between kinematics, force-platform data, assumptions, reserve actuators and sensitivity scenarios.
A researcher-style workflow should make uncertainty inspectable, not hide it behind polished figures.
State the physical question, coordinate systems, units and experimental limits.
Use markers and external loads to reconstruct movement and joint-level quantities.
Compare scenarios and numerical assumptions to identify fragile conclusions.
Separate observations, model-derived results and hypotheses for future validation.
Areas where my existing background can support future doctoral or industrial R&D work.
Postural control, musculoskeletal simulation, movement reconstruction and model-based interpretation.
Radar, sonar, stochastic signals, detection, Kalman filtering and multisensor systems.
Numerical simulation, dynamic systems, optimisation, validation and reproducible analysis.