Thesis Project Form
Title (tentative): Ultrasound-Derived Muscle Dynamics as a Potential Control Signal for Lower-Limb Prostheses during Walking| Thesis advisor(s): Casadio Maura, Massimo Sartori, Marco Carbonaro, University of Twente (Enschede, The Netherlands) | E-mail: |
| Address: Via Opera Pia 13, 16145 Genova (ITALY) | Phone: (+39) 010 33 52749 |
Description
Motivation and application domain
Lower-limb prostheses require control strategies that can adapt to the user’s movement intention and to changing locomotion conditions. Surface electromyography is commonly investigated for myoelectric control, but it can be affected by noise, electrode placement and signal variability. Ultrasound imaging may provide complementary information on muscle morphology and tissue motion. This thesis investigates whether ultrasound-derived muscle features can be considered as candidate control signals for future lower-limb prosthetic applications.
General objectives and main activities
The project aims to extract and compare neuromuscular, morphological, kinematic and kinetic signals during walking at different speeds. The main activities include definition of an experimental pipeline, multimodal data synchronization and processing, muscle fascicle tracking, optical-flow analysis, gait-cycle segmentation, feature extraction and comparisons across speeds and participants.
Training Objectives (technical/analytical tools, experimental methodologies)
The project provides training in experimental gait analysis, ultrasound and EMG processing, motion capture, multimodal synchronization, MATLAB programming, optical flow and OpenSim musculoskeletal modelling. It also develops skills in signal processing, data visualization and interpretation of biomechanical results.
Place(s) where the thesis work will be carried out: University of Twente (Enschede, The Netherlands)
Additional information
Pre-requisite abilities/skills: Basic knowledge of biomechanics, human anatomy and physiology. Familiarity with gait analysis, signal processing. Basic programming skills (MATLAB), and an introductory understanding of motion capture, electromyography and musculoskeletal modelling. More specialized skills in ultrasound tracking, optical flow, OpenSim and multimodal synchronization were developed during the thesis project.
Maximum number of students: 1