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    Revolutionizing Rehabilitation with 3D-Printed Exoskeletons and AI

    Estimated reading time: 2 minutes

    Advancements in rehabilitation technology are opening new doors for stroke survivors and individuals with neuromuscular disorders. Pioneering the field is Piotr Falkowski, a recipient of the NCBR Lider program, whose groundbreaking work involves a 3D-printed exoskeleton for upper limb rehabilitation. This lightweight, external mechanical structure aids in joint movement exercises for shoulder and elbow mobility.

    Falkowski’s innovation goes beyond physical support; it incorporates artificial intelligence (AI) for automatic error analysis during patient use. The exoskeleton, designed to be worn during physiotherapy, can be utilized by those partially or fully immobilized. It not only facilitates movements but also acts as a personalized “trainer” by generating resistance during exercises.

    The project aims to make the exoskeleton lighter and more user-friendly for home-based rehabilitation. AI algorithms, developed by a multidisciplinary team of engineers, programmers, and physiotherapists, will analyze movements, detect errors, and ensure proper rehabilitation technique. The potential impact extends beyond medical facilities to community centers, enabling seniors to exercise independently or under remote professional guidance.

    This fusion of 3D printing, robotics, and AI showcases a transformative approach to rehabilitation, promising improved outcomes and enhanced accessibility.

    Driving Rehabilitation: The Role of 3D-Printed Exoskeletons and AI

    In the realm of rehabilitation robotics, Piotr Falkowski’s interdisciplinary team is pioneering a two-year project funded by NCBR. Their goal is to refine a 3D-printed exoskeleton for upper limb rehabilitation, catering to stroke survivors and individuals with neurological disorders.

    The lightweight exoskeleton not only aids in movement but also leverages AI for error analysis. Falkowski emphasizes the need for the device to be lighter and potentially stiffer, requiring material exploration and optimization for home use. The AI component, crucial for effective control, will analyze movements against expected trajectories and identify anatomical compensations or functional errors.

    Falkowski envisions the widespread deployment of such devices beyond medical facilities, reaching community spaces like senior clubs. This convergence of bioengineering and rehabilitation not only benefits patients but also alleviates the burden on caregivers.

    As technology intertwines with medicine, projects like Falkowski’s exemplify the transformative potential of combining engineering prowess with physiotherapy expertise. The result: a promising leap forward in enhancing the lives of stroke survivors, accident victims, and those with neurological challenges.

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