The neuroscience behind motor learning

Research into motor learning and neuroplasticity in health and disease is both timely and critically important, considering the importance of learning new skills for success in daily life, and by the increasing prevalence of neurological disorders and the shift toward personalized medicine. Neurological conditions such as stroke are impacting more people than ever, largely due to aging populations. Understanding the mechanisms of motor learning and neuroplasticity is essential for developing more effective, individualized rehabilitation strategies to improve patient outcomes.
Recent advancements in brain imaging technologies have revolutionized the study of neuroplasticity, enabling exploration at structural, functional, and neurochemical levels with exceptional precision. Techniques such as functional MRI (fMRI), advanced diffusion weighted imaging (DWI), myelin-sensitive imaging (MWI), (intracranial) electroencephalography (EEG), and transcranial magnetic stimulation (TMS, also combined with EEG) allow researchers to measure the neural underpinnings and dynamic brain changes during and as a result of motor learning. These tools enhance our understanding of how the brain adapts during motor skill acquisition, and facilitate the design of targeted interventions for neurological recovery.
This research bridges neuroscience and clinical practice, tackling critical societal challenges while advancing our understanding of brain plasticity through innovative technologies. By presenting our work on motor learning using advanced imaging techniques, this symposium fosters progress in both fundamental science and practical applications, training the field to address the needs of our society.

1) Understand the neural processes underlying motor learning and the role of sleep
2) Understand the mechanisms of experience-induced neuroplasticity
3) Learn about multiple state-of-the-art imaging techniques and their applications in (motor) learning 

The target audience for this symposium includes neuroscientists, clinicians, and researchers working in the field of motor control and learning, neurorehabilitation, and translational neuroscience. It is particularly relevant for those studying neuroplasticity, brain imaging, and motor control and learning. Additionally, researchers with an interest in cutting-edge imaging techniques and their applications (in motor learning) will find this symposium invaluable.