Our goal is to develop a scientific understanding of a subtle yet significant motor disruption in autism spectrum disorder that appears to underpin its aetiology and development. By focussing our attention on the computational characterisation of this ‘autism motor signature’, we aim to better characterize the motor disruption in autism spectrum disorder to better understand the role of movement in child development and in neurodevelopmental disorder.
We do so by combining innovative engineering of new wearable tech with smart games assessments for early, accessible instruments that measure children’s psycho-motor patterns in fun and playful ways. These new tech innovations are a significant and proven step-change for research, and may provide powerful new tools of assessment in the clinic, or the classroom.
We bring together the disciplines of psychology, education, biomedical engineering, electronic and electrical engineering, and neuropsychiatry for a common purpose. Our research themes include:
- Aetiology and ecological assessment of autism & neurodevelopmental disorders
- Smart tech innovation for a step change in research and clinical practice
- Movement as an early bio-marker for autism
- Brainstem basis of motor disruptions in autism
Motor disruption is a fundamental part of autism, yet it has been under-studied and is not recognized in the diagnostic criteria. It therefore offers a new target for intervention and therapy. We work closely with industry partner Harimata, health partners in NHS Scotland and the Gillberg Neuropsychiatry Centre, as well as with colleagues at the University of Pisa and at Southern California University.
We are currently funded through an EU H2020 SMEI award to Harimata for a multi-site diagnostic trial; the EPSRC for wearable tech development; the Carnegie Trust for the Universities of Scotland for serious game paradigm development; the ESRC for scholarship into movement in autism; and from generous philanthropic support through the Hawthorne Fellowship in Autism Innovation.