Robot-assisted walking offers children who are unable to walk new avenues for participation in their communities in addition to health benefits. Disappointingly, most children cannot access this impactful technology. One of every 1000 children cannot walk due to cerebral palsy,1 and many others cannot walk due to less common neurodevelopmental disorders such as Spina Bifida or Rett Syndrome. The inability to walk impacts most areas of daily life. Despite this large need, there are few, if any, interventions available to facilitate participation and motor function.2-4 Recently, the study team have learned that robot-assisted walking can improve motor function and reduce the health impacts of physical inactivity that these children often experience. Robot assisted walking aids attach to a walker and use robotic legs to power a child's leg movements, allowing them to use their body in new ways from an upright position. When used in home and community settings, it also creates new avenues for participation in daily life that are critical for supporting cognitive, communication and social development. However, this technology is expensive and requires adult support, limiting access to families with adequate resources. The need exists to create equitable opportunities to access robot-assisted walking to improve multidimensional outcomes for children who cannot walk. Many innovative rehabilitation interventions do not cross the chasm from evidence to implementation. Knowing this risk, this program is strategically using implementation science methods to identify and study strategies to support implementation. Through previous studies, school settings have been identified as optimal for facilitating equitable access to robot-assisted walking to promote participation and function-based improvements. The research team conducted a study to identify barriers and facilitators to implementation in a school setting and have subsequently selected strategies to address the barriers and leverage the facilitators. Before confidently launching a planned multisite trial to examine implementation and effectiveness of robot-assisted walking in the school setting, the research team needs to pilot the implementation strategies within the planned study design. The proposed pilot study will optimize research methods to ensure a future multisite trial provides the necessary evidence for sustainable school implementation and equitable access to robot-assisted walking.
Inclusion Criteria:
Exclusion Criteria:
Participants will use a robotic walking aid in their school setting.
Participants will engage in their usual school routine.
Calgary, Alberta T2N1N4, Canada
Robotic Walking for Children Who Cannot Walk
Clinical Impacts of Structured Robotic Gait Training Programs
Innovative Robotic Gait Trainer Use to Enable Walking in Children With Cerebral Palsy GMFCS III and IV
The Effect of Robot-assisted Walking Training on Motor Functions, Respiratory Parameters and Functional Capacity in Cerebral Palsy
Effectiveness of Robotic Gait Training and Physical Therapy for Children and Youth With Cerebral Palsy
Development of a Robotic Ankle Assist Device
Gait Improvement After Increased Frequency of Robot-assisted Gait Training in Cerebral Palsy Children
A Motor Learning Intervention to Target Walking Performance in Ambulant Children With Cerebral Palsy