Civic science and social mobility
GoBabyGo project receives NSF funding to explore new concepts of mobility and infant development
Although these babies have been highly mobile, new findings suggest that as toddlers they may have serious limitations in using their wheeled mobility for socialization. This situation was a wakeup call for Cole Galloway, who leads the GoBabyGo research team.
Exercise and ANS
“Children receiving mobility training alone may not be learning to use their mobility for socialization,” says Galloway, who is a professor in the UD Department of Physical Therapy. “Given the lifelong importance of social skills, it was an obvious focus of our next mobile robot project.”
A three-year $515,000 grant from the National Science Foundation will support this new work, which has two basic goals.
The first is to determine whether developmental changes are triggered by active driving itself or are simply the result of the enriched physical and social environment children are exposed to during mobile robot training.
For this aspect of the research, a pair of infants will be placed in an innovative two-seat robot in which both babies have joysticks but only one drives the robot. This scenario will provide both infants with the same physical and social experiences but only one child with actual control over where the robot goes.
The second aim of the research is to establish whether robot-guided social mobility can produce advanced socialization in combination with driving skill.
Galloway explains that as soon as typically developing infants start walking, they tend to follow other people around. He believes that this co-emergence of mobility and socialization, also known as social mobility, is critically deficient in many children with mobility impairments.
Working with long-time collaborator Sunil Agrawal, Galloway saw the potential to use existing robotic technology to advance the social mobility of infants. Specifically, they will use a technology package Galloway calls “soft social assembly” which links mobility experiences to social interaction.
“Basically, as the baby is learning to drive, the robot can either bias her position toward areas where other kids are playing together, or let her drive solo without any bias or social assistance,” Galloway says.
“We predict that over months of daily training, the socialization gained when the robot is assisting will be maintained when the baby drives solo and even when she is outside the robot. Our grand prediction is that when the baby starts walking, she will immediate seek out and enjoy social settings like a much older child.”
As with much of Galloway’s work, this research will be carried out in UD’s Early Learning Center, the “test track” for the GoBabyGo project.
“As with our other work, it’s intricately tied to the community what we call ‘civic science,’” he says. “We believe that our lab makes the biggest leaps forward for our community of kids and families when we partner with everyone involved in their lives, including their teachers, their families, their therapists, and their peers.”
The research is funded by National Science Foundation grant BCS-1252876.
The GoBabyGo project recently moved into the Pediatric Mobility Lab and Design Studio at the University's Science, Technology and Advanced Research (STAR) Campus.
Article by Diane Kukich