James Wilson, a 14 year old in New Zealand, suffers from Lennox-Gastaut syndrome. It’s a form of epilepsy which left him disabled, and as a result, he needs to wear orthotic molds on his feet to help him walk.
The molds were hot, uncomfortable, and expensive – at least until now. James’ father, Dr. Douglas Wilson, is a senior lecturer and the head of Auckland University’s transportation engineering group, and it pained him to see his son’s discomfort. So the elder Wilson decided to come up with a way to free his son from the splints he’d been forced to wear for the last 10 years.
As it stood, the splints took three months to be custom made in the United States – and they cost a whopping $1,000 a pair. So Dr. Wilson contacted pediatric neurologist Dr. Rakesh Patel with an idea to solve the problem.
The result of their collaboration, working in conjunction with Professor Xun Xu, a professor and lecturer on 3D printing, was a brace that was better, cheaper, and faster to make aimed at providing disabled children a better hope of walking in comfort. They call it the Smart Splint, and the molds used to produce it cost just $50 – and take just a single day — to produce. The splints help realign a child’s feet and promote easier movement.
The splints are now set to undergo clinical trials with the support of four universities, and the team hope to patent and commercialize the technology to print prosthetic legs for amputees worldwide as well.
A neurologist at Starship Hospital, Dr. Patel and Wilson came up with the idea 18 months ago, and they created four prototypes as proofs of concept for children with cerebral palsy, muscular dystrophy, and other disabilities.
“With cerebral palsy, because of their neurological problem their feet go in odd shapes because the muscles pull in different directions,” Dr. Patel says. “It means they can’t walk properly so what we try to do is correct the position. It improves the chances of walking and getting them upright and more mobile.”
Dr. Patel said the splints can be used to help people with stroke, spinal cord injury, polio, multiple sclerosis, peripheral neuropathy, arthritis, and even perhaps even broken bones.
Engineering student Ella Meisel and her project partner, student Phillip Daw, joined the team and spent a year developing the process.
Clinical trials will be completed by engineering graduate students, and they hope to have results within the next six months.
The Smart Splints are made by creating electronic scans or using photographs of the affected limb, a mold is printed which represents an exact fit from the digital splint, and the splints are then 3D printed.
What do you think of these Smart Splints? Do you know of any other projects now underway that use 3D printing and design to solve medical problems? Let us know in the 3D Printed Smart Splints forum thread on 3DPB.com.
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