The project has spurred other potentially valuable insights for vendors of wearable items. At present, for example, jewelry making is a laborious process, requiring assembly from multiple individual parts. But the HP team’s experiments are helping them understand how pieces that are multi-jointed, and that feature areas of both flexibility and strength, can be created in a single unit.
“It suggests we have the potential to reduce manufacturing steps and really streamline and reduce the cost of the wearable manufacturing process,” says Fitzhugh.
The project is helping HP refine its own 3D print technology at a foundational level too. “Efforts like this can tell us where strength, color, or finish is important or not,” he says. “That helps us understand how we can further develop the technology to better meet needs of users.”
It also points to additional potential applications and uses for the technology – for ID bands, sportswear, or household accessories, perhaps – that hardware researchers don’t typically have the opportunity to explore. With that in mind, many of the wearables created during the collaboration are both able to move kinetically and contain electronic elements.
“Alex is designing things that we would never have the bandwidth to think about or design expertise to create,” Fitzhugh says.
That’s likely to prove valuable when the next generation of HP 3D print technologies become commercially available.
“Designers in many fields, are not used to creating with the freedom that this technology can give them,” says Ju. “This work tells us a lot about what needs to happen to develop an ecosystem in which people can take full advantage of the capabilities we’re hoping to provide.”