As the designers received feedback from the athletes, the next step was to make it real. The teams dove into the meticulous work of creating the prototypes through their disciplinary expertise, an instinct that the team calls “an intuitive read.”
Many of the inspiration points kicked back through the AI programs are laughably wild. If they were translated into a prototype, the shoe would never hold up to the rigors of a three-hour tennis match on a sweltering Melbourne hard court or the 360-degree movements of an exhausting full-court NBA game. Does this read like a basketball shoe? The designers are tasked with asking, if not, why not? Conversely, a successful prototype, flickering with potential to become a real performance product, made the teams ask themselves, if so, how so? What insights from A.I.R. could someday help shape future product? To get the answers, the teams tapped every advanced tool at Nike’s disposal to create the prototypes, like immersive 3D sketching, computational design and 3D printing and simulation, along with traditional methods like hand sketching.
Take paralympian and tennis player Diede de Groot. Diede needs her feet to be locked into her wheelchair, and her shoes can’t be a distraction from her game. The team couldn’t use Air as underfoot cushioning in the traditional sense, but the expression of Air still needed to be authentic to her vision. The solution: design her shoe to quickly and easily clip into her wheelchair and lock her in, similar to a cycling shoe, while using Air on the upper to provide the containment she needs. Digital methods like simulation allowed designers to test the support, containment and durability of de Groot’s shoe computationally before a real prototype was even printed.
“A beautiful part of the project was getting such diverse minds all around the table creating together, layering different techniques and technologies over one another,” says Chen. “We were constantly learning from each other. It’s the Nike way of uniting different disciplines to create something new.”
Nike’s manufacturing power gave the teams the ability to produce physical components quickly to evaluate design forms in person, in real time. This is when the full horsepower of Nike’s facilities is on display, from rapid 3D printers in the Concept Creation Center that verify design theories to Nike’s Air MI machines — located in a building a mile away from the World Headquarters — that can mold a never-before-seen Air unit proposed by an athlete.
Manufacturing added another benefit to the design process: seeing subtle imperfections within the real object that can then be improved.
Tennis pro Zheng Qinwen’s concept was inspired by her Chinese heritage, with Nike Air appearing in the form of a coiled dragon to provide support and containment, the dragon scales acting as a durable traction design.
Back in the workspace, a designer holds up Qinwen’s sample, the light above the table illuminating the Total Orange of the serpentine Air unit. The indentations of the clip, an arrangement of dragon scales made to perform like traction, perfectly line up to the geometry of the Air unit beneath, a feature that’s clear only when examined up close.
In an earlier prototype, the textures of the clip didn’t mirror the textures of the unit underneath, so Nike’s computational designers made a new sample and went deep on the pattern so the scales matched the geometry of the unit perfectly. Plus, the pattern was computationally reinforced in high-wear areas, an insight that followed extensive tennis wear-testing data pulled from the NSRL.
“Not many people will see the level of obsession that goes into these final designs,” the designer says. “The important thing is that we did it.”