Gallery

About Project

The lines between fashion, armor, and fine art are officially gone. Just look at these insane, mirror-finish pieces straight out of the studio.

From the aggressive, biomechanical flow of the scorpion shoulder piece to the lethal romance of the crossed revolvers, this collection is pure futuristic energy. There鈥檚 a beautiful tension here鈥攚eaponized themes like the arrows and heart sunglasses are paired with hyper-contoured anatomy, like the jaw-dropping liquid-chrome torso armor. Every piece feels alive, blurring the boundary between high-concept jewelry and cybernetic armor.

What makes these pieces truly mind-blowing isn’t just the avant-garde design; it鈥檚 the execution. Looking at the full collection, you realize that if these were cast in solid metal, they鈥檇 be entirely too heavy to wear. By utilizing 3D printing, the designer achieved complex, hollow geometries that remain incredibly lightweight on the body. But the real magic is in the post-processing. Eliminating 3D print layer lines to get that flawless, molten-mirror reflection requires master-level sanding and electroplating. It鈥檚 a perfect showcase of how digital craftsmanship is rewriting the rules of the runway.

If you鈥檙e a designer looking to bring your own wild, complex concepts to life without compromising on the finish, FacFox is the manufacturing partner you need. Whether you’re working on high-fashion wearable armor, intricate jewelry, or custom sci-fi props, FacFox specializes in ultra-high-resolution SLA 3D printing and premium surface finishing. From flawless chrome plating to glossy paints, they bridge the gap between a digital file and a runway-ready masterpiece. Bring your boldest designs to FacFox, and let’s make them real.

Solution

• Step 1: 3D Modeling and Optimization. The avant-garde jewelry and armor pieces were digitally sculpted in specialized CAD software, where the structures were hollowed out to ensure the final products remained incredibly lightweight for the wearer.
• Step 2: SLA 3D Printing. The optimized digital files were loaded into high-precision SLA (Stereolithography) 3D printers, and the complex geometries were built layer by layer using a photopolymer resin to capture the ultra-high-resolution details.
• Step 3: Post-Curing and Support Removal. The printed resin parts were carefully removed from the build plate, the temporary support structures were detached, and the pieces were placed in a UV curing chamber until maximum structural strength was achieved.
• Step 4: Meticulous Hand Sanding.聽To eliminate all visible 3D print layer lines, the surfaces were meticulously hand-sanded using progressively finer grits of sandpaper until a perfectly smooth, seamless foundation was created.
• Step 5: Conductive Coating Application.聽Because resin is non-conductive, a specialized conductive layer (such as copper paint) was evenly applied to the surfaces of the parts to prepare them for the chemical bonding process.
• Step 6: Electroplating.聽The prepared pieces were submerged into an electroplating bath, where a electric current was used to deposit a thin, durable layer of metal onto the conductive resin core, resulting in a flawless, molten-mirror chrome reflection.