
FIZO Lab
3D Printing: A Footwear Revolution
3D printing, or additive manufacturing,revolutionizes footwear by building shoes layer-by-layer
from digital designs. This enables a flexible, made-to-order model that reduces inventory waste
and minimizes material use—combining precision production with inherent sustainability.

DLS™: The FIZO Standard
Carbon Digital Light Synthesis™ (Carbon DLS™) is a breakthrough resin-based 3D printing process that uses digital light projection, oxygen-permeable optics, and engineering-grade materials to produce data-driven, high-performance and protective athletic products at scale through a global network of expert production partners.
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Laboratory-Proven
Compared to the upper limits of cushioning data in standard running shoes, FIZO Glider 001's 3D-printed midsole delivers outstanding metrics.
With width of 1.65mm, it achieves lower peak G-force values in both forefoot and heel than leading maximum-cushion shoes, while maintaining exceptional shock absorption performance.
The structural advantage of our 3D-printed outsole lies in its unique stability: even when utilizing softer materials with generous thickness,
it maintains complete motion stability throughout the gait cycle—all while keeping peak impact forces below 6G.


EPU 46
Carbon’s portfolio of premium elastomeric materials are rigorously tested to offer a wide variety of mechanical properties suitable for various high-performance applications. The material used for the Fizo’s design is EPU 46, an energy-returning material that offers a full spectrum of customizable colors and tunable material stiffness from Shore 78A to Shore 56A. This elastomer is 40% bio-based and is designed for solvent-free cleaning and resin reclaim to minimize waste.




Energy Return
For lighter runners, we respond with heightened responsiveness. The tuned lattice structure actively propels you forward, enhancing energy return to boost running efficiency and performance.

Energy Absorption
For heavier runners, we prioritize cushioning and stability. The lattice is calibrated to intelligently absorb and dissipate impact forces. This protects knees, ankles, and muscles by reducing stress and the risk of injury.




