Fizik 3D Prints Bicycle Saddles that Adapt to the Cyclist’s Position

Fizik is an Italian bicycle equipment brand that belongs to the Selle Royal group. Mainly known for its saddles and shoes for cyclists, the company recently unveiled a brand new concept of modular saddles for its Argo series. It interested us in particular because its shell is entirely 3D printed, using the process developed by the manufacturer Carbon. Available in different versions, the saddle uses a lattice structure that provides both comfort and performance to cyclists, while optimizing weight. In the 140 mm wide version with carbon rails, the saddle weighs only 190 grams!

In recent times, projects involving additive manufacturing and bicycles have been developing with lightning speed, especially ones that focus on the saddle, the key element for any cyclist. By relying on 3D printing technologies to design this component, brands can provide a better seat and therefore greater stability and comfort. This is mainly due to the use of topology optimization, which makes it possible to minimize the amount of material used depending on the load exerted, and therefore reducing the weight on a certain part while maximizing its strength.

Photo Credits : Fizik

Features of the Argo Adaptive saddle by Fizik

In this case, Fizik decided to use Carbon’s photopolymerization technology, called Digital Light Synthesis. In fact, the company has already been working with the American manufacturer since 2019. Together they created the Argo Adaptive, a bike saddle that combines both the Italian company’s expertise and the functionality of Carbon Design Engine software. This is an online lattice structure generator, that automates the lattice creation process. As a result, the teams were able to design a saddle with optimal damping by zone, depending on the loads exerted. Regardless of the rider’s posture or buttock position, the shape of the saddle remains adapted. The Argo Adaptive saddle therefore relieves pressure, especially when cycling uphill and in an aerodynamic position.