In classical mechanics, materials follow a positive Poisson’s ratio: pull them in one direction and they get thinner in the others. Rubber bands, muscles, metals — same rule. But this structure breaks that rule. This is a tensegrity-based system (tensional integrity), where stability comes from a balance between continuous tension and isolated compression. When you apply force, the load redistributes through the entire network instead of concentrating locally. The result? 🔹 Pull it → it expands in all directions 🔹 Push it → it contracts in all directions This behavior is related to auxetic mechanics (negative Poisson’s ratio), where geometry — not material — determines how forces propagate. Why this matters: • Used in soft robotics and adaptive materials • Inspires impact-resistant and morphing structures • Mirrors how biological systems distribute stress efficiently Your body is closer to this than you think. Fascia, connective tissue, and even breathing mechanics rely on 3D f...