Davide Zappetti

About

Davide Zappetti is a robotics researcher whose work sits at the fascinating intersection of soft robotics, tensegrity structures, and bio-inspired design. His research focuses on developing variable-stiffness robotic systems that draw inspiration from biological organisms to achieve adaptive locomotion, resilience, and safe operation in unstructured environments. Zappetti's most significant contributions center on tensegrity-based robotic architectures. His pioneering work on phase-changing material tensegrity structures (91 citations) demonstrated how soft robots could dynamically modulate stiffness, while his variable-stiffness tensegrity spine (87 citations) translated vertebrate biomechanics into functional robotic systems. His bio-inspired tensegrity fish robot elegantly reproduced rainbow trout locomotion, and his soft robot for terrestrial exploration (62 citations) addressed practical swarm robotics deployment challenges. Across his portfolio, Zappetti has accumulated over 390 citations, reflecting strong community recognition in the soft robotics field. His more recent work explores collision-resilient dual-stiffness platforms and reinforcement learning approaches for damage minimization, suggesting a broadening research agenda toward robust autonomous systems. For students interested in the convergence of mechanical design, biomimicry, and adaptive robotics, Zappetti's body of work offers a compelling roadmap for building robots that are simultaneously strong, flexible, and biologically informed.

Research Focus

Key Achievements

Top Papers

1. 1
   Phase Changing Materials-Based Variable-Stiffness Tensegrity Structures

   91 citations · 2019
2. 2
   Variable-stiffness tensegrity spine

   87 citations · 2020
3. 3
   Bio-inspired Tensegrity Soft Modular Robots

   65 citations · 2017
4. 4
   Bio-inspired Tensegrity Fish Robot

   63 citations · 2020
5. 5
   A Soft Robot for Random Exploration of Terrestrial Environments

   62 citations · 2018
6. 6
   Dual Stiffness Tensegrity Platform for Resilient Robotics

   24 citations · 2022
7. 7
   Unleashing Soft Modular Robots by means of a Bio-inspired Connection Strategy

   2 citations · 2022
8. 8
   A Reinforcement Learning Method to Minimize the Damage on a Falling Ballbot

   2 citations · 2024
9. 9
   Variable-Stiffness Tensegrity Modular Robots

   2 citations · 2021

Key Collaborators

Contact & Links