Event
Release of a Distributed Cluster Morphogenesis Framework
1 reports · 1 sources
Ray Verma and other authors released a modular framework that combines neural cellular automata (NCA) with existing site selection and collision-aware control for swarm robot morphogenesis. Its core change is that already-placed robots identify new attachment sites by updating and sharing local NCA states, allowing the swarm to grow incrementally at deployment without a predefined site list. The authors also propose offline sparse-retention fine-tuning (simulating partial attachment) and a false-positive loss that penalizes activation of invalid sites, to bridge NCA growth and incremental physical assembly. Simulations show that multiple lattice morphologies can be generated and scaled to hundreds of robots, and that fine-tuning yields a significant improvement in morphology accuracy; Crazyflie quadrotor experiments validated the integrated execution pipeline, but the relative observations of the robots used were reconstructed by external tracking. All the above results are as reported by the authors.
Report timeline
- Distributed Swarm Morphogenesis with Neural Cellular Automata
The study proposes a modular framework that combines neural cellular automata (NCA) with existing site selection and collision-aware control for swarm robot morphogenesis. The framework introduces a decentralized attachment-site discovery mechanism in which robots already in place identify new attachment sites by updating and sharing local NCA states, eliminating the need for a predefined site list during deployment. The authors also propose offline sparse-retention fine-tuning and a false-positive loss to bridge NCA growth and gradual physical assembly. Simulations scale to several hundred robots and improve morphology accuracy, and experiments with Crazyflie quadrotors validate the integrated execution pipeline.
arXiv cs.RO ·