EigenBot

Thu, 07 May 2026 00:00:00 +0000

I use EigenBot as a way to study modular limbs where the hardware, sensing, and controller are all tightly coupled. A modular robot is appealing because the same building blocks can become many morphologies, but that flexibility makes control harder: the controller has to reason about contact, compliance, and changing body geometry.

My part of the work focuses on force-sensing experiments, full-limb behavior, and early neural-controller results. The full-limb platform gives a concrete test case for asking whether local sensing can support useful global motion, especially when the robot is assembled from repeated modules rather than a single monolithic mechanism. See the and watch the .

Sources I leaned on: Yim, Shen, Salemi, Rus, Moll, Lipson, Klavins, and Chirikjian’s modular self-reconfigurable robot survey; Cheney, Bongard, Lipson, and Clune’s evolved soft robot work for morphology-control coupling; and recent differentiable or neural locomotion papers as context for data-driven controllers on physical robots.

Keywords: EigenBot, modular robotics, force sensing, robot limbs, neural control, embedded sensing, physical robot experiments.

Bio-Inspired Distributed Neural Locomotion Controller (D-NLC) for Robust Locomotion and Emergent Behaviors

Wed, 01 Jan 2025 00:00:00 +0000

Publication entry sourced from the resume. This work is associated with the EigenBot distributed neural locomotion controller project.

Neural Control | Henry Kou

EigenBot

Bio-Inspired Distributed Neural Locomotion Controller (D-NLC) for Robust Locomotion and Emergent Behaviors