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This study presents a fly-inspired recurrent controller that successfully governs humanoid locomotion in simulation by coupling thousands of continuous neural states to a Unitree G1 robot. The research identifies critical dependencies on carried motor state, demonstrating that resetting these internal dynamics at every step causes total failure, whereas specific state substitutions have no effect on output actions. These findings provide a concrete foundation for understanding the circuit structures and control resources required for robust embodied AI agents.
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Humanoid Locomotion with a Fly-Inspired Recurrent Controller

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arXiv:2609.27001v1 Announce Type: new Abstract: We investigate humanoid locomotion with a fly-inspired recurrent controller and identify the pathways supporting its deployed behavior. The controller couples 3,609 continuous neural states to a simulated Unitree G1 through body-observation projections, a motor-neuron-labelled readout, and joint servos. We formulate this neural-body feedback system and evaluate a fixed checkpoint across seven terrain instances, three speeds, and three initial yaw offsets. It completes 61/63 conditions under a survival-and-forward-progress criterion; a privileged reference completes 62/63. At nominal yaw, resetting the recurrent motor state before every policy call changes success from 19/21 to 0/21. Conversely, depth and upstream-state substitutions at 252 recorded states leave actions unchanged, with zero measured descending output throughout the intact rollouts. Recorded trajectories and state-matched images connect these findings to sustained movement, lateral drift, and termination events. The study characterizes an embodied recurrent control system whose tested locomotion is supported by direct body-and-command input and carried motor state, providing a concrete basis for subsequent comparisons of circuit structure and control resources.

Abstract:We investigate humanoid locomotion with a fly-inspired recurrent controller and identify the pathways supporting its deployed behavior. The controller couples 3,609 continuous neural states to a simulated Unitree G1 through body-observation projections, a motor-neuron-labelled readout, and joint servos. We formulate this neural-body feedback system and evaluate a fixed checkpoint across seven terrain instances, three speeds, and three initial yaw offsets. It completes 61/63 conditions under a survival-and-forward-progress criterion; a privileged reference completes 62/63. At nominal yaw, resetting the recurrent motor state before every policy call changes success from 19/21 to 0/21. Conversely, depth and upstream-state substitutions at 252 recorded states leave actions unchanged, with zero measured descending output throughout the intact rollouts. Recorded trajectories and state-matched images connect these findings to sustained movement, lateral drift, and termination events. The study characterizes an embodied recurrent control system whose tested locomotion is supported by direct body-and-command input and carried motor state, providing a concrete basis for subsequent comparisons of circuit structure and control resources.

19 pages: 8 main text, 1 references, 10 supplementary material; 5 main and 10 supplementary figures. Simulation study

Robotics (cs.RO)

arXiv:2609.27001 [cs.RO]

(or arXiv:2609.27001v1 [cs.RO] for this version)

https://doi.org/10.48550/arXiv.2609.27001 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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