Sparse 3D Locomotion

NEWHOT

Key Features

The controller processes a head-mounted solid-state lidar scan.
Jump-up, brachiation, and jump-down experts contribute to the unified policy.
An attention encoder and recurrent memory interpret sparse observations over time.
Passive hook end effectors provide reliable bar interaction.
Training accounts for lidar noise, battery-voltage sag, and actuator thermal limits.
The robot completed 14 of 15 trials across three bar configurations.
Brachiation speeds reach up to 0.5 meters per second.
A separately trained policy ducks beneath thin overhead obstacles.

An attention-based encoder and recurrent memory process raw lidar returns. A phase-scheduled teacher-student pipeline combines separate jumping, brachiation, and landing experts into a perceptive policy. Hardware transfer includes sensor noise and actuator constraints, while passive hook end effectors support robust bar contact.


The work is useful for studying agile whole-body control under sparse perception. The reported hardware evaluation completes 14 of 15 traversals across three bar configurations and also demonstrates a separately trained ducking policy. These are research results on a specific setup, not a downloadable general-purpose robot controller.

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