Volume 1, Issue 2 — August 2026
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KAGG:2608.00010
doi: 10.5803/kagg.2608.00010
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Velocity Interface Contracts: Specifications and Verification for Legged Robot MiddlewareNavigation stacks for legged robots rely on implicit assumptions about the velocity interface exposed by locomotion middleware: how quickly a command takes effect, where it saturat… |
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KAGG:2608.00009
doi: 10.5803/kagg.2608.00009
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Uncertainty-Aware Local Planning for Quadrupeds in Perceptually Degraded EnvironmentsAirborne dust, fog, and low light corrupt the range measurements on which a legged robot's local planner depends, and they tend to do so precisely when reactive collision avoidance… |
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KAGG:2608.00008
doi: 10.5803/kagg.2608.00008
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Probing Opaque Velocity Interfaces on Production Quadruped Platforms: A Field StudyProduction quadruped platforms expose velocity command interfaces whose internals (gait managers, safety layers, terrain modes) are undocumented, yet navigation planners routinely … |
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KAGG:2608.00007
doi: 10.5803/kagg.2608.00007
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How Much Future Range Do You Need? An Ablation Study for Agile Quadruped NavigationFuture-range predictors estimate how far a legged robot can travel along control-aligned directions within a prediction horizon H, but the horizon is usually fixed by hand even tho… |
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KAGG:2608.00006
doi: 10.5803/kagg.2608.00006
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Cross-Embodiment Transfer of Local Navigation Skills via Configuration RandomizationLocal navigation skills learned for one quadruped transfer poorly to another, because leg length, payload, and sensor placement change what the robot perceives and which motions it… |
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KAGG:2608.00005
doi: 10.5803/kagg.2608.00005
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Range-Plane Abstractions for Legged Robot Navigation in Cluttered InteriorsLegged navigation in building interiors needs more than a floor map but much less than a dense volumetric forecast. Two-dimensional floor projections discard the step heights and o… |
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KAGG:2608.00004
doi: 10.5803/kagg.2608.00004
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Safe Velocity Interface Identification Under Input SaturationActive calibration of opaque quadruped velocity interfaces, as in GAUGE, issues planner-conditioned probe commands and fits a command-to-motion model online. Informative probes can… |
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KAGG:2608.00003
doi: 10.5803/kagg.2608.00003
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Embodiment-Conditioned Goal Navigation for Mixed Quadruped-Humanoid GroupsMixed groups of quadruped and humanoid robots that navigate toward a common goal differ in footprint, speed envelope, and sensor viewpoint, so a single shared navigation policy is … |
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KAGG:2608.00002
doi: 10.5803/kagg.2608.00002
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Latent Motion Tokens for Future-Range Prediction in Quadruped Obstacle AvoidanceLearned range predictors for legged-robot navigation usually regress the free distance along a fixed set of rays. This output format is difficult to condition on the motion the rob… |
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KAGG:2608.00001
doi: 10.5803/kagg.2608.00001
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Information-Directed Active Calibration of Unknown Velocity DynamicsNavigation stacks for legged robots usually command a vendor locomotion controller through an opaque velocity interface whose gains, saturation limits, and latency differ from thei… |