Volume 1, Issue 3 — September 2026
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KAGG:2609.00009
doi: 10.5803/kagg.2609.00009
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Adaptive Safety Margins for Quadruped Navigation with Calibrated Velocity InterfacesFixed safety margins for legged navigation are tuned once, so they ignore both how well the robot's velocity interface is currently calibrated and how much free space the robot is … |
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KAGG:2609.00008
doi: 10.5803/kagg.2609.00008
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Local Planning under Asymmetric Collision Geometries Across EmbodimentsLocal planners that run across quadrupeds, wheeled robots, and humanoids commonly represent every body by a symmetrically inflated disk or a static footprint, discarding the swing … |
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KAGG:2609.00007
doi: 10.5803/kagg.2609.00007
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Future-Range Conditioning for Imitation-Learned Quadruped NavigationImitation-learned navigation policies for legged robots inherit the range representation of the data they are trained on: a policy that observes only the present range scan tends t… |
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KAGG:2609.00006
doi: 10.5803/kagg.2609.00006
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System Identification versus Learned Models for Commodity Quadruped Velocity InterfacesNavigation stacks for commodity quadrupeds command the robot through a vendor velocity interface whose response to commands, including delay, lag, cross-axis coupling, and saturati… |
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KAGG:2609.00005
doi: 10.5803/kagg.2609.00005
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Shared Configuration Abstractions for Heterogeneous Fleet NavigationHeterogeneous robot fleets that must follow, avoid, or rendezvous with one another need more than per-robot planning: each robot must reason about how its peers are shaped, how qui… |
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KAGG:2609.00004
doi: 10.5803/kagg.2609.00004
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High-Speed Obstacle Negotiation for Agile Quadrupeds with Range-Predictive ControlAt running speeds of 4 to 6 m/s, the reaction budget of a quadruped robot is dominated by the lag of its velocity controller rather than by perception, so a controller that reacts … |
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KAGG:2609.00003
doi: 10.5803/kagg.2609.00003
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Closed-Loop Field Calibration of Quadruped Velocity InterfacesQuadruped navigation stacks usually command a locomotion controller through a velocity interface whose command-to-motion response must be calibrated before the planner's prediction… |
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KAGG:2609.00002
doi: 10.5803/kagg.2609.00002
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Distilling Cross-Embodiment Planners into Onboard-Deployable PoliciesConfiguration-driven cross-embodiment local planners such as AgniNav allow a single planning stack to serve robots with different body geometry, sensing, and velocity limits, but t… |
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KAGG:2609.00001
doi: 10.5803/kagg.2609.00001
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Predictive Terrain Range Maps for Energy-Efficient Quadruped NavigationEnergy-efficient quadruped navigation requires knowing not only where obstacles are but also which feasible routes waste energy in rough terrain. Control-aligned future-range predi… |