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HCPG-Flow advances robot manipulation by integrating hierarchical contact-progress guidance into flow policies, directly addressing the challenge of selecting optimal actions from multimodal distributions during execution. This approach improves task success rates and efficiency in both simulated and physical environments without altering core actor-critic objectives, offering a concrete methodological step forward for reinforcement learning-based robotics.
HCPG-Flow:Hierarchical Contact-Progress Guidance for Flow-Policy Robot Manipulation
arXiv:2607.17651v1 Announce Type: new Abstract: Flow policies can represent multimodal action distributions for robot manipulation, yet a robot must execute one action at each control step. When several proposals are sampled, critic-based ranking makes data collection depend on value estimates over candidate actions that may be weakly represented in replay. We introduce HCPG-Flow, an analytic rollout-time selector that augments SAC-Flow with hierarchical, object-centric contact-progress guidance while preserving its actor and critic objectives. HCPG switches from end-effector approach to task progress after contact, scores each proposal by the first-order reduction of a task-relevant distance, standardizes scores within the candidate set, and executes a temperature-controlled action embedding. Across ten simulated tasks, HCPG improves mean success over SAC-Flow on both benchmarks, including a 9.5 percentage-point gain on Maniskill. Four physical tasks further show high success with a 17.4% reduction in successful completion steps.Project page: https://hitxraz.github.io/HCPG-Flow/
Abstract:Flow policies can represent multimodal action distributions for robot manipulation, yet a robot must execute one action at each control step. When several proposals are sampled, critic-based ranking makes data collection depend on value estimates over candidate actions that may be weakly represented in replay. We introduce HCPG-Flow, an analytic rollout-time selector that augments SAC-Flow with hierarchical, object-centric contact-progress guidance while preserving its actor and critic objectives. HCPG switches from end-effector approach to task progress after contact, scores each proposal by the first-order reduction of a task-relevant distance, standardizes scores within the candidate set, and executes a temperature-controlled action embedding. Across ten simulated tasks, HCPG improves mean success over SAC-Flow on both benchmarks, including a 9.5 percentage-point gain on Maniskill. Four physical tasks further show high success with a 17.4% reduction in successful completion this http URL page: this https URL
Robotics (cs.RO)
arXiv:2607.17651 [cs.RO]
(or arXiv:2607.17651v1 [cs.RO] for this version)
https://doi.org/10.48550/arXiv.2607.17651 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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