PhysEvo: Astra Can Act, Let It

Hugging Face Daily Papers Papers

Summary

PhysEvo 提出一个围绕冻结模型的物理递归自我改进(RSI)框架,通过元智能体诊断失败并修订工具与技能,在 RoboDojo 任务上取得 62% 成功率,并在真实世界 AgileX PiPER 机器人任务上达到 84% 成功率。

Astra can act, yet reliable manipulation depends on the system through which it observes and controls the world. We introduce PhysEvo, a framework for physical recursive self-improvement (RSI) around a single frozen model. A task agent executes robot tasks; a meta-agent uses the resulting trajectories to diagnose failures, revise tools and skills, and test corrections. The meta-agent can also improve its own diagnostic tools, so retained revisions support both later action and later self-improvement. This process develops joint-level control, evidence-seeking observation, and reusable manipulation skills without model-weight updates or a separately trained action policy. Across 42 RoboDojo tasks, held-out-layout evaluation of retained task-specific deployment versions yields a five-dimension average score of 68.14/100 and 62.00% success, compared with 47.17% for RoboDawn's one-shot Astra agent, the strongest published reference in our comparison. On eight manipulation tasks challenging direct Astra, PhysEvo achieves 55.00% success, compared with 1.25% for the direct-Astra reference. Deploying the simulation-evolved harness on AgileX PiPER and continuing skill revision yields 90.60/100 average score and 84.00% success across 25 trials on five real-world tasks. PhysEvo turns the consequences of action into persistent, testable changes to how a frozen model acts and improves.
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Source: https://huggingface.co/papers/2610.08995

Abstract

Astracanact,yetreliablemanipulationdependsonthesystemthroughwhichitobservesandcontrolstheworld.WeintroducePhysEvo,aframeworkforphysicalrecursiveself-improvement(RSI)aroundasinglefrozenmodel.Ataskagentexecutesrobottasks;ameta-agentusestheresultingtrajectoriestodiagnosefailures,revisetoolsandskills,andtestcorrections.Themeta-agentcanalsoimproveitsowndiagnostictools,soretainedrevisionssupportbothlateractionandlaterself-improvement.Thisprocessdevelopsjoint-levelcontrol,evidence-seekingobservation,andreusablemanipulationskillswithoutmodel-weightupdatesoraseparatelytrainedactionpolicy.Across42RoboDojotasks,held-out-layoutevaluationofretainedtask-specificdeploymentversionsyieldsafive-dimensionaveragescoreof68.14/100and62.00%success,comparedwith47.17%forRoboDawn’sone-shotAstraagent,thestrongestpublishedreferenceinourcomparison.OneightmanipulationtaskschallengingdirectAstra,PhysEvoachieves55.00%success,comparedwith1.25%forthedirect-Astrareference.Deployingthesimulation-evolvedharnessonAgileXPiPERandcontinuingskillrevisionyields90.60/100averagescoreand84.00%successacross25trialsonfivereal-worldtasks.PhysEvoturnstheconsequencesofactionintopersistent,testablechangestohowafrozenmodelactsandimproves.

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