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DexFlyWheel: A Scalable and Self-improving Data Generation Framework for Dexterous Manipulation

NeurIPS 2025 · Reinforcement learning › Visual and representation RL · approach: Dexterous manipulation transfer · 1 citations (OpenAlex)

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Proposes DexFlyWheel, a self-improving flywheel that generates dexterous manipulation demonstrations from one seed demo per task by iterating IL (diffusion policy), residual SAC RL, rollouts, and MimicGen-style augmentation.

Problem

Dexterous manipulation data is scarce; teleoperation is labor-intensive and existing simulation generation methods (replay, planning, pure RL, LLM-driven) produce low-diversity or non-human-like data.

Approach

Treat human demonstrations as behavioral priors: a diffusion base policy trained by IL is refined by a frozen-base residual SAC policy to handle novel objects, and its successful rollouts are augmented across objects, environments, and spatial poses, then fed into the next iteration, forming a data flywheel.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Use DexFlyWheel instead of DexMimicGen (Enhanced)Policies trained for dexterous manipulation · T_OEP average across four taskssuccess rate: 45.2% -> 81.9%Helped
Use DexFlyWheel instead of DexMimicGen (Enhanced)Grasp policy · Grasp, T_OEPsuccess rate: 50.3% -> 90.0%Helped
Use DexFlyWheel instead of DexMimicGen (Enhanced)Pour policy · Pour, T_OEPsuccess rate: 44.4% -> 85.8%Helped
Use DexFlyWheel instead of DexMimicGen (Enhanced)Lift policy · Lift, T_OEPsuccess rate: 43.7% -> 79.4%Helped
Use DexFlyWheel instead of DexMimicGen (Enhanced)Handover policy · Handover, T_OEPsuccess rate: 42.5% -> 72.5%Helped
Use DexFlyWheel rather than DexMimicGenDemonstration generation · Average across four manipulation taskssuccessful demonstration generation rate: 63.0% -> 89.8%Helped
Use DexFlyWheel rather than DexMimicGenData generation · Lift, iteration 3; 500 successful trajectoriescollection time: 4.4 h -> 2.4 hHelped
Advance the flywheel from iteration 1 to iteration 3DexFlyWheel policies · T_OEP average across four taskssuccess rate: 16.5% -> 81.9%Helped
Add the residual policy to the base policy (ablation)DexFlyWheel · Object diversity across tasksaverage number of successfully manipulated objects: 8.25 -> 20Helped
Add the residual policy to the base policy (ablation)DexFlyWheel · Object generalization test sets T_O(i), four taskssuccess rate: 48.5% -> 82.6%Helped
Remove the data augmentation module A_EP (ablation)DexFlyWheel · Four manipulation taskssuccess rateHurt
Remove both the residual policy and A_EP (ablation)DexFlyWheel · Four manipulation taskssuccess rateHurt

Surprising findings

Limitations

Experimental setup

Datasets: single VR-teleoperated seed demonstration per task OmniGibson objects and environments (80 objects, 12 environments)

Benchmarks: T_OEP multi-factor generalization test set (40 unseen configs) T_O(i) object generalization test sets real-world dual-arm lift and handover

Metrics: success rate data generation success rate time per trajectory object/environment/pose diversity counts

Baselines: Human Demo (Default) Human Demo (Enhanced) DexMimicGen (Default) DexMimicGen (Enhanced)

Builds on: MimicGen DexMimicGen Diffusion Policy Soft Actor-Critic OmniGibson

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