VLA Gallery / All models / Mobile manipulation
PanoVLA
Beihang University·Beijing Institute for General Artificial Intelligence(BIGAI)·Shandong University·Johns Hopkins University·Delta Intelligence · 2026-08
VLAMobile manipulationNot disclosedflow matching
A Mixture-of-Transformers inserting a panorama expert into π0.5 fuses global spatial context from a 360° panorama with local camera views, and collects wheeled bimanual robot data via single VR whole-body teleoperation.
Paper
Learning Panorama-Aware VLA for Mobile Manipulation with Whole-Body TeleoperationarXiv 2608.02257
Overview
- Category
- Mobile manipulation
- Type
- VLA
- Released
- 2026-08
- Organization
- Beihang University·Beijing Institute for General Artificial Intelligence(BIGAI)·Shandong University·Johns Hopkins University·Delta Intelligence
- Open weights
- Unverified
- Parameters
- Not disclosed (panorama expert 100M; π0.5 backbone Gemma-2B)
Architecture
- Backbone LLM
- Gemma-2B · π0.5 VLM config
- Vision encoder
- SigLIP (local view) + MTPano (panorama, frozen)
- Action head
- flow matching action expert (inherited from π0.5) (flow matching)
- Chunk
- 32 steps
- Control rate
- Not disclosed (data at 25 Hz)
- Architecture (original summary)
- π0.5-based 3-expert Mixture-of-Transformers: VLM expert (SigLIP local view + Gemma-2B) + panorama expert 100M (dual fisheye → equirectangular panorama, frozen MTPano features) + flow matching action expert; 17-dim relative actions (bimanual joints·grippers 14 + base planar velocity·yaw rate 3) 32-step chunk; data 25 Hz
Training
- Pretraining accelerators
- N/A (fine-tuned from π0.5)
- Pretraining duration
- N/A
- Pretraining steps & batch
- N/A
- GPU/TPU-hours
- Not disclosed
- Fine-tuning
- 4 × A100, 30K steps · batch 64 per GPU (bf16, lr fixed at 5e-5 after 5K-step warmup), LM · MTPano frozen, training time not disclosed
- Data type
- Real-robot teleoperation
- Data scale
- 4 tasks × 200 = 800 trajectories, about 5.5 hours · about 500k frames (25 Hz, 20–30 s per trajectory)
- Main datasets
- In-house VR whole-body teleoperation dataset (Move Pen, Move Block, Open Curtain, Wipe Table)
- Tasks & evaluation
- Real 4 tasks, 15 trials each: Move Pen SR 86.7%, Move Block 93.3%, Open Curtain 66.7%, Wipe Table 46.7%; average SCR 91.3%·SR 73.4% (π0.5 58.6%·30.0%, π0.5 w/ Pano 80.8%·56.7%)
- Robot
- Wheeled bimanual: RANGER MINI 3 base + two Agilex PIPER 6-DoF arms·parallel grippers; top 360° panorama camera·front RGB·2 wrist cameras
Inference
- Inference device & speed
- Closed-loop execution on 1 RTX 4090 during real-robot evaluation; latency·control frequency not disclosed
- Inference memory
- Not disclosed
- Weights bf16 (calc.)
- Not disclosed
- Where it runs
- Single RTX 4090
Reinforcement learning & base
- Reinforcement learning
- Not used · Imitation learning (flow matching) only
- Base control
- Wheeled (Direct base velocity/pose output) · Policy directly outputs base planar velocity and yaw rate (3-DoF) together with both arms' joints as 32-step chunks
Notes
- Key features
- A Mixture-of-Transformers inserting a panorama expert into π0.5 fuses global spatial context from a 360° panorama with local camera views, and collects wheeled bimanual robot data via single VR whole-body teleoperation. On 4 real tasks it reached an average stage completion of 91.3%·end-to-end success of 73.4%, well ahead of π0.5 (58.6%·30.0%).
- Notes
- Teleoperation: VR headset, two hand controllers, 3 waist/ankle trackers → SMPL reconstruction → GMR retargeting (base is a 3-DoF planar virtual floating base). π0.5 checkpoint name, total parameters, denoising steps, and training time not disclosed. The paper does not mention releasing code, data, or weights. Based on: π0.5: a Vision-Language-Action Model with Open-World Generalization (arXiv 2504.16054) — built by inserting a panoramic expert into the π0.5 dual-expert backbone
- Verification
- Confirmed
Other models in this category
- TidyBot++2024-11
- MoManipVLA2025-03
- AC-DiT2025-07
- SG-VLA2026-03
- HarmonicMM2023-12
- ACT-12025-11
- UMI on Legs2024-07
- VBC2024-03
- Helpful DoggyBot2024-09
- QUAR-VLA (QUART)2023-12
- QUART-Online2024-12
- MoRE2025-03
- RoboDuet2024-03
- Learning Visual Quadrupedal Loco-Manipulation from Demonstrations2024-03
- SLIM2025-01