stereo-ycb-v-ds-eval
Extending 6D Object Pose Estimators for Stereo Vision — Pöllabauer et al. (2024) (arXiv:2402.05610, 2024)
What this evaluates
Evaluates 6D object pose estimation methods under stereo vision conditions, specifically probing robustness to occlusion and scale ambiguity by leveraging dense 2D-3D correspondences and stereo disparity.
Datasets
- Stereo PBR YCB-V DS — total 481725; splits: train (433645), test (48080)
Metrics
ADD0.1(primary) — range: percent- Percentage of test frames where the average Euclidean distance between corresponding 3D points of the predicted and ground-truth poses is less than 10% of the object's diameter.
Input / output format
Input: Stereo RGB image pairs (2048×1536) with corresponding depth maps (640×576), bounding boxes, and object masks for scenes containing up to 15 target objects.
Output: 6D pose (rotation and translation) for each target object in the frame.
Scoring recipe
def compute_add_at_0_1(pred_poses, gt_poses, diameters):
correct = 0
for pred, gt, d in zip(pred_poses, gt_poses, diameters):
pred_pts = apply_pose(gt_pts, pred)
gt_pts = apply_pose(gt_pts, gt)
if np.mean(np.linalg.norm(pred_pts - gt_pts, axis=1)) < 0.1 * d:
correct += 1
return (correct / len(pred_poses)) * 100
Common pitfalls
- Real-world test objects differ from synthetic training objects (e.g., texture/color changes), which can cause domain shift if not accounted for.
- Labels with less than 10% visible surface are removed, meaning the dataset is heavily filtered for stability and does not represent full occlusion scenarios.
- Monocular baselines must be extended to stereo (e.g., SO-Stereo, GDRN-Stereo) rather than simply fed stereo pairs, to ensure fair comparison.
Evidence (verbatim from paper)
Table 1: We report the performance of our proposed methods on a per-object basis, comparing the accuracy of a single multi-object model for both mono and stereo configurations using the common ADD0.1 metric.
Citation
@misc{pollabauer2024extending,
title={Extending 6D Object Pose Estimators for Stereo Vision},
author={Pöllabauer et al. (2024)},
year={2024},
note={arXiv:2402.05610}
}
- arXiv: 2402.05610