BIDCD -- Bosch Industrial Depth Completion Dataset
Adam Botach, Yuri Feldman, Yakov Miron, Yoel Shapiro, Dotan Di Castro

TL;DR
This paper introduces BIDCD, a new industrial RGBD dataset for depth completion, benchmarks a state-of-the-art model on it, and explores synthetic-to-real domain adaptation using GANs with shape-preserving loss.
Contribution
The paper presents BIDCD, a novel industrial RGBD dataset, and demonstrates its use for training depth completion models and domain adaptation with synthetic data.
Findings
State-of-the-art depth completion model achieves initial benchmark results.
GAN-based synthetic-to-real domain adaptation improves depth data realism.
Auxiliary loss helps preserve geometric shape in generated images.
Abstract
We introduce BIDCD -- the Bosch Industrial Depth Completion Dataset. BIDCD is a new RGBD dataset of metallic industrial objects, collected with a depth camera mounted on a robotic manipulator. The main purpose of this dataset is to facilitate the training of domain-specific depth completion models, to be used in logistics and manufacturing tasks. We trained a State-of-the-Art depth completion model on this dataset, and report the results, setting an initial benchmark. Further, we propose to use this dataset for learning synthetic-to-depth-camera domain adaptation. Modifying synthetic RGBD data to mimic characteristics of real-world depth acquisition could potentially enhance training on synthetic data. For this end, we trained a Generative Adversarial Network (GAN) on a synthetic industrial dataset and our real-world data. Finally, to address geometric distortions in the generated…
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Taxonomy
TopicsAdvanced Neural Network Applications · Robot Manipulation and Learning · Robotics and Sensor-Based Localization
