CVROApr 6, 2023

DoUnseen: Tuning-Free Class-Adaptive Object Detection of Unseen Objects for Robotic Grasping

arXiv:2304.02833v25 citationsh-index: 5Has Code
Originality Incremental advance
AI Analysis

This addresses the challenge of robotic grasping in logistics or other applications with thousands of objects and no existing datasets, though it appears incremental as it builds on existing segmentation and classification methods.

The paper tackles the problem of segmenting varying numbers of objects in open sets where each object is its own class, without retraining or fine-tuning, by combining unseen object segmentation networks with class-adaptive classifiers. The results show performance ranging from practical to unsuitable depending on environment setup and objects.

How can we segment varying numbers of objects where each specific object represents its own separate class? To make the problem even more realistic, how can we add and delete classes on the fly without retraining or fine-tuning? This is the case of robotic applications where no datasets of the objects exist or application that includes thousands of objects (E.g., in logistics) where it is impossible to train a single model to learn all of the objects. Most current research on object segmentation for robotic grasping focuses on class-level object segmentation (E.g., box, cup, bottle), closed sets (specific objects of a dataset; for example, YCB dataset), or deep learning-based template matching. In this work, we are interested in open sets where the number of classes is unknown, varying, and without pre-knowledge about the objects' types. We consider each specific object as its own separate class. Our goal is to develop an object detector that requires no fine-tuning and can add any object as a class just by capturing a few images of the object. Our main idea is to break the segmentation pipelines into two steps by combining unseen object segmentation networks cascaded by class-adaptive classifiers. We evaluate our class-adaptive object detector on unseen datasets and compare it to a trained Mask R-CNN on those datasets. The results show that the performance varies from practical to unsuitable depending on the environment setup and the objects being handled. The code is available in our DoUnseen library repository.

Code Implementations1 repo
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