Abstract

6D target object detection is of great importance to many applications such as robotics, industrial automation, and unmanned vehicles and is increasingly influencing broad industries including manufacturing, transportation, and retail industries, to name a few. This paper focuses on detecting the 6D poses of the target objects from the point cloud of a cluttered scene. However, conventional point cloud-based 6D object detection methods rely on the robustness of key-point detection results that are not straightforward for humans to understand. The drawback makes conventional point cloud-based methods require expert knowledge to tune. In this paper, we introduced a 6D target object detection method that uses segmented object point cloud patches instead of key points to predict object 6D poses and identity. Our main contributions are an end-to-end data-driven pose correction model that is enhanced with a novel simple yet efficient basis spanning layer booster. Experiments show that although the proposed model is trained only using object CAD models, its 6D detection performance matches that of the models using view data. Thus, the proposed method is suitable for 6D detection applications that have object CAD models instead of labeled scene data.

Highlights

  • The 6D target object detection refers to the process of identifying an object and estimating its 6-DOF pose in the scene of interest

  • We focus on the problem of 6D target object detection on cluttered scenes where the object is represented by its shape or geometry e.g., a point cloud

  • A pose correction model (PCM) that takes the point cloud data as the input is proposed to predict the 6D pose and identity of the segmented point cloud patches in an end-to-end fashion

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Summary

INTRODUCTION

The 6D target object detection refers to the process of identifying an object and estimating its 6-DOF pose in the scene of interest. The conventional point cloud-based 6D detection methods first detect repeatable key-points, the geometry information around the key-point is encoded into numerical features using feature descriptors [9], [10] In this way, the object can be detected based on the feature matching result. We firstly segment the scene point cloud into patches, and the patches are processed by the proposed pose correction model (PCM) to predict object 6D poses and identify the object in an end-to-end fashion. In this way, the key-point detection procedure is substituted by point cloud segmentation.

RELATED WORKS
THE MODEL TRAINING METHOD
EXPERIMENTS
THE OBJECT IDENTIFICATION AND POSE ESTIMATION EXPERIMENTS ON CAD MODELS
Limitations
Findings
CONCLUSIONS

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