3D Instance Segmentation Using Deep Learning on RGB-D Indoor Data

TL;DR

This paper introduces a deep learning method for 3D instance segmentation using RGB-D data, adapting 2D Mask R-CNN with a point rendering module to improve recognition and segmentation of objects in indoor environments.

Contribution

It presents a novel integration of 2D Mask R-CNN with depth information for efficient 3D instance segmentation in indoor scenes.

Findings

Effective segmentation of 3D object instances using RGB-D data

Improved recognition accuracy over traditional methods

Supports robotic object handling in indoor environments

Abstract

3D object recognition is a challenging task for intelligent and robot systems in industrial and home indoor environments. It is critical for such systems to recognize and segment the 3D object instances that they encounter on a frequent basis. The computer vision, graphics, and machine learning fields have all given it a lot of attention. Traditionally, 3D segmentation was done with hand-crafted features and designed approaches that did not achieve acceptable performance and could not be generalized to large-scale data. Deep learning approaches have lately become the preferred method for 3D segmentation challenges by their great success in 2D computer vision. However, the task of instance segmentation is currently less explored. In this paper, we propose a novel approach for efficient 3D instance segmentation using red green blue and depth (RGB-D) data based on deep learning. The 2D region based convolutional neural networks (Mask R-CNN) deep learning model with point based rending module is adapted to integrate with depth information to recognize and segment 3D instances of objects. In order to generate 3D point cloud coordinates (x, y, z), segmented 2D pixels (u, v) of recognized object regions in the RGB image are merged into (u, v) points of the depth image. Moreover, we conducted an experiment and analysis to compare our proposed method from various points of view and distances. The experimentation shows the proposed 3D object recognition and instance segmentation are sufficiently beneficial to support object handling in robotic and intelligent systems.