Javascript must be enabled to continue!
Depth-prior-based lidar point cloud de-noising method leveraging range-gated imaging
View through CrossRef
Light Detection And Ranging (LiDAR) has been widely adopted to modern self-driving vehicles and mobile robotics, providing 3D information of the scene and surrounding objects. However, LiDAR suffer from many kinds of noises and its noisy point clouds degrade downstream tasks. Existing LiDAR point cloud de-noising methods are time-consuming or cannot deal with the noise caused by occlusions or penetrating transparent surfaces. In this paper, we introduce a depth-prior-based LiDAR point clouds de-noising method to deal with all types of noises in LiDAR point clouds in real-time. The depth prior is derived from the fundamental principles of range-gated imaging, and divides the depth of field into three parts, which can provide effective depth signal. LiDAR point cloud is projected into a depth map and points whose depth is inconsistent with the depth prior can be regarded as noises and removed finally. In experiments, the proposed method is compared with existing de-noising methods and achieve superior performance. In addition, we also demonstrate how denoised LiDAR data influence the accuracy of vision-guided range-gated 3D imaging.
Title: Depth-prior-based lidar point cloud de-noising method leveraging range-gated imaging
Description:
Light Detection And Ranging (LiDAR) has been widely adopted to modern self-driving vehicles and mobile robotics, providing 3D information of the scene and surrounding objects.
However, LiDAR suffer from many kinds of noises and its noisy point clouds degrade downstream tasks.
Existing LiDAR point cloud de-noising methods are time-consuming or cannot deal with the noise caused by occlusions or penetrating transparent surfaces.
In this paper, we introduce a depth-prior-based LiDAR point clouds de-noising method to deal with all types of noises in LiDAR point clouds in real-time.
The depth prior is derived from the fundamental principles of range-gated imaging, and divides the depth of field into three parts, which can provide effective depth signal.
LiDAR point cloud is projected into a depth map and points whose depth is inconsistent with the depth prior can be regarded as noises and removed finally.
In experiments, the proposed method is compared with existing de-noising methods and achieve superior performance.
In addition, we also demonstrate how denoised LiDAR data influence the accuracy of vision-guided range-gated 3D imaging.
Related Results
Depth-prior-based lidar point cloud de-noising method leveraging range-gated imaging
Depth-prior-based lidar point cloud de-noising method leveraging range-gated imaging
Light Detection And Ranging (LiDAR) has been widely adopted to modern self-driving vehicles and mobile robotics, providing 3D information of the scene and surrounding objects. Howe...
Development of a multimodal imaging system based on LIDAR
Development of a multimodal imaging system based on LIDAR
(English) Perception of the environment is an essential requirement for the fields of autonomous vehicles and robotics, that claim for high amounts of data to make reliable decisio...
ATLID Cloud Climate Product
ATLID Cloud Climate Product
Abstract. Despite significant advances in atmospheric measurements and modeling, clouds response to human-induced climate warming remains the largest source of uncertainty in model...
CLOUD COMPUTING - NAVIGATING THE DIGITAL SKY
CLOUD COMPUTING - NAVIGATING THE DIGITAL SKY
“Cloud Computing – Navigating the Digital Sky” is an extensive guide designed to provide a thorough understanding of cloud computing, an essential technology in today’s digital age...
Multiple-scattering effects on single-wavelength lidar sounding of multi-layered clouds
Multiple-scattering effects on single-wavelength lidar sounding of multi-layered clouds
Abstract. We performed Monte Carlo simulations of single-wavelength lidar signals from multi-layered clouds with special attention focused on multiple-scattering (MS) effect in reg...
Automated Tree Crown Discrimination Using Three-Dimensional Shape Signatures Derived from LiDAR Point Clouds
Automated Tree Crown Discrimination Using Three-Dimensional Shape Signatures Derived from LiDAR Point Clouds
Discrimination of different tree crowns based on their 3D shapes is essential for a wide range of forestry applications, and, due to its complexity, is a significant challenge. Thi...
Correlating Lidar range performance with atmospheric condition parameters
Correlating Lidar range performance with atmospheric condition parameters
Correlating Lidar range performance with atmospheric condition parameters
Cristina Benzo, Ludovic Thobois, Maxime Hervo
Lidars have been increasingly integrated in various applicat...
Point Cloud Classification Algorithm Based on the Fusion of the Local Binary Pattern Features and Structural Features of Voxels
Point Cloud Classification Algorithm Based on the Fusion of the Local Binary Pattern Features and Structural Features of Voxels
Point cloud classification is a key technology for point cloud applications and point cloud feature extraction is a key step towards achieving point cloud classification. Although ...

