MICP-L: Mesh-based ICP for Robot Localization Using Hardware-Accelerated Ray Casting

Triangle mesh maps are a versatile 3D environment representation for robots to navigate in challenging indoor and outdoor environments exhibiting tunnels, hills and varying slopes. To make use of these mesh maps, methods are needed to accurately localize robots in such maps to perform essential tasks like path planning and navigation. We present Mesh ICP Localization (MICP-L), a novel and computationally efficient method for registering one or more range sensors to a triangle mesh map to continuously localize a robot in 6D, even in GPS-denied environments. We accelerate the computation of ray casting correspondences (RCC) between range sensors and mesh maps by supporting different parallel computing devices like multicore CPUs, GPUs and the latest NVIDIA RTX hardware. By additionally transforming the covariance computation into a reduction operation, we can optimize the initial guessed poses in parallel on CPUs or GPUs, making our implementation applicable in real-time on many architectures. We demonstrate the robustness of our localization approach with datasets from agricultural, aerial, and automotive domains.

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Publication Details

Published
2024-10-14
DOI
https://doi.org/10.1109/iros58592.2024.10802360
Citations
3
Primary Topic
Robotics and Sensor-Based Localization
Type
article
Field-Weighted Citation Impact
3.90
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article

MICP-L: Mesh-based ICP for Robot Localization Using Hardware-Accelerated Ray Casting

Joachim Hertzberg, Alexander Mock, Thomas Wiemann, Sebastian Pütz
3 citations
Robotics and Sensor-Based Localization
3.90
article

MICP-L: Mesh-based ICP for Robot Localization Using Hardware-Accelerated Ray Casting

Joachim Hertzberg, Alexander Mock, Thomas Wiemann, Sebastian Pütz
article en
3 citations

Abstract

Triangle mesh maps are a versatile 3D environment representation for robots to navigate in challenging indoor and outdoor environments exhibiting tunnels, hills and varying slopes. To make use of these mesh maps, methods are needed to accurately localize robots in such maps to perform essential tasks like path planning and navigation. We present Mesh ICP Localization (MICP-L), a novel and computationally efficient method for registering one or more range sensors to a triangle mesh map to continuously localize a robot in 6D, even in GPS-denied environments. We accelerate the computation of ray casting correspondences (RCC) between range sensors and mesh maps by supporting different parallel computing devices like multicore CPUs, GPUs and the latest NVIDIA RTX hardware. By additionally transforming the covariance computation into a reduction operation, we can optimize the initial guessed poses in parallel on CPUs or GPUs, making our implementation applicable in real-time on many architectures. We demonstrate the robustness of our localization approach with datasets from agricultural, aerial, and automotive domains.

Fulda University of Applied Sciences (DE)
Openalex Percentile: Top 6%
Robotics and Sensor-Based Localization
3.90
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MICP-L: Mesh-based ICP for Robot Localization Using Hardware-Accelerated Ray Casting — Joachim Hertzberg, Alexander Mock, et al. · (2024) | TGRS Research Map | TGRS