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IROS 2017

Robot localization with sparse scan-based maps

Conference Paper Accepted Paper Artificial Intelligence ยท Robotics

Abstract

Occupancy grid maps are a popular method for representing the environment in the context of robot navigation tasks. However, occupancy grid maps can have a high memory demand that grows quadratically with the range of the sensor. In this paper, we introduce a memory-efficient map representation that is based on a constant set of individual scans. To make these scan-based maps suitable for autonomous robot navigation, we propose probabilistically sound methods for both mapping and localization. To solve the mapping problem, our approach incrementally selects scans based on the additional information they provide relative to the scans previously selected. Using these selected scans, we perform an Monte Carlo Localization (MCL) approach with a sensor model optimized for the scan-based representation of our map. We present extensive experiments in which we evaluate our approach using real world data recorded in a garage parking scenario with an autonomous car as well as a robot localization problem in an indoor environment. The results demonstrate that our approach can cope with high sensor noise and that it achieves comparable localization accuracy while at the same time consuming only a fraction of memory compared to regular occupancy grid maps.

Authors

Keywords

  • Robot sensing systems
  • Measurement by laser beam
  • Probabilistic logic
  • Memory management
  • Trajectory
  • Monte Carlo methods
  • Sparse Map
  • Robot Localization
  • Localization Accuracy
  • Indoor Environments
  • Self-driving
  • Range Of Sensors
  • Sensor Model
  • Map Representation
  • Sensor Noise
  • Grid Map
  • Set Of Scans
  • Robot Navigation
  • Mapping Problem
  • Occupancy Grid
  • Root Mean Square Error
  • Laser Scanning
  • Cardinality
  • Performance Variables
  • Probabilistic Approach
  • Current Observations
  • Trajectory Mapping
  • Probability Of Strategy
  • Clustering Strategy
  • Memory Consumption
  • Mapping Strategy
  • Noise Characteristics
  • Mean Root-mean-square Error

Context

Venue
IEEE/RSJ International Conference on Intelligent Robots and Systems
Archive span
1988-2025
Indexed papers
26578
Paper id
734758963696276380
v2026.09.13