Abstract

Mechanical systems (as belt conveyors) used in the mining industry, especially in deep underground mines, must be supervised on a regular basis. Unfortunately, they require high power and are spatially distributed over a large area. Till now, some elements of the conveyor (drive units) have been monitored 24 h/day using SCADA systems. The rest of the conveyor is inspected by maintenance staff. To minimize the presence of humans in harsh environments, we propose a mobile inspection platform based on autonomous UGV. It is equipped with various sensors, and in practice it is capable of collecting almost the same information as maintenance inspectors (RGB image, sound, gas sensor, etc.). Till now such experiments have been performed in the lab or in the mine, but the robot was controlled by the operator. In such a scenario the robot is able to record data, process them and detect, for example, an overheated idler. In this paper we will introduce the general concept of an automatic robot-based inspection for underground mining applications. A framework of how to deploy the inspection robot for automatic inspection (3D model of the tunnel, path planing, etc.) are defined and some first results from automatic inspection tested in lab conditions are presented. Differences between the planned and actual path are evaluated. We also point out some challenges for further research.

Highlights

  • Belt conveyor systems are used to transport raw materials inside mines over long distances [1,2]

  • To minimize the presence of humans in the harsh environment, we propose a mobile inspection platform based on autonomous Unmanned Ground Vehicles (UGVs)

  • In this paper we propose a procedure for the automatic inspection

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Summary

A Mobile Robot-Based System for Automatic Inspection of Belt

Belt Conveyors in Mining Industry. Department of Fundamentals of Machine Design and Mechatronic Systems, Faculty of Mechanical Department of Mining, Faculty of Geoengineering, Mining and Geology, Wrocław University of Science and Technology, 50-370 Wroclaw, Poland

Introduction
Problem Formulation
UGV Platform Description
Kinematic Model
Platform Navigation
Mapping and Localization
Autonomous Navigation
Motion Execution
Inspection Algorithm
Conclusions
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