A Robot Application for Marine Vessel Inspection

Seagoing vessels have to undergo regular inspections, which are currently performed manually by ship surveyors. The main cost factor in a ship inspection is to provide access to the different areas of the ship, since the surveyor has to be close to the inspected parts, usually within arm's reac...

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Veröffentlicht in:Journal of field robotics 2014-03, Vol.31 (2), p.319-341
Hauptverfasser: Eich, Markus, Bonnin-Pascual, Francisco, Garcia-Fidalgo, Emilio, Ortiz, Alberto, Bruzzone, Gabriele, Koveos, Yannis, Kirchner, Frank
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container_end_page 341
container_issue 2
container_start_page 319
container_title Journal of field robotics
container_volume 31
creator Eich, Markus
Bonnin-Pascual, Francisco
Garcia-Fidalgo, Emilio
Ortiz, Alberto
Bruzzone, Gabriele
Koveos, Yannis
Kirchner, Frank
description Seagoing vessels have to undergo regular inspections, which are currently performed manually by ship surveyors. The main cost factor in a ship inspection is to provide access to the different areas of the ship, since the surveyor has to be close to the inspected parts, usually within arm's reach, either to perform a visual analysis or to take thickness measurements. The access to the structural elements in cargo holds, e.g., bulkheads, is normally provided by staging or by “cherry‐picking” cranes. To make ship inspections safer and more cost‐efficient, we have introduced new inspection methods, tools, and systems, which have been evaluated in field trials, particularly focusing on cargo holds. More precisely, two magnetic climbing robots and a micro‐aerial vehicle, which are able to assist the surveyor during the inspection, are introduced. Since localization of inspection data is mandatory for the surveyor, we also introduce an external localization system that has been verified in field trials, using a climbing inspection robot. Furthermore, the inspection data collected by the robotic systems are organized and handled by a spatial content management system that enables us to compare the inspection data of one survey with those from another, as well as to document the ship inspection when the robot team is used. Image‐based defect detection is addressed by proposing an integrated solution for detecting corrosion and cracks. The systems' performance is reported, as well as conclusions on their usability, all in accordance with the output of field trials performed onboard two different vessels under real inspection conditions.
doi_str_mv 10.1002/rob.21498
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subjects Defects
Inspections
Robots
title A Robot Application for Marine Vessel Inspection
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