2012 · 71 citations · 9 references
EngineeringAutonomous SystemsOcean EngineeringAutonomous VehiclesMarine RoboticsUnderwater RoboticsAutonomous Underwater Vehicle InstrumentationAutonomous Underwater VehiclesSeafloor MappingSubsea RoboticsSubsea SensingUnderwater SurveyAutonomous Underwater Vehicle ControlAutonomous Underwater Vehicle OperationsAutonomous Underwater Vehicle SensingAutonomous Underwater Vehicle SurveysAutonomous Underwater Vehicle SystemsDeploymentSeafloor Hydrothermal VentingSeafloor Venting
Let's gather content per label. Purpose: lines with Purpose label: first line: "We outline a vision for persistent and/or long-range seafloor exploration and monitoring utilizing autonomous surface vessels (ASVs) and autonomous underwater vehicles (AUVs) to conduct coordinated autonomous surveys." Also last line: "[Purpose, Findings] In this paper we outline our long term conceptual vision, discuss some preliminary enabling technology developments that we have already achieved and set out a roadmap for progress anticipated over the next 2-3 years." So Purpose content: vision for persistent/long-range seafloor exploration/monitoring using ASVs and AUVs, coordinated autonomous surveys; outline long-term conceptual vision, roadmap 2-3 years. Mechanism: many lines: first line also Mechanism: same as Purpose first line.
We outline a vision for persistent and/or long-range seafloor exploration and monitoring utilizing autonomous surface vessels (ASVs) and autonomous underwater vehicles (AUVs) to conduct coordinated autonomous surveys. Three types of surveys are envisioned: a) Autonomous tending of deep-diving AUVs: deployed from a research vessel, the ASV would act as a force-multiplier, watching over the AUV to provide operators and scientists with real-time data and re-tasking capabilities, while freeing the ship to conduct other over-the-side operations; b) Ridge-segment-scale (100 km) autonomous hydrothermal exploration: combined with conventional gliders or long-endurance AUVs, an ASV could tend a fleet of underwater assets equipped with low-power chemical sensors for mapping hydrothermal plumes and locating seafloor hydrothermal venting. Operators would control the system via satellite, such that a support ship would be needed only for initial deployment and final recovery 1-2 months later; and c) Basin-scale (10,000 km) autonomous surveys: a purpose-built autonomous surface vessel (mother-ship) with abilities up to and including autonomous deployment, recovery, and re-charge of subsea robots could explore or monitor the ocean and seafloor on the oceanic basin scale at a fraction of the cost of a global-class research vessel. In this paper we outline our long term conceptual vision, discuss some preliminary enabling technology developments that we have already achieved and set out a roadmap for progress anticipated over the next 2-3 years. We present an overview of the system architecture for autonomous tending along with some preliminary field work.
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Performance of an AUV Navigation System at Arctic Latitudes
R. McEwen, Hans Thomas, Daniel Weber et al. · IEEE Journal of Oceanic Engineering · 2005 · 153 citations