Testing and Evaluation of REMUS Vehicle Systems

Similar documents
The MEDUSA Deep Sea and FUSION AUVs:

SEAHORSES and SUBMARINES Testing transformational capabilities with modern UUVs at NAVOCEANO by Craig A. Peterson and Martha E. M.

Cooperative Navigation for Autonomous Underwater Vehicles. Navigare 2011, 4 May 2011, Bern

BACKGROUND TO STUDY CASE

The Wave Glider: A Mobile Buoy Concept for Ocean Science. 009 Liquid Robotics Inc.

Mitsui Engineering & Shipbuilding Co., LTD. Kenji NAGAHASHI

General Dynamics Canada Whitepaper. Abstract

Using AUVs in Under-Ice Scientific Missions

Acoustic Pipeline Inspection Mind The Gap

NUI Overview. Mike Jakuba Woods Hole Oceanographic Institution

NOAA s Underwater UXO Demonstration Projects Vieques Island, Puerto Rico

Dual-Frequency Acoustic Camera: A Candidate for an Obstacle Avoidance, Gap-Filler, and Identification Sensor for Untethered Underwater Vehicles

Ship Hull Inspection with the HAUV: US Navy and NATO Demonstrations Results

August Using the Gavia AUV system to locate and document Munitions Dumped at Sea. Presenter: Mr. Chris Roper Roper Resources Ltd.

Underwater Robots Jenny Gabel

Vieques Underwater Demonstration Project

NSF's Ocean Observatories Initiative: Building Research Infrastructure for the Pacific Northwest and the Broader Community

SeaSmart. Jonathan Evans

Simulation and In-water Testing of the Mid-Sized Autonomous Research Vehicle (MARV) Thomas Fulton NUWC Newport

Robin J. Beaman. School of Earth and Environmental Sciences, James Cook University, Cairns, Qld 4870, Australia.

Potential applications of AUVs and Gliders in Offshore Windfarm Site Surveys

How well do CMIP5 climate models reproduce Southern Ocean bottom temperature? Model climatology

Marine Opera*ons Group Marine Technology Program SRI Interna*onal SRI International

Emerging Subsea Networks

Shallow Water Bathymetry using the REMUS 100 Autonomous Underwater Vehicle

Wave Glider: Liege Colloquium. Colloquium April 27

Ocean Observatories Initiative (OOI) Moorings: New Capabilities for Seagoing Science

An effective approach for wide area detailed seabed mapping

ROBOTICS AND AUTONOMOUS SYSTEMS in EXPLOSIVE ORDNANCE DISPOSAL

Model-based Adaptive Acoustic Sensing and Communication in the Deep Ocean with MOOS-IvP

Panel Discussion on unmanned Hydrography

An accident at sea, such as an

Field testing of the Nereus network

MISSION PLANNING AND DATA ACQUISITION SOFTWARE

NSW Mines Rescue Unmanned Aerial Vehicle (UAV)

NAVAL POSTGRADUATE SCHOOL THESIS

Autonomous Marine Robots Assisting Divers

Sentry de-brief summaries 2011/2012

Recommended operating guidelines (ROG) for sidescan Sidescan sonar ROG in wrapper.doc English Number of pages: 9 Summary:

Copicut Reservoir Sidescan Sonar. Fall River, MA May 7, 2013

The Wave Glider: A Persistent Platform for Ocean Science

Hydro-Thermal Vent Mapping with Multiple AUV's AZORES-2001

Advanced PMA Capabilities for MCM

Exploration of Underwater Volcano by Autonomous Underwater Vehicle

Advantages of Using Combined Bathymetry and Side Scan Data in Survey Processing T.M. Hiller, L.N. Brisson

Pioneer Array Micro-siting Public Input Process Frequently Asked Questions

Understanding the Dynamics of Shallow-Water Oceanographic Moorings

Chemical Plume Mapping with an Autonomous Underwater Vehicle

MOOS IvP Helm Based Simulations of Collision Avoidance by an Autonomous Surface Craft Performing Repeat-Transect Oceanographic Surveys

Tifft Water Supply Symposium

An Integrated Marine Gradiometer Array System (MGA)

KAIREI Cruise Report. KR17-11 Leg2

Evaluation of the Klein HydroChart 3500 Interferometric Bathymetry Sonar for NOAA Sea Floor Mapping

A Distributed Control System using CAN bus for an AUV

High Frequency Acoustical Propagation and Scattering in Coastal Waters

ADAPTIVE PATH PLANNING FOR AN AUTONOMOUS MARINE VEHICLE PERFORMING COOPERATIVE NAVIGATION FOR AUTONOMOUS UNDERWATER VEHICLES.

The Baltic Diver ROV-Services

Natsushima Cruise Report NT Sea trial of Autonomous Underwater Vehicle. Yumeiruka around Omuro-dashi. Sagami Bay, Suruga Bay and Omuro-dashi

Autosub6000. Results of its Engineering Trials and First Science Missions

"Real-Time Vertical Temperature, and Velocity Profiles from a Wave Glider"

History/Explorers/Expeditions/Technology Webquest!

WEBB RESEARCH CORPORATION

MAPCO2 Buoy Metadata Report Project Title:

MK 48 ADCAP TORPEDO UPGRADES

Marine Towed Array Surveys of Ostrich Bay, Lake Erie and Puerto Rico.

Low-Cost Dry Submersible Technology & Dry Combat Submersible Light

HOVERING AUTONOMOUS UNDERWATER VEHICLE SYSTEM DESIGN IMPROVEMENTS AND PERFORMANCE EVALUATION RESULTS

AFFORDABLE DEEP OCEAN EXPLORATION WITH A HOVERING AUTONOMOUS UNDERWATER VEHICLE Odyssey IV: a 6000 meter rated, cruising and hovering AUV

Update on Canadian Research Vessels Ship Procurement Projects

Sensors and Platforms for Autonomous Undersea Systems

The SeaBED AUV A Platform for High Resolution Imaging

SEAEYE FALCON & FALCON DR

AUSTRALIA S FUTURE SEA MINE COUNTERMEASURES

Software Tool Suite for Bubble Wake Signature of Waterjet Propelled Ships

UTEC Survey Pipeline Inspection Using Low Logistic AUV June 2016

ENVIRONMENTALLY ADAPTIVE SONAR

Specifications for Synchronized Sensor Pipe Condition Assessment (AS PROVIDED BY REDZONE ROBOTICS)

Doug Chapman SUMMARY PROFILE

!"#$%&'()*$+,,($-!.#$/*)0*122$!13)*4$

REPORT DOCUMENTATION PAGE

RR10106 Cruise Plan ITOP Mooring Recovery and PhilSea10 Seaglider Operation (R/V Revelle November 6-26, 2010)

HOW TO BEST USE YOUR ELECTRONICS: CHARTING, SONAR, AND IMAGING. By: Captain Tom Blackburn

Sontek RiverSurveyor Test Plan Prepared by David S. Mueller, OSW February 20, 2004

ATON System Workshop

IFREMER, Department of Underwater Systems, Toulon, France. L u c i e Somaglino, P a t r i c k J a u s s a u d, R o main P i a s co, E w e n Raugel

THE APPLICATION OF THE FUSION POSITIONING SYSTEM TO MARINE ARCHAEOLOGY

In-Water Mass Spectrometry for Characterization of Light Hydrocarbon Seeps and Leaks

SAUC-E 2016 Mission & Rules 1 (Version May 2016)

EXPEDITION ADVENTURE PART 2: HIGHER RESOLUTION RANGE SEISMIC IMAGING TO LOCATE A SUNKEN PIRATE SHIP OFF ILE ST MARIE.

SeaFox IQ/SeaWolf - new mini and midi AUVs for security and inspection

INTERNATIONAL HYDROGRAPHIC REVIEW MAY 2015

CONSTRUCTION OF LNG RECEIVING TERMINAL ON THE SAINT LAWRENCE TIDAL CURRENT CONDITIONS IN THE LEVIS AREA

Magnetic Sensors Project

Proof of Concept Demonstration of the Hybrid Remotely Operated Vehicle (HROV) Light Fiber Tether System

Survey Technique for Underwater Digital Photography with Integrated GPS Location Data

CHAPTER 44 NAVY DIVER (ND) NAVPERS A CH-70

All sailing data straight to the cloud Plug and Play. The SAILMON Coach Pole

Autonomous Environmental Profiling Moorings for Coastal Monitoring

Certified Professionals in Hydrographic Solutions

R3M: The 2.0 Ocean Observation Strategy for the Macaronesian region

Transcription:

Unmanned Maritime Vehicle Test and Evaluation Conference AUV Fest 2005 June 14, 2005 Testing and Evaluation of REMUS Vehicle Systems Christopher von Alt Hydroid, Inc. www.hydroidinc.com

Hydroid Inc. holds the exclusive license from the Woods Hole Oceanographic Institution for the manufacture and further development of REMUS Autonomous Underwater Vehicle (AUV) technology.

REMUS Concept, Development, Transition, Commercialization, War FY 93 / 94 FY 95 FY 96 FY 97 FY 98 FY 99 FY 00 FY 01 FY 02 FY 03 FY 04 FY 05 Development Environmental Sensors Prototype Tested 1.2 MHz ADCP Operational Predictive Coastal Modeling 20 NM Surveyed in 5.5 Hours Hydro Model 7.12 Autonomous Docking Node Docking Node Operation LEO 15 600 KHZ SSS Integrated REMUS Original Concept 45 FE I Vehicle Docked Autonomously REMUS Development for NSW UUV Fest 1 ORD Threshold Achieved FE II FE III ADM SDV Demo 6DOF Model Semi-Autonomous Hydrographic Recon Vehicle EDM DT HYDROID, INC WHOI Spin-off OPEVAL IOC 8 Units FOC 18 Units REMUS Development for MCM LCS Mission Module PIP Product Improvement Plan ACOMMS, CAD/CAC, OAS, PNAV (DEMO FOCUS) FBE-H (SCM) KB-01 (R-I) UUV Fest (ACOMMS) FBE-J (CAD/CAC) UUV Fest (Multi UUVs) CJTFEX (MSN Modules) PMS EOD SCM / RIN UOES SCM Call to Duty Umm Qasr FEB 03 (IRAQI FREEDOM) ATFP SCULPIN UOES R-I IOC SCM SYS REMUS Production Version

Transitions ACAT IV-T MK 14 Mod 0 SAHRV

SAHRV Factory Acceptance Test (FAT) Reviewed and approved by U.S. Navy to test SAHRV systems Verifies system s capabilities to meet specification for: Compass Calibration LBL Navigation Range Navigation Accuracy Sonar Resolution Battery Capacity Vehicle Speed Altitude Accuracy Depth Accuracy HTML Report Generation

All Requirements are evaluated during two hour mission

EOD UUV SCM Prototype

UK MOD System Hydroid received major contract from the United Kingdom Ministry of Defense to supply (10) REMUS Autonomous Underwater Vehicle systems to the Royal Navy REMUS will enable the Royal Navy to undertake rapid mine reconnaissance in the Very Shallow Water (VSW) zone an area which, currently, is accessible to divers only. Employing REMUS will reduce the risk to clearance divers during operations in the detection and clearance of maritime mines."

RECENT REMUS DEMONSTRATIONS/TRAINING REMUS Trials in Germany Trials in Rotterdam Harbor Trails Finland German Navy training NATO Undersea Research Centre (NURC) Scandinavian demonstrations

Shallow Water Reacquisition Technology 3 REMUS 100 vehicles 86 lbs, 7.5 hours @ 4.5 knots modular end cap 2 Gateway Buoys SENSORS 900/1800 khz sonar 1200 khz ADCP Optical backscatter Conductivity Temp CAD/CAC NAVIGATION LBL acoustic P-code GPS Kearfott T-16 IMU (ADCP, GPS, LBL aided) COMMUNCATION Acoustic Modem Iridium Modem COMMUNCATION Acoustic Modem Iridium Modem FreeWave Modem GPS

REMUS 100 MCM Vehicle Mission Flexibility Supports Search & Classify & Map and Reacquire & Identify Missions Forward-looking Sonar DIDSON 1.6 m long vehicle 39 kg 14 hour mission duration at 1.5 m/s Ship by commercial overnight carrier Submarine compatible Low-light video camera

REMUS Customers WHOI has delivered 17 REMUS systems 4 Academic institutions 13 U.S. Navy Hydroid has delivered 60 REMUS systems 36 U.S. Navy 6 U.S. Government 8 Academic institutions 1 German Navy 2 Royal Dutch Navy 2 NATO Undersea Research Centre 2 Singapore Navy 3 Commercial

Autonomous Docking Problem Provide sustainable and affordable access to littorals using robotic technologies that are compatible with fleet technology Provide technology that facilitates its creative use by war fighters Sustained autonomous operations in the littoral environment

REMUS Docking system

Docking Test Results

REMUS 100 Harbor security and under hull surveys

Map of New York City Watershed 50 % 40 % 10 % BQ Aquifer 1% Delaware Aqueduct Under Construction

REMUS 6000 Base line Configuration Survey Switchable 300/900 khz sidescan 12 hour duration at 4 knots Field exchangeable battery packs Multi-vehicle operations Mission redirection over acoustic or Iridium links Navigation Acoustic long base line INU aided with GPS and ADCP Communication Iridium modem Acoustic communications WiFi Payload exchange Electronic still camera & strobe Sub-bottom profiler

REMUS 6000 Launch and Recovery

Successful Operations have been conducted in 15 foot Seas

March 03 Test Areas 4,999 m 2,500 m

4,999 M Test Area

SAMS Mission 9 Profile Total Mission Time 13:20 Dive 17:52 Surface 07:12 Vehicle descent 1:48 Drop weight Bottom Lock 0:42 Drop ascent weight Vehicle Ascent 0:42 Weight finally drops Bottom Time 10:12

2,500 m Test Area

Mission 13 12nm Redirect Vehicle Transect Rim Base Depth Transect Slope - 2,250 m - 3,875 m 1,625 m 20,000 m 4.6 deg

Descent Down the North Kaibab Trail Rim Colorado River Depth Trail Length Slope 2,512 m 739 m 1,773 m 22,000 m 4.6 deg. Bright angel point

Shallow Low Altitude Imaging (4 meters) Electronic Still Image, with 200 W-S strobe illumination 900 khz Side Scan Fish School off Charleston in 30 meters.

Post Target Analysis Repeatedly returned to boat for imaging Redirected vehicle via modem to over fly target in follow missions

Light Weight Torpedo Class AUV REMUS 600

SSAM/Remus600 System (12.75 shell diameter class) BBLF Projector HF Projector BB Hydrophone SAS Payload UUV Status Team SSAM WHOI Sponsor: ONR Simultaneous dual frequency band operation: HF band = 105-135 khz, 1 x 1 res. LF Band = 8-52 khz, 3 x 3 res. DC Capabilities against proud & slightly buried targets. Array elements used for MoComp = 2. Range = 90/V (45 meters @ 2 m/sec). L SA HF band = 11 meters L SA LF band = 22 meters Remus600 Scheduled to participate in AUV FEST 05 (6-17 June). Tom Swean WHOI, ARL/PSU, VCT & NSWC-PC

SASS Images

Repeated Autonomous Surveys of the Open Ocean thru shipping lanes Repeated 300 km cross shelf transect from a seafloor docking station located at the end of cabled seafloor observatory Subsurface observations are essential for properly constraining data assimilative models

REMUS Technology Demonstrated at AUV Fest 2005 Multiple vehicle operations Dual frequency 900/1800 khz Side Scan Dual Frequency SASS 600 KHz Phased Array DVL Kearfott T-16B INS LBL Nav on INS configured REMUS ACOMMS high speed mode, image transfer Wet Labs BB2F Rockwell-Collins P Code GPS Iridium and WiFi Communications Simulated AUV Launch from a Dry Deck Shelter Autonomous Docking System for REMUS 100

Questions?