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

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

High Definition Laser Scanning (HDS) Underwater Acoustic Imaging and Profiling

NOAA s Underwater UXO Demonstration Projects Vieques Island, Puerto Rico

Advanced PMA Capabilities for MCM

EPA R6 Dive Team Operations Report. San Jacinto Waste Pits Channelview, TX December 9-10, 2015

Vieques Underwater Demonstration Project

General Dynamics Canada Whitepaper. Abstract

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

Utilizing Vessel Based Mobile LiDAR & Bathymetry Survey Techniques for Survey of Four Southern California Breakwaters

Panel Discussion on unmanned Hydrography

THE POLARIMETRIC CHARACTERISTICS OF BOTTOM TOPOGRAPHY RELATED FEATURES ON SAR IMAGES

Reply of Guyana Annex R2

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

Certified Professionals in Hydrographic Solutions

Challenges in determining water surface in airborne LiDAR topobathymetry. Amar Nayegandhi, Dewberry 15 th Annual JALBTCX Workshop, June 11 th 2014

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

Potential applications of AUVs and Gliders in Offshore Windfarm Site Surveys

NERC GEOPHYSICAL EQUIPMENT FACILITY LOAN 904 SCIENTIFIC REPORT

The optimal position of a sidescan sonar towfish fixed to a shellfish vessel for very shallow surveys an experiment in the Dutch Wadden Sea

MARINE NAVIGATION LESSON PLAN See That Sound?

Underwater Robots Jenny Gabel

ACOUSTIC ASSESSMENT OF JUVENILE BLUEFIN TUNA AGGREGATIONS: A FEASIBILITY STUDY

Acoustic Pipeline Inspection Mind The Gap

SWIFT FSC GUIDE NET ARRANGEMENTS

Creation of bathymetric maps using satellite imagery

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

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

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

Body Search and Recovery Using Sonar

Department. «Ships and on-board Equipment» lfremer. (Head : Marc Nokin)

Tifft Water Supply Symposium

Comparison of data and model predictions of current, wave and radar cross-section modulation by seabed sand waves

Marine Mammal Mitigation Systems

Observations of noise generated by nonlinear internal waves on the continental shelf during the SW06 experiment

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

The Dalles Dam Powerhouse Trash Rack ROV Inspection Report

Large-scale Field Test

Exploration of Underwater Volcano by Autonomous Underwater Vehicle

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

THE PRIMARY SOURCES OF SHIP NOISE OBSERVED ON THE BOTTOM OF SEA KAROL LISTEWNIK

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

Scanning Sonar and ROV Operations. For Underwater SAR Imaging Applications

UTEC Survey Pipeline Inspection Using Low Logistic AUV June 2016

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

Acoustic communication for Maya Autonomous Underwater Vehicle - performance evaluation of acoustic modem.

NUI Overview. Mike Jakuba Woods Hole Oceanographic Institution

Figure 1 - Photo of Surveyed Area. Figure 2 - Void Survey Results

Uncertainty Estimates in Satellite Derived Bathymetry

WMB-160F Multi-beam Fishing System

Plot the Path. Mary Anne Otten. lesson three

Argentine Navy ARA San Juan (S-42) Search 2018

19 INTERNATIONAL CONGRESS ON ACOUSTICS MADRID, 2 7 SEPTEMBER 2007

The optimal position of a sidescan sonar towfish fixed to a shellfish vessel for very shallow surveys an experiment in the Dutch Wadden Sea

Emerging Subsea Networks

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

Activities of KHOA on creation of S-10X test data sets and S-100 sea trial

Survey Technique for Underwater Digital Photography with Integrated GPS Location Data

Folkestone Fieldwork: Where is Folkestone? What will we be investigating?

Background Paper: Surveys. Nord Stream 2 AG Sep-17

from ocean to cloud PARAMETRIC SUB-BOTTOM PROFILER, A NEW APPROACH FOR AN OLD PROBLEM

Bathymetry Data Collection for Subaqueous Soil Mapping. Maggie Payne 2 nd National Workshop on Subaqueous Soils Rhode Island August 9-12, 2010

CBIBS 2008 Online Data Scavenger Hunt by Christopher Petrone; Adapted from CBIBS 2007 Data Scavenger Hunt by Lorraine Brasseur

RAPid Image Exploitation Resource (RAPIER ) Ship Detection System

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

NCDOT S EXPERIENCE USING HYDRAULIC SETTLEMENT GAUGES. David L. Teague,P.E. NCDOT GEOTECHNICAL ENGINEERING UNIT

Mitsui Engineering & Shipbuilding Co., LTD. Kenji NAGAHASHI

BACKGROUND TO STUDY CASE

Evaluation of June 9, 2014 Federal Emergency Management Agency Flood Insurance Study for Town of Weymouth, Norfolk, Co, MA

Using AUVs in Under-Ice Scientific Missions

Testing and Evaluation of REMUS Vehicle Systems

Small Footprint Topo-Bathymetric LiDAR

SPE Combining Absorption and AVO Seismic Attributes Using Neural Networks to High-Grade Gas Prospects

DUALEM EM EQUIPMENT. Geostudi Astier srl Via Nicolodi, Livorno Italy

MISSION PLANNING AND DATA ACQUISITION SOFTWARE

TEST OF THE DETECTION CAPABILITIES OF A SIDE SCANNING SONAR MOUNTED ON AN AUV

LEADER SEARCH RADAR LIFE LOCATOR

BOTTOM MAPPING WITH EM1002 /EM300 /TOPAS Calibration of the Simrad EM300 and EM1002 Multibeam Echo Sounders in the Langryggene calibration area.

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

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

RAMSTM. 360 Riser and Anchor-Chain Integrity Monitoring for FPSOs

DUXBURY WAVE MODELING STUDY

Sea Level Rise and Coastal Flooding Why Waves Matter!

14/10/2013' Bathymetric Survey. egm502 seafloor mapping

Meeting the Challenges of the IHO and LINZ Special Order Object Detection Requirements

Feasibility Study: Remote Sensing of Lost Snow Crab Pots in Newfoundland and Labrador

An Atlas of Oceanic Internal Solitary Waves (February 2004) by Global Ocean Associates Prepared for Office of Naval Research Code 322 PO

An effective approach for wide area detailed seabed mapping

How to use my FishHunter Directional 3D

ALFA Task 2 Deliverable M2.2.1: Underwater Vehicle Station Keeping Results

Cruise Report. Field Oceanography. Team 5, Leg 3

Autonomous Underwater Vehicle. Description and General Information 1. Safety and Limitations 2. VectorMap 3. Operation 4 UVC 5.

Sussex County, DE Preliminary Study Overview

REPORT DOCUMENTATION PAGE

Search Methodology. massive parts of the aircraft traveled down the reef. yet, unexplored depths. The Niku VII expedition. will have the capability to

SEASONDE DETECTION OF TSUNAMI WAVES

High Frequency Acoustical Propagation and Scattering in Coastal Waters

High- resolution near- shore geophysical survey using an Autonomous Underwater Vehicle (AUV) with integrated magnetometer and side- scan sonar

Data Collection and Processing: Elwha Estuary Survey, February 2013

Fine-scale Focal DTAG Behavioral Study in the Gulf of Maine

High Frequency Acoustical Propagation and Scattering in Coastal Waters

Transcription:

Copicut Reservoir Sidescan Sonar Fall River, MA May 7, 2013 1

Table of Contents Section 1: Mission Overview... 3 Background... 3 Vehicle General Information... 3 Vehicle Mission Details... 4 Area of Operation... 4 Perimeter Mission Track... 5 Dam Mission Track... 6 Sites of Interest... 7 Section 2: Klein 3500 Sidescan Sonar Images... 8 SonarWiz5 Processing... 8 Mission 1: Perimeter Region... 8 Mission 2: Dam Subsurface Region... 13 Section 3: Mission Summary... 14 Summary:... 14 2

Section 1: Mission Overview Background: In 1973, the City of Fall River, MA, converted an old quarry into a body of water known today as Copicut Reservoir. The lake serves as the reserve water supply to North Wattupa Pond, Fall River s primary drinking water supply. Recently, the Fall River Water Department requested an evaluation of the integrity of the reservoir s shoreline and an investigation into possible signs of erosion alongside the embankment of the Copicut Reservoir Dam. Working in association with the Fall River Water Department, UMass Dartmouth s Coastal Systems Technology (CST) group performed a preliminary survey of the perimeter and dam subsurface regions of the reservoir utilizing underwater acoustic imaging technologies. The two missions were conducted using a small man-portable Iver2-AUV equipped with a highresolution Klein 3500 sidescan sonar system (see Figure 1 bellow). Figure 1: A man-portable Iver2 AUV equipped with Klein sidescan sonar Vehicle General Information: Table 1: Vehicle General Information Participants Coastal Systems Technology (CST), OceanServer Technology, Inc. Vehicle Identification no. 167 Active sensors DVL, Klein 3500 Sidescan Sonar Operating area Copicut Reservoir Fall River, Massachusetts, USA Date and day of run Tuesday, 7 May 2013 3

Vehicle Mission Details: Table 2: Vehicle mission details for each mission Mission # Region Duration (hr:min:sec) Number of Waypoints Vehicle depth from surface (ft) Speed of vehicle (kn) 1 Perimeter 1:16:08 31 0 2.5 2 Dam 0:23:20 12 3 2.5 subsurface Area of Operation: Figure 2: Copicut Reservoir Figure 2 is a satellite image of Copicut Reservoir. 4

Perimeter Mission Track: Figure 3: Perimeter mission track In Figure 3, the perimeter mission track is superimposed on a satellite image of Copicut Reservoir. 5

Dam Mission Track: Figure 4: Dam Subsurface mission track Figure 4 displays the dam mission track overlaid on a satellite image of Copicut Reservoir. 6

Sites of Interest: 4 5 2 3 6 1 Figure 5: Sites of interest In Figure 5, Klein 3500 images acquired from the perimeter and dam subsurface missions are overlaid on the satellite base-map of Copicut Reservoir. 7

Section 2: Klein 3500 Sidescan Sonar Images SonarWiz5 Processing: During the post-processing phase of the project, the CST team utilized Chesapeake Technology s SonarWiz5 software to render the high-resolution Klein 3500 sonar images acquired during the missions. The pictures corresponding to the perimeter and dam subsurface missions are depicted below. Image properties such as sidescan range, vehicle depth from surface (DFS), and vehicle speed are provided for each set of images. Mission 1: Perimeter Region Table 3: Perimeter Region Image Specifications Sidescan type Klein 3500 Frequency enabled 900 khz Sidescan range 60 m Speed of vehicle underwater 2.5 kn DFS 0 ft Figure 6: Site 1 Figure 6 is a discarded pile of granite. Figure 7 shows a close-up view of the same feature. 8

Figure 7: Magnified image of Site 1 Figure 8: Site 2 9

Figure 8 shows the contour of the shoreline and a possible walkway. Figure 9: Site 3 The bottom depicted in Figure 9 is mostly flat with sand. Several piles of rocks lay on the bottom of the reservoir. 10

Figure 10: Site 4 Figure 10 shows the contours of the shoreline, depicting open flat sandy regions, as well as large rocky areas. 11

Figure 11: Site 5 Linear patterns of rocks are indicated in Figure 11. 12

Mission 2: Dam Subsurface Region Table 4: Dam Subsurface Region Image Specifications Sidescan type Klein 3500 Frequency enabled 900 khz Sidescan Range 60 m Speed of vehicle underwater 2.5 kn DFS 3 ft Figure 12: Site 6 Figure 12 depicts the edge of the dam (the broad lightly colored band) and two ridges in the shoreline just past that. Figures 13 and 14 are magnified screenshots of the dam subsurface embankment. Figure 13: Magnified image of Site 6 13

Figure 14: Magnified image of Site 6 Section 3: Mission Summary Summary: A small man-portable Iver2-AUV equipped with a high-resolution Klein 3500 sidescan sonar system was sent into Copicut Reservoir to collect underwater acoustic images of the shoreline and dam subsurface. During post-processing, Chesapeake s SonarWiz5 software was the enabling technology that was utilized to generate high-resolution imagery of the bottom features of the reservoir. These detailed pictures provided a comprehensive idea of the integrity of the reservoir s shoreline, as well the structural characteristics of the Copicut Reservoir Dam. Several abandoned piles of rocks observed near the shoreline of Copicut Reservoir offer supporting evidence of the area s previous quarry operation. After inspection of the dam subsurface region, it can be concluded that no anomalies were detected in the dam face. 14