New England Marine Energy Development System NEMEDS

Similar documents
Integrated Marine Data and Information System

Resolving Spatial Resource Gradients at Tidal Energy Sites

Assessing Tidal Energy Resource

Centre for Autonomous Marine Operations and Systems

Coastal Virginia Offshore Wind partnership with Orsted. February 2018 Update

MULTI-TEMPORAL SATELLITE IMAGES WITH BATHYMETRY CORRECTION FOR MAPPING AND ASSESSING SEAGRASS BED CHANGES IN DONGSHA ATOLL

MIMO Transceiver Systems on AUVs

Goal: Effective Decision Making

Norwegian Centre for Coastal Technology NCCoast

Pioneer Array Micro-siting Meeting

Robust, Reliable and Secure Marine Data

Strategic Marine Alliance for Research & Training (SMART) Bespoke Training Proposals and Supports

Recent Developments in NOAA s Real- Time Coastal Observing Systems for Safe and Efficient Maritime Transportation

SNMREC Program Update

High Frequency Acoustical Propagation and Scattering in Coastal Waters

Founding Manifesto Friends of Floating Offshore Wind 18 May 2016

Ocean/Marine Engineering and Naval Architecture Research and Education Experience and Capacity at Canadian Universities

Building on Engineering Centres of Excellence for Offshore Oil and Gas

Old House Channel Bathymetric and Side Scan Survey

Design and validation challenges of floating foundations: Nautilus 5MW case. Iñigo Mendikoa Research Engineer

PART III: CROSS-CUTTING ISSUES

The South West Makes Waves In Scotland

Engineering Solutions

Models of Acoustic Wave Scattering at khz from Turbulence in Shallow Water

CANADA S OCEAN SUPERCLUSTER DRAFT NOVEMBER 1

Ocean energy State of the industry and Ocean Energy Forum Roadmap. Remi GRUET, CEO, Ocean Energy Europe

Underwater source localization using a hydrophone-equipped glider

EXISTING MARINE RENEWABLE ENERGY ROAD- MAPS

NAVAL ARCHITECTURE, OCEAN AND MARINE ENGINEERING

XAYABURI HYDROELECTRIC POWER PROJECT. Fish Migration Facilities Vientiane, 15 July 2015 Dr Tobias Coe

Fall Open House. Department of Mechanical Engineering. Brad Kinsey Professor and Chair

South Coast Marine Cluster. World Leading Innovation-led Marine & Maritime Cluster

UNDERWATER NOISE, MARINE SPECIES PROTECTION, AND IMPLICATIONS FOR MARINE SURVEYS. Presenter: Denise Toombs Company: ERM

Chesapeake Bay adaptation Designing marshes for David Curson, National Audubon Society Erik Meyers, The Conservation Fund

Measuring Currents from Aids-to-Navigation Buoys

Shallow Water Array Performance (SWAP): Array Element Localization and Performance Characterization

Ensuring habitat considerations in beach and shoreline management along Delaware Bay a bay wide perspective.

Annex I Content, format and structure of annual reports for exploration under contract for polymetallic nodules

Underwater acoustic measurements of the WET-NZ device at Oregon State University s ocean test facility

PlaceLab. A House_n + TIAX Initiative

Iowa Bridge Sensor Demonstration Project Phase I and Phase II Executive Summary Report. Floodplain Management Services Silver Jackets Pilot Study

Kordil Surveying & Engineering Services

The VIMS mission is to achieve and maintain a national and international position as a premier coastal marine science institute. This involves making

President Barack Obama The White House Washington, DC June 19, Dear Mr. President,

Rutter High Resolution Radar Solutions

ENVIRONMENTAL ASSESSMENT (EA) PROCESS

Southeast O ahu (SEO) Regional Sediment Management (RSM) Workshop #2 June 1, 2005 Ko olau Golf Course

A Centre of Research-based Innovation Bridging Industry and Science. Erling Kolltveit, Manager

Plan of Action. Juanjo Dañobeitia UTM-CSIC. OBS Meeting, Barcelona, 20 Sep 2010

EIS - Electronics Instrumentation Systems for Marine Applications

Update on Ireland Marine Renewables Infrastructure Industry Research. Raymond Alcorn

European funding opportunities for Ocean Energy

Western Region enavigation Sub- Committee Report

Insights from the Scottish Aquaculture Innovation Centre

SMART MANUFACTURING: A Competitive Necessity. SMART MANUFACTURING INDUSTRY REPORT Vol 1 No 1.

Underwater noise survey during impact piling to construct the Burbo Bank Offshore Wind Farm.

Field Observations and One-Dimensional Flow Modeling of Summit Creek in Mack Park, Smithfield, Utah

ClassNK R&D Activities in Singapore, Collaborations & Policies

taking the next generation of explorers to the heart & soul of Science itself.

1. Qualitative Assessment... II-101

The Marine Plan for the Isle of Man. Dr Peter McEvoy Marine Spatial Planning Project Officer Isle of Man Government

MLPA NCSR Baseline Seabird Nearshore Foraging and Feeding Flock Monitoring Protocol Point Blue Conservation Science

MARINE GEOPHYSICAL PROVE-OUT AND SURVEY AT FLAG LAKE BOMBING RANGE BARKSDALE AIR FORCE BASE, LOUISIANA

SEABED MAPPING IN THE NATIONAL MARINE SANCTUARIES. Bradley W. Barr, NOAA s National Marine Sanctuary Program. Abstract

The Growing Offshore Wind Market: Massachusetts Example National Conference of State Legislatures

Claire Jolly Head, Innovation Policies for Space and Oceans Unit, OECD. Our Ocean Wealth Summit: Investing in Marine Ireland

Oportunidades de negocio SECTOR MARÍTIMO

Intelligent Sensor Platforms for Remotely Piloted and Unmanned Vehicles. Dr. Nick Krouglicof 14 June 2012

2020 CALL FOR PRE-PROPOSALS OPEN MEETING. Michael Triantafyllou MIT SG Director January 24, 2019

Quantifying Effects of Mid-Frequency Sonar Transmissions on Fish and Whale Behavior

Mid-Frequency Noise Notch in Deep Water. W.S. Hodgkiss / W.A. Kuperman. June 1, 2012 May 31, 2013

Acoustic propagation affected by environmental parameters in coastal waters

tides waves tapping The case for marine energy Lauren Smith Jorge Seaman Siah Hwee Ang

An Energy Utility Perspective and Approach to Airborne Wind

A Roadmap for Commercializing Microgrids in California

Offshore wind R&D agenda Blue Week 2018

A Report On Tide Gauges In Singapore. 1 The Republic of Singapore is an island city-state situated at the southern tip of

COURSE 2. Mechanical Engineering at MIT

Roberts Bank Terminal 2 Project Field Studies Information Sheet

The first Floating Wind Turbine in France (SEM-REV) I. Le Crom, ECN, EERA Deepwind 19/01/2018

Falmouth Bay Short Term Test Site for Marine Energy Converters

Coastal Imaging of Morphology

NPS Inventory and Monitoring Program

Commercial Fishing and Offshore Wind in Maine For more information: Josh Plourde (207) March 16, 2018

Floating offshore wind turbine design stage summary in LIFES50+ project

B028 Improved Marine 4D Repeatability Using an Automated Vessel, Source and Receiver Positioning System

U.S. Army Corps of Engineers Regulatory Program

WAVE & TIDAL SERVICES WAVE & TIDAL

Marine Knowledge Infrastructure

NSRI Mastermining Wave & Tidal Workshop 16/05/18. Opening Address. David Rennie Head of Oil and Gas Scottish Enterprise.

TC 114 United Kingdom

Development of Mid-Frequency Multibeam Sonar for Fisheries Applications

Jeffrey H. Bowles, Wesley J. Moses, Gia M. Lamela, Richard Mied, Karen W. Patterson, and Ellen J. Wagner

Wildlife distributions and habitat use on the mid-atlantic Outer Continental Shelf

SATELLITE OCEANOGRAPHY

A SCOR/IAPSO-sponsored Study Tom Rossby, University of Rhode Island

MASSACHUSETTS INSTITUTE OF TECHNOLOGY Department of Ocean Engineering PROJECTS IN NAVAL SHIPS CONVERSION DESIGN IAP 2003

IHO Presentation Offshore Renewables

North Atlantic Right Whales and Offshore Wind Mitigation Measures and Offshore Wind Site Assessment and Characterization Activities

Coastal Benthic Optical Properties Fluorescence Imaging Laser Line Scan Sensor

Transcription:

New England Marine Energy Development System NEMEDS INTRODUCTION The New England Marine Energy Development System (NEMEDS) is a series of test sites aiming to satisfy the requirements of Technology Readiness Levels (TRLs) for commercializing Marine Hydrokinetic (MHK) devices. The challenges of operating in the ocean environment are daunting and, for this reason, the Department of Energy has adopted TRL s to encourage progressive development through Links to topics: CURRENT/IN STREAM TESTING TRL I-III Various University Sites TRL IV-V S.O. Conte Anadromous Fish Laboratory (CAFRL), USGS TRL VI-VII Bourne Tidal Test Site: A Tidal Energy and Remote Sensor Testing Facility TRL VI-VII Muskeget Channel Tidal Test Site WAVE ENERGY CONVERSION TESTING CONCLUSIONS stages of increasing complexity and environmental severity. NEMEDS integrates test capabilities of university and commercial tanks and flumes with additional test sites being developed by the Marine Renewable Energy Collaborative (MRECo), Inc. and its partners to create a complete development environment. The goal of NEMEDS is a to develop a consistent set of standards and protocols to provide device developers and researchers with a predictable and costeffective testing environment, lowering risk and encouraging new technology commercialization. BACKGROUND The MHK industry has the potential of providing predictable and reliable power to the United States, electrical grids around the world, and many off grid communities, but the challenges are significant. Several years ago a panel of MHK company CEOs estimated that it would take 10 years and $80 million to bring a MHK device to market. Given the challenges of operating in the ocean, a major cost of development is testing, and early estimates suggested that permitting was 70% of the cost of a demonstration. Clearly, the cost and risks of commercialization, particularly in testing, represent huge barriers to entry in the market. However, given the current costs of these devices, new technologies are needed to achieve commercial viability. A test environment that would allow standard test protocols at all TRL levels would address this problem by lowering cost and risk. This environment is provided by NEMEDS. MRECo, formerly the University of Massachusetts Marine Renewable Center (MREC) is a nonprofit corporation that is addressing MHK testing needs by developing NEMEDS. Where Marine Renewable Energy Collaborative 1 Director@MRECoNewEngland.org

capabilities exist, such as at TRL I-IV, MRECo works with universities, government labs and commercial entities to share best practices and establish standards. If no capability exists, MRECo is satisfying the needs by developing new test sites. To date, most developers in the region have focused on current driven (aka in-stream or tidal) devices and MRECo s efforts have been primarily in this segment. Where needed, MRECo has worked with wave device developers to find test facilities for these devices. The following descriptions address the needs of testing for current devices. CURRENT/IN STREAM TESTING TRL I-III Various University Sites The New England region has a rich academic and entrepreneurial environment. Tow tanks and small flumes are available at the Universities of New Hampshire, Rhode Island, and Maine, as well as MIT and Brown, among others. MRECo and associated universities have worked with over 20 MHK companies and have significant experience in addressing specific component testing needs. However, the challenge of going from component and small scale testing in a lab to the ocean environment require capabilities that the developers do not have. MRECo will connect developers with these facilities and provide technical support where needed. TRL IV-V S.O. Conte Anadromous Fish Laboratory (CAFRL), USGS CARFL is dedicated to fish passage studies and has one of the largest flumes in the United States to support research. The 39 m long open channel facility has a depth of 5 meters, with two 3 meter wide and one 6 meter wide flumes. The facility has a maximum flow of 350 cfs allowing flumes to be configured to support velocities of over 2 m/s. The facility has fish breeding tanks, and a range of telemetry and video capability. It has been used for tidal turbine studies, but each test required extensive setup by the tester. MRECo has worked with CARFL to develop a standardized test protocol to lower test costs and provide a consistent evaluation baseline. In 2012 MRECo secured funding to study the tidal testing capability at CARFL, make recommendations on equipment needs, and purchase additional instrumentation. In 2015 MRECo implemented an agreement with CARFL to allow MRECo to manage tidal testing at the facility. A two week, $31,000 standard mechanical test protocol is being developed with options for biological testing such as fish passage/strike or micro zooplankton impact, and array studies. Testing is expected to begin in 2018. Marine Renewable Energy Collaborative 2 Director@MRECoNewEngland.org

TRL VI-VII Bourne Tidal Test Site: A Tidal Energy and Remote Sensor Testing Facility The Cape Cod Canal has water velocities of over 2 m/s making it attractive for tidal development. However, there is limited opportunity for a large-scale due to the potential impacts on its primary use as a navigation channel. Fortunately, there is a location where a railroad bridge caisson creates a natural flume which has the high velocities required for tidal testing and is out of the navigation channel. This site has been used three times for small demonstration projects. The site is controlled by the US Army Corps of Engineers (USACE), is close enough to the shoreline to allow work to be conducted by crane rather than by barge, and it has a secured building suitable for power electronics and instrumentation. MRECo has received funding from the Massachusetts Seaport Council to design, construct, install and operate a test platform at the site which will be made available to device developers and sensor manufacturers for in situ testing in the ocean environment. USACE supports the concept of this work and is working with MRECo for permitting. MRECo has surveyed the site using state of the art ADCP technology along with data processing software that profiles the water velocity through two typical tidal cycles. In addition, the site has been surveyed using sophisticated cameras to characterize the sea bed for sediment composition and for biological diversity, all to satisfy environmental permitting requirements. The standard protocol envisioned for this site is a three month test. Marine Renewable Energy Collaborative 3 Director@MRECoNewEngland.org

This site can support testing of axial turbines up to 3 meters in diameter and testing of other conversion technologies. Remote Sensor Testing on BTTS Use of the BTTS for other types of sensors is possible. For instance a company or organization may wish to install a remote oceanographic, meteorological, environmental sensor (s) to test longevity, or data transmission for calibration purposes. TRL VI-VII Muskeget Channel Tidal Test Site The Town of Edgartown has pursued developing a tidal energy site in the Muskeget Channel between Martha s Vineyard and Nantucket Islands since 2007. MRECo has supported Edgartown by providing resource and environmental studies required by the FERC application process. In return, Edgartown has guaranteed that a berth will be reserved for a tidal energy test site and this has been included as a formal component in all of Edgartown s permit applications. To date over $2 million have been expended on resource, benthic, sediment, marine mammal and other studies. Sediment Transport Study Water Velocity Profile Bathymetry The Muskeget Test Site is usable for a wide range of testing. The site experiences water velocities of over 2.5 m/s and is in 40 meter water depth. Trade studies suggest that a barge would be the most effective form of installation for the site, but bottom mounting is also allowable. If funding is acquired, testing could begin in 2019. Marine Renewable Energy Collaborative 4 Director@MRECoNewEngland.org

WAVE ENERGY CONVERSION TESTING MRECo is coordinating WEC test sites in several locations. In New Hampshire, the Open Ocean Aquaculture site off the Isle of Shoals offers a site fully permitted for scientific study with 40 meter depths. The Island of Cuttyhunk is a non grid connected community that is open to shallow water testing and funding for a demonstration there is being sought. CONCLUSIONS To be successful, the MHK industry must find newer, more efficient technologies. The key requirement in any new MHK technology is survivability and the TRL system has been applied to avoid the disastrous failures of the past. However, the cost to commercialize new technologies is a barrier that inhibits entrepreneurs from even trying to enter this market. A critical element in this is the cost and uncertainties of testing. MRECo is developing NEMEDS to address this barrier and allow new technologies to advance to market more quickly and at lower costs. Give us a call and let s see what we can do to help you advance your particular device. 508-728-5825. CONTACT: John Miller, executive director MRECo for details on how your system can be tested at any one of the NEMEDS test facilities. 508-728-5825. director@mreconewengland.org Marine Renewable Energy Collaborative 5 Director@MRECoNewEngland.org