NNMREC Behavioral Response of Harbor Porpoises to Vessel Noise in a Tidal Strait Ambient Noise and Marine Mammals May 23, 2011 Brian Polagye 1, Jason Wood.

Slides:



Advertisements
Similar presentations
NNMREC November 4, 2010 Boundaries: Benthic and Coastal Environments Renewable Ocean Energy and the Marine Environment Environmental Effects of Tidal Energy.
Advertisements

NNMREC Lyceum 2.0 February 16, 2011 Energy Futures of Puget Sound: Are Our Tides Part of the Solution? Brian Polagye, Jim Thomson, and Chris Bassett University.
NNMREC Work Session: Regional Developments in Marine Energy March 23, 2011 Northwest National Marine Renewable Energy Center Brian Polagye University of.
NNMREC Estimating the Acoustic Impact of a Tidal Energy Project Chris Bassett, Jim Thomson, and Brian Polagye University of Washington Mechanical Engineering.
Implications of Tidal Phasing for Power Generation at a Tidal Energy Site Brian Polagye and Jim Thomson Northwest National Marine Renewable Energy Center.
EU Marine Strategy Framework Directive Descriptor 11: Underwater Noise
Contact: Merin Broudic Spatial variation of sediment/cobble motion noise Figure 1 highlights the background noise.
NNMREC Work Session: Regional Developments in Marine Energy March 23, 2011 Introduction to Marine Energy Brian Polagye University of Washington Northwest.
NNMREC Developing Capabilities for Tidal Hydrokinetic Blade Strike Monitoring Brian Polagye, Sharon Kramer, Sandra Parker- Stetter, and Jim Thomson Northwest.
NNMREC National Marine Renewable Energy Centers Hawaii National Marine Renewable Energy Center (HINMREC) University of Hawaii Wave, OTEC Southeast National.
Cetacean click tone logging by PODs Chelonia Limited / Nick Tregenza.
NNMREC Environmental Effects of Tidal Energy Outcomes of a Scientific Workshop Brian Polagye University of Washington Northwest National Marine Renewable.
Differences measuring levels Root mean square (RMS) –For long (continuous) signals –Average power delivered Peak-to-peak (pp) –Extremely short signals.
Val Veirs Colorado College Colorado Springs, CO, Scott Veirs Beam Reach marine science and sustainability school Seattle, WA,
Monitoring Processes at Sea using Underwater Sound Jeffrey Nystuen Marie Curie International Fellow Hellenic Center for Marine Research and Principal Oceanographer.
NNMREC November 5, 2010 Northwest National Marine Renewable Energy Center Standards and Protocols for Environmental Assessment Renewable Ocean Energy and.
An Investigation into Blockage Corrections for Cross-Flow Hydrokinetic Turbine Performance Robert J. Cavagnaro and Dr. Brian Polagye Northwest National.
Hydrokinetic Energy Research and Development Brian Polagye Northwest National Marine Renewable Energy Center Department of Mechanical Engineering University.
Passive Aquatic Listener: A state-of-art system employed in Atmospheric, Oceanic and Biological Sciences 1 M. N. Anagnostou, J. A. Nystuen 2, E. N. Anagnostou.
NNMREC Summary for Congressman Dave Reichart April 22, 2011 Northwest National Marine Renewable Energy Center University of Washington
1 | Program Name or Ancillary Texteere.energy.gov Water Power Peer Review Puget Sound Pilot Tidal Energy Project (TRL 7/8) Dr. Brian Polagye (for Craig.
Northwest National Marine Renewable Energy center Dr. Brian Fabien Northwest National Marine Renewable Energy Center University of Washington.
NNMREC Passive Acoustic Monitoring for Tidal Energy Projects Brian Polagye, Chris Bassett, and Jim Thomson University of Washington Northwest National.
NNMREC Integrated Post-Installation Monitoring Brian Polagye Northwest National Marine Renewable Energy Center University of Washington
Developing Monitoring Capabilities for Tidal Hydrokinetic Energy Installations Brian Polagye Northwest National Marine Renewable Energy Center University.
Defence Research and Development Canada Recherche et développement pour la défense Canada Canada The impact of noise on passive monitoring of marine mammals.
Northwest National Marine Renewable Energy Center NW National Marine Renewable Energy Center University of Washington
Northwest National Marine Renewable Energy Center Site Characterization of Tidal Resources: Admiralty Inlet Jeff Epler.
Kay Graf Physics Institute University of Erlangen TeV Particle Astrophysics II Madison, WI, USA August 28 – 31, 2006 Towards Acoustic Detection of UHE.
Listening to the Sound: Ambient Noise in Admiralty Inlet
Long-Term Ambient Noise Statistics in the Gulf of Mexico Mark A. Snyder & Peter A. Orlin Naval Oceanographic Office Stennis Space Center, MS Anthony I.
Northwest National Marine Renewable Energy Center Brian Polagye NW National Marine Renewable Energy Center Tidal Energy: Status and Trends Northwest Fisheries.
NNMREC November 4, 2010 Passive Acoustics New Environmental Technologies Renewable Ocean Energy and the Marine Environment Brian Polagye, Chris Bassett,
VESSEL NOISE AND ORCA VOCALIZATION: IMPLICATIONS FOR POLICY ALEXANDRA KOUGENTAKIS BEAM REACH FALL beamreach.org/071.
Beam Reach Marine Science and Sustainability School
NNMREC April 20, 2011 Ambient Noise in Admiralty Inlet Chris Bassett, Brian Polagye, and Jim Thomson University of Washington Northwest National Marine.
Northwest National Marine Renewable Energy Center Brian Polagye NW National Marine Renewable Energy Center Tidal Hydrokinetic Energy Overview Western Energy.
Development of an Adaptable Monitoring Package for Marine Renewable Energy James Joslin, Edward Celkis, Chris Roper, Andrew Stewart, Brian Polagye Northwest.
Monitoring underwater sound at the Seattle Aquarium Research proposal discussion Wednesday, July 19, 2006 Scott Veirs | | (206)
1 | Program Name or Ancillary Texteere.energy.gov Water Power Peer Review Acoustic Effects of Hydrokinetic Tidal Turbines Dr. Brian Polagye University.
2010 Ocean Science Meeting Marine Mammals in a Renewable Age - Review of Monitoring, Mitigation and Data Needs. Marine Mammal Society Conference Workshop,
Northwest National Marine Renewable Energy Center Presentation before Washington State House Committee on Technology, Energy, and Communications Northwest.
Northwest National Marine Renewable Energy Center In-stream Tidal Energy: NW National Marine Renewable Energy Center University of Washington
Development of an Adaptable Monitoring Package for Marine Renewable Energy Projects Part 2: Hydrodynamic Performance James Joslin, Brian Polagye, Andy.
Kilo Nalu Nearshore Reef Observatory Acoustic Monitoring The Soundscape of a Nearshore Reef near an Urban Center Whitlow W. L. Au Marine Mammal Research.
Killer whale (Orcinus orca) echolocation click rates during various behavioral states and ambient noise levels Hana Kazunas Beam Reach School of Marine.
Energy Postgraduate Conference 2013 Resource Assessment of the Agulhas Current to determine Feasibility for Marine Energy Extraction Centre for Renewable.
Underwater Vessel Noise in the Haro Strait Lindsay H. Robinson University of Puget Sound Intern with Beam Reach Marine Science and Sustainability School.
6/6/07 1 Sources of Anthropogenic Sound in the Ocean John Hildebrand Scripps Institution of Oceanography University of California San Diego Capital Hill.
Universitat Politècnica de Catalunya Michel André MEUST: Real-time Monitoring of Noise and Acoustic Events in Cetacean Acoustic Niches.
1 Northwest National Marine Renewable Energy Center 031, ,TID Far-field Effects of Tidal Energy Extraction in Puget Sound Brian Polagye PhD Candidate.
Northwest National Marine Renewable Energy Center A 3D Hydrodynamic model of inland marine waters of Washington State, United States, for tidal resource.
CD Navy SOCAL Training and Testing. CCC Action Options No Action Concur Conditionally Concur Object If the Navy does not agree with the Conditions.
Dutch program offshore wind energy Cumulative effects and Mitigation measures ORELG 4 february 2016.
Investigating the Effect of Large Vessel Noise on Southern Resident Killer Whales Hilary B. Rollins UC Davis Beam Reach Marine Science and Sustainability.
Acoustic Telemetry Tagging Hillary Sinnott SCM 330 March 12, 2008 Hillary Sinnott SCM 330 March 12, 2008.
References Amir, O. A., Berggren, P., Ndaro, S. G. M. and Jiddawi, N. S. (2005). Estuarine Coastal and Shelf Science 63/3: Christiansen, F., Lusseau,
QUEphone: An acoustic float for marine mammal monitoring Haru Matsumoto, Holger Klinck, David K. Mellinger, & Joe Haxel Oregon State University & NOAA.
Choice of Filters.
Marine and Hydrokinetic Energy R&D from a National Perspective
Correlation between underwater noise level and AIS data in the Gulf of Catania (Sicily) Sara Pulvirenti Erice International School.
Technology Timeline DeltaStream Demonstration Ramsey Sound Tidal Energy Ltd All Energy 2015 Glasgow.
Brian Polagye & Paul Murphy Keith Bethune, Patrick Cross, & Luis Vega
Species.
Sound Source Verification
Killer Whale Vocal Response to Vessel Traffic
Introduction of energy, including underwater noise, is at levels that do not adversely affect the marine environment Mark Tasker for TG11.
University of Washington, Mechanical Engineering
Tidal Hydrokinetic Energy WW-ASME Dinner Meeting
Acoustics of the Puget Sound
Presentation transcript:

NNMREC Behavioral Response of Harbor Porpoises to Vessel Noise in a Tidal Strait Ambient Noise and Marine Mammals May 23, 2011 Brian Polagye 1, Jason Wood 2, Chris Bassett 1, Dom Tollit 2, and Jim Thomson 1 1 University of Washington Northwest National Marine Renewable Energy Center 2 Sea Mammal Research Unit (SMRU), Ltd.

NNMREC Tidal Energy Project Site Overview Water Depth (m) Study Site Turbine Site  3.5 m/s (7 knot) maximum currents  60 m depth  Outside of commercial shipping and ferry lanes Admiralty Head Admiralty Inlet, Puget Sound, WA Source: OpenHydro

NNMREC Study Motivation  Acoustic effects of tidal energy projects on marine mammal behavior are not well-understood  High relative abundance of harbor porpoise in project area —Post-installation, use as a marker species  Evaluate pre-installation species response to existing anthropogenic noise sources —Investigate habituation – received noise levels do not uniquely determine species response (e.g., Southall et al. 2007)

NNMREC Data Collection: AIS Vessel-Minutes AIS Receiver Turbine Site Study Site >150

NNMREC Data Collection: Sea Spider  Evaluate relative presence/absence of echolocating harbor porpoise  Continuous detection and logging of clicks trains to range of 200 m  Train classifier (KERNO) post-processing Deployment Time: 93 days ADCP 600 kHz Hydrophone Loggerhead DSG Click Detector Chelonia CPod

NNMREC Hourly Trends

NNMREC Effect of Anthropogenic Stressors  Harbor porpoises expected to display avoidance to high received levels of noise —Exposures exceeding 140 dB re 1 µ Pa result in sustained avoidance (Southall et al. 2007)  Use passenger ferry as a pre-installation source of opportunity —Broadband source level: 170±2 dB re 1 µPa at 1 m —Source duration in CPod range ≈ 1 minute  Difficult to implement control site/study —Ferry operates 7 days/week on same schedule

NNMREC Click Train Analysis  Focus on temporal trends in activity and click train properties after closest point of approach by outbound ferry  16 time series (60 minutes) duration satisfy inclusion criteria —Ferry closest point of approach must result in an average ensonification of CPod detection range to 140 dB re 1 µPa —No other vessel within 2.4 km of CPod  Estimate ferry ensonification using sonar equation: —Broadband SL = 170 dB re 1m —Practical spreading – N = 15 —Neglect absorption – α ≈ 0

NNMREC Ferry Acoustic Stressor Received SPL (dB re 1µPa) Measured Ferry PositionsModeled Received Levels Average ensonification by ferry at closet point of approach = 141 dB

NNMREC Strong Reaction – Activity Is there an extended period of inactivity after ferry passes? N=16 ≈20 DPM/hr (median, N=93): No Detections Positive detection latency (minutes)

NNMREC Moderate Reaction – Activity Does activity increase over time? N = 16 R 2 = 0.1, F = 5.5, p = 0.02

NNMREC Moderate Reaction – Click Properties Do mean click train properties change over time? R 2 < 0.01, F = 0.2, p = 0.7R 2 < 0.01, F = 0.2, p = 0.6 R 2 = 0.1, F = 6.2, p = 0.02R 2 = 0.04, F = 2.7, p = 0.1

NNMREC Summary  Relatively high levels of porpoise activity in vicinity of proposed turbines – up to 60 detection positive minutes/hour  Relatively high ambient noise from existing vessel traffic – ambient noise levels can exceed 140 dB  Results suggest that local harbor porpoise population is habituated to periodic received levels ≥ 140 dB —No apparent cessation or modifications on time scales ≥ 1 minute —Less severe effects and non-vocal effects not studied  Extending results to the study of tidal turbine effects —Effects may be more subtle than expected due to habituation

NNMREC Questions? Acknowledgements This material is based upon work supported by the Department of Energy and Snohomish Public Utility District under Award Number DE-FG36-08GO  Joe Talbert and Alex deKlerk for designing and maintaining the Sea Spider.  Washington State Parks for hosting the AIS receiver and data logger.

NNMREC Relative Echolocation Activity

NNMREC Receptor Response Framework Reaction Severity Response DefinitionEvaluated in Study? 7 No echolocation: severe or sustained avoidance of source No – high levels of porpoise activity in area 6 Extended cessation of echolocation clicks Yes – latency in echolocation after closest point of approach by ferry 5 Cessation or modification of echolocation clicks: duration > duration of source Yes – trends in echolocation activity and click properties after closest point of approach by ferry 4 Cessation or modification of echolocation clicks: duration ≈ duration of source No – source duration ≈ minimum resolvable time unit (1 minute)  Modified version of severity scale devised by Southall et al.