Bellingham Bay hypoxia and water quality study

Similar documents
Bellingham Bay - Biological Components and Ecological Processes. State of the Bay Research Symposium Bellingham, WA

Nutrient Response to Sewage Abatement in Hong Kong

Real time Water Quality Monitoring

Monitoring Update April 1, Northeast Aquatic Research George Knoecklein Hillary Kenyon Sabina Perkins

Total Maximum Daily Load Development for Unnamed Tributary to Pitts Creek. Public Meeting March 26, Why Are We Here

Water Quality Monitoring Stations

Lake Whatcom Water Quality - Presentation to Bellingham City Council

HYPOXIA Definition: ~63 µm; 2 mg l -1 ; 1.4 ml l -1 ; 30 %

The Dissolved Oxygen Status of the Inland Bays : First Draft. Chris Bason Delaware Center for the Inland Bays CIB STAC July 16, 2010

Summer 2010 Science Internships at Northwest Indian College Final Report. By Brian D. Compton, Ph.D. NWIC Science Internship Coordinator

NGOMEX: Effects of moderate hypoxia on benthic organisms in the Gulf of Mexico

SOURCE WATER MONITORING

Science of the Causes of Hypoxia Nancy Rabalais et al.

Dog River Watershed Management Plan

Watershed - Lake Model to Support TMDL Determinations for Lake Thunderbird

Watershed and Water Quality Modeling to Support TMDL Determinations Lake Oologah

Recovery of the Great Salt Lake Brine Shrimp Population

Mid-Bay Dissolved Oxygen Trends as a. Function of Nutrient Loads and Strength of Stratification

How global warming and climate change may be accelerating losses of Chesapeake Bay seagrasses.

Jordan River TMDL Update

Causes of Gulf of Mexico Hypoxia

Younjoo Lee and Walter Boynton. Horn Point Laboratory and Chesapeake Biological Laboratory University of Maryland Center for Environmental Science

Environmental Flows Allocation Process in Texas. Kevin Mayes Texas Parks and Wildlife Department March 2010

Appendix 5. Fox River Study Group Interim Monitoring Evaluation

Change for Western North America. Hydrologic Implications of Climate. and the Columbia River Basin. Dennis P. Lettenmaier. Alan F.

Modeling the Middle and Lower Cape Fear River using the Soil and Water Assessment Tool Sam Sarkar Civil Engineer

The Myakka River. Presented to the Myakka River Management Coordinating Council January 9, 2009

LOXAHATCHEE RIVER WATER QUALITY EVENT SAMPLING TASK 2: FINAL REPORT ASSESSMENT OF LOXAHATCHEE RIVER WATER QUALITY

Long-Term Volunteer Lake Monitoring in the Upper Woonasquatucket Watershed

2009/2010 Water Column Overview, Red Tide Update, and Bay Eutrophication Model 2010 Results. OMSAP Meeting June 30, 2011.

PRESS RELEASE. LOUISIANA UNIVERSITIES MARINE CONSORTIUM July 28, Abstract

Comments from 4/12 - Draft Responses

Variability in water column respiration in Salish Sea waters and implications for coastal and ocean acidification

Spatio-Temporal Dynamics of SAV Abundance and Water Quality in the Mangrove Lakes Region of Florida Bay

Bolton Town Hall February 24, George Knoecklein Northeast Aquatic Research Mansfield, CT

EVALUATION OF THE POTENTIAL FOR IMPACTS ON SALMONID MIGRATION ASSOCIATED WITH CIRCULATION OF SALINE POND WATER DURING THE INITIAL STEWARDSHIP PERIOD

Dead-Zones and Coastal Eutrophication: Case- Study of Chesapeake Bay W. M. Kemp University of Maryland CES Horn Point Laboratory Cambridge, MD

Relative influences of human nutrient sources, the Pacific Ocean, and climate change on Salish Sea dissolved oxygen through 2070

Presentation to the District of Central Saanich Hagan-Graham and Tetayut Water Quality Monitoring Programs

Joint Cruise Methodology

Nutrients, Algal Blooms and Red Tides in Hong Kong Waters. Paul J. Harrison and Jie XU

Effects of Winds on Hypoxia Formation in the Pearl River Estuarine Coastal Waters

Southern California Bight 2008 Regional Monitoring Program: Volume VIII. Estuarine Eutrophication

Focus on Water. Whatcom Food Network December 10, 2012

Columbia River Plume correlation with Oregon/Washington dead zones

Annual Report on Clam Bay Numeric Nutrient Concentration (NNC) Criteria

Oxygen in the Columbia River Estuary: Distribution and Dynamics. Pat Welle

Salinity TMDL Development and Modeling in the Otter Creek Watershed. Erik Makus DEQ Hydrologist June 6, 2013

by Keith Kennedy Manager of Environmental Programs North Central Texas Council of Governments

Onsite Septic System Nitrogen Contributions to the Hood Canal Estuary. Department of Civil and Environmental Engineering, University of Washington

Central Basin of Lake Erie: Current Status

Oceanography of Puget Sound (Salish Sea)

2.2 Middle Fork Nooksack River

Watershed, Hydrodynamic, Water Quality and Sediment Flux Modeling to Support TMDL Determinations, Lake Thunderbird

Barnegat Bay Water Quality and Quantity Monitoring Program

Nicholas A. Reckinger. June 11, 2007

Chesapeake Bay. report card

Assessing Sensitivity to Eutrophication of the Southern Puget Sound Basin: Spatial and Seasonal Perspectives

fcgov.com/water-quality Water Quality Update Fall 2017 Monitoring and Protecting Our Water Sources

Woking. q business confidence report

Using the Chesapeake Bay Program Interpolator to analyze Chesapeake Bay monitoring program data

Simulation of Circulation and Water Quality in Bellingham Bay

Nutrient Sources, Fate, Transport, and Effects Study of Galveston Bay, Texas Rachel Windham,

MODELING NUTRIENT LOADING AND EUTROPHICATION RESPONSE TO SUPPORT THE ELKHORN SLOUGH NUTRIENT TOTAL MAXIMUM DAILY LOAD

Overview of the Instream Flow/Fish Habitat Element of the WRIA 1 Watershed Management Project. By Jeremy Freimund, P.H.

FLORIDA S INTEGRATED WATER RESOURCE MONITORING NETWORK (IWRM) Cycle Gail M. Sloane. Watershed Monitoring and Data Management Section

Why is the Benthos Important? OR Pre- and Post- Salt Pond Restoration Assessment of Benthic Communities in South San Francisco Bay

Finch Drinking Water System O. Reg 170/03 Schedule 22 - Summary Report for Municipalities

Finalizing the Chesapeake Bay Health Index (BHI)

Figure 1. Platte River Sub-Watersheds and Monitoring Locations.

Electric Forward Market Report

Hydrologic and Water Quality Monitoring on Turkey Creek Watershed, Francis Marion National Forest, SC

Relationships between Residence Time and Cyanobacterial Blooms in a Nutrient-Rich River System

Technical Memorandum BCWA

HARDY AND KIDD ACID DRAINAGE AND METAL LEACHING HISTORIES: CONTRASTS AND COMPARISONS

Surface Water Improvement and Management (SWIM) Plan Development

Benthic Nutrient Cycling in Boston Harbor and Massachusetts Bay

AGENDA CHANNEL ISLANDS HARBOR TASK FORCE SPECIAL MEETING

Wood Canyon Emergent Wetland Project. City of Aliso Viejo 12 Journey, Suite 100 Aliso Viejo, CA 92656

Water Quality Study In the Streams of Flint Creek and Flint River Watersheds For TMDL Development

Monitoring Cruise Report

Instream Flows in the San Antonio River Basin From Science to Environmental flow Standards. Steven J. Raabe, P.E

Climate Change Impacts on Water in NW Washington

Monitoring Cruise with r/v Gunnar Thorson in the Sound, the Kattegat, the Belt SeaandtheArkonaSea. Ministry of the Environment

Inland sea versus coastal ocean zooplankton response to The Blob.

Thresholds in Recovery of Eutrophic Bay Sub-Systems: Five Case-Studies

What s Happening in Lake Whatcom?

Lake of the Woods TMDL: Internal Loading Update November 23, 2016

WAMSI Symposium Node 1 Overview

in Puget Sound? What caused the 50-y north-to-south

Environmental Management Strategy DEPARTMENT OF NATURAL RESOURCES CONFEDERATED TRIBES OF COOS, LOWER UMPQUA & SIUSLAW INDIANS

Instream Flows in the San Antonio River Basin From Science to Environmental flow Standards. Steven J. Raabe, P.E

Climate Change Impacts for the Central Coast and Hunter Regions

Role of high frequency water quality analysis in confirming catchment hydrology interpretation

ECOLOGICAL DISTURBANCES IN THE ST. LUCIE ESTUARY AND THE SOUTHERN INDIAN RIVER LAGOON, EASTERN FLORIDA, ELUCIDATED THROUGH MACROBENTHIC MONITORING

Analysis of Seekonk River Water Quality Following the Fish Kill of May 2015

Source Water Protection Challenges in the Alafia River Watershed - Tampa, FL

WRIA 1 Long Term Monitoring Program Strategy for Implementation

WATER QUALITY MONITORING PROJECT FOR DEMONSTRATION OF CANAL REMEDIATION METHODS FLORIDA KEYS. Report of activities: September 7th, 2016

Transcription:

Bellingham Bay hypoxia and water quality study Jude Apple Shannon Point Marine Center Western Washington University Dan Burns, Charlotte Clausing, L. Jessica Urbanec, Jason Seber and Eleno Alaniz Northwest Indian College, Bellingham, WA SHANNON POINT MARINE CENTER

NWIC Science Internship and Hypoxia Study Objectives Educational Use an investigation of hypoxia and WQ in the Bellingham Bay/Nooksack River system as a teaching platform for the Northwest Indian College (NWIC) Native Environmental Science (NES) program Research Baseline of temporal and spatial extent of bottom water hypoxia Nooksack watershed WQ (nutrients, sources of fecal coliform) Benthic infaunal diversity and abundance Phytoplankton community (composition and succession) Historical/cultural Bring together current, historic and traditional knowledge to form a longterm picture of water quality in Bellingham Bay. Frame research within the context of cultural, ecological and public health priorities for the Lummi reservation and people.

Bellingham Bay Hypoxia Study Northwest Indian College Nooksack River Shannon Point Marine Center Bellingham Lummi Indian Reservation Seattle Bellingham Bay

Sampling in Bellingham Bay - Eight routine monitoring stations - Water column profiles - Surface and bottom water Chl-a DOC/CDOM dissolved nutrients phytoplankton community - Spatially intensive transects

Water column profiles Bellingham Bay - Frequently stratified - Concurrent oxy/thermocline - Nooksack influence on surface salinity - Depth of <4mgL -1 used to evaluate extent of hypoxia Depth (m) 0 2 4 6 8 10 12 14 16 0 DO (mg/l) Temperature ( C) 5 10 15 20 25 30 0 5 10 15 20 25 30 5 Depth (m) 10 15 Eleno Alaniz 20 25 Salinity DO (mg/l) Temperature ( C)

Mapping hypoxia in Bellingham Bay Spatial Patterns DO mg L -1 Temporal Patterns

Bottom Water Residence time in Bellingham Bay Limited flushing of bottom waters in central region of Bellingham Bay. Flushing time of 100-150 days Coincides with areas of low DO we have identified historically and during sampling Jason Seber From Rubash and Kilanowski 2007

Mapping Hypoxia in Bellingham Bay Hypoxic waters do not necessarily occur in deepest regions, rather where residence time is longer and organic matter deposition may be higher.

Historical sources for water quality data Survey of Bellingham-Samish Bay system (Calias & Barnes 1962)

Historical sources for water quality data Washington Dept. of Ecology and USGS 1. Long-term evidence of increase in the intensity and frequency of hypoxia (anthropogenic or climatic?). 2. Potential relationship between the timing and structure of Nooksack River flow and severity of hypoxia 14 10000 Bottom water dissolved oxygen (mg L -1 ). 12 10 8 6 4 2 hypoxic conditions Average monthly cfs. 9000 8000 7000 6000 5000 4000 3000 2000 2006 2007 2008 2009 0 90 91 92 93 94 95 96 97 98 99 00 01 02 03 04 05 06 07 08 Year Bellingham Bay bottom water dissolved oxygen 1000 0 Jan Feb Mar Apr May Jun Jul Aug Sep Nooksack River flow (cfs)

Benthic community surveys Sediment grabs (R/V Centennial) Grain size analysis Benthic infaunal community analysis Shannon Weiner Diversity indices H - BB1 (well flushed, southern bay) 1.4 - BB3 (low DO, periodic hypoxia) 0.6 http://depts.washington.edu/fhl/assets/images/rv_cent/centdock.jpg

Phytoplankton abundance and succession - Tracking abundance and composition - Bloom events - Shifts in community composition as indices of nutrient regime Thalassiosira sp. Chaetoceros Phytoplankton abundance in Bellingham Bay Mean abundance from eight stations 2500 2000 1500 1000 500 0 Chaetoceros Rhizosolenia Thalassiosira Coscinodiscus Rhizosolenia Coscinodiscus 7/1/2008 7/8/2008 7/15/2008 7/22/2008 7/29/2008 8/5/2008 Images and figures courtesy of Eleno Alaniz and Jessica Urbanec Charlotte Clausing

Fecal coliform in Nooksack River - Monitoring Nooksack and tributaries - Identifying potential point sources - Reduce clam bed closures Nooksack River

Outcomes and Future Work Hypoxia Seasonal bottom-water hypoxia is a natural feature of Bellingham Bay Duration and severity of hypoxic events may be increasing (need to increase temporal and spatial resolution of sampling; establish baseline) Increase coverage of benthic surveys Fecal Coliform Map sources of fecal coliform within Nooksack watershed (GIS at NWIC; explore ribotyping) Phytoplankton communities Evaluate composition in Bellingham Bay and as part of Tribal Journeys USGS program Investigate community succession and incidence of HABs through direct counts, HPLC Continue to build field guide to phytoplankton

Outcomes and Future Work Historical data/cultural resources Continue pursuing sources (DOE, archives) for building a historical baseline of water quality and hypoxia in Bellingham Bay. Explore traditional knowledge: crabbers, fishermen, tribal Elders (NSF Geosciences Funding) Keeping eyes on the prize Conduct all research within the context of addressing cultural, public health, and environmental priorities of the Lummi reservation and people.