Compiling a Baseline Water Quality Database from Heterogeneous Data Sources: Lessons Learned Nenad Iricanin, Brian Turcotte and R. Scott Huebner Environmental.

Slides:



Advertisements
Similar presentations
The Florida Everglades. The Everglades is also known as A: The Lake of Water Lilies B: The River of Grass C: The River of Mangroves D: The River of Sawgrass.
Advertisements

TMDL Development for the Floyds Fork Watershed Louisville, KY August 30, 2011.
Assessment of Ecological Condition in Coastal Waters Impacted by Hurricane Katrina.
The South Florida Watershed
Please note: this presentation has not received Director’s approval and is subject to revision.
Wetland Soils Phosphorus Criteria Development V.D. Nair*, M.W. Clark, K.R. Reddy, and S.G. Haile Soil and Water Science Department, University of Florida,
Using GIS to Display Well Bore Stratigraphy and Analytical Data in 3D April 9 th, 2009 Graham S. Hayes, Ph.D., GISP Wendel Duchscherer Architects & Engineers.
Proposed Revisions to the State’s Surface Water Classification System February 22, 2010 Public Workshop Daryll Joyner Bureau of Assessment and Restoration.
Christopher W. Hunt, Doug Vandemark, Joseph Salisbury, Shawn Shellito Ocean Process Analysis Laboratory, University of New Hampshire *contact:
Regional Climate Change Water Supply Planning Tools for Central Puget Sound Austin Polebitski and Richard Palmer Department of Civil and Environmental.
16 months…. The Visibility Information Exchange Web System is a database system and set of online tools originally designed to support the Regional Haze.
Integrating Historical and Realtime Monitoring Data into an Internet Based Watershed Information System for the Bear River Basin Jeff Horsburgh David Stevens,
St. Johns River Water Supply Impact Study by Getachew Belaineh Ph. D., P.H. 1 Brian McGurk P.G. 1 Louis Motz Ph. D., P.E 2 Follow up Review meeting March,
Fort Bragg Cantonment Area Cape Fear River Basin LIDAR data have been used to create digital contours and topographic maps. 1.A Digital Elevation Model.
Fish group 1: 01/09/04 12:34 through 01/23/04 10:04 Fish group 201/23/04 13:47 through 02/06/04 09:53 Fish group 3: 02/06/04 13:48 through 02/20/04 12:50.
COMPREHENSIVE DATABASE FOR SPRINGS IN TEXAS Prepared by: Ben Bates, Jason Pickett, Mark Pillion, Yasmin Sierra Status Report.
Water of the Everglades Presented By: Emily Kay Reeder Environmental and Water Resources Engineering; University of Texas, Austin.
Streamgage Datum Conversion Great Lakes Region Height Modernization Consortium meeting New Cumberland, PA April 13, 2011.
Region III Activities to Implement National Vision to Improve Water Quality Monitoring National Water Quality Monitoring Council August 20, 2003.
Roger Miller, Arkansas Department of Environmental Quality Barry Jackson, USGS Arkansas Water Science Center ARKANSAS EXCHANGE NETWORK FOR GROUNDWATER-QUALITY.
Department of Water Resources California Levee Database (CLD) An ongoing Initiative to Collect and Catalog Data for California’s Levees and Flood Control.
The Other Carbon Dioxide Problem Ocean acidification is the term given to the chemical changes in the ocean as a result of carbon dioxide emissions.
Defining Everglades Restoration Success* *i.e., “millions of crayfish” COMPREHENSIVE EVERGLADES RESTORATION PLAN John C. Ogden, Chief Scientist, Everglades.
Florida Numerical Nutrient Criteria Southwest Florida Water Resources Conference Scott I. McClelland Vice President November 20, 2009.
The South Florida Region and its Water Management System Linda Lindstrom, P.G. Director Environmental Resource Assessment Department South Florida Water.
Support of the Framework for Monitoring Office of Management and Budget March 26, 2003.
The Non-tidal Water Quality Monitoring Network: past, present and future opportunities Katie Foreman Water Quality Analyst, UMCES-CBPO MASC Non-tidal Water.
U.S. Department of the Interior U.S. Geological Survey Water-Quality Monitoring: Data Collection and Analysis Strategies for Designing Program.
INVENTORY AND HISTORY. Instructional Objectives n Types of inventory and historical data n Different methods of collecting inventory and historical data.
Programmatic Regulations PDT Workshop COMPREHENSIVE EVERGLADES RESTORATION PLAN April 18, 2002.
GROUND WATER MONITORING TO EVALUATE EFFECTS OF LAND USE ON WATER QUALITY Mike Trojan Erin Eid Jennifer Maloney Jim Stockinger Minnesota Pollution Control.
Benefits of the Redesigned RMP to Regional Board Decision Making Karen Taberski Regional Water Quality Control Board San Francisco Bay Region.
Expanding Water Quality Assessments beyond the Realm of 'Impairments' and into a Tool Useful to Watershed Managers at the Local Level Ken Edwardson Watershed.
Integrated Ecological Assessment February 28, 2006 Long-Term Plan Annual Update Carl Fitz Recovery Model Development and.
Aquarius Level-3 Binning and Mapping Fred Patt. Definitions Projection - any process which transforms a spatially organized data set from one coordinate.
STORET 1001 and the State of Utah Monitoring Strategy Today you will see: –What kind of attributes are available in STORET –How results, stations, and.
 Instrumentation  CTD  Dissolved Oxygen Sensor  ADCP/ Current Meters  Oxygen Titrations  Nutrient Concentrations Circulation and Chemical Tracer.
URBDP 422 URBAN AND REGIONAL GEO-SPATIAL ANALYSIS Lecture 3: Building a GeoDatabase; Projections Lab Session: Exercise 3: vector analysis Jan 14, 2014.
Surface Water Quality Monitoring Information System (SWQMIS) Cindi Atwood Tetra Tech, Inc. (703) Nancy Ragland TCEQ.
BASINS 2.0 and The Trinity River Basin By Jóna Finndís Jónsdóttir.
Key Ideas Describe the chemical composition of ocean water.
September 2012 Developed by Agricultural and Biological Engineering Department at Purdue University and Department of Regional Infrastructures Engineering.
Central & Southern Florida Project George Horne Deputy Executive Director Operations & Maintenance Resource Area.
Stewardship of the National Hydrography Dataset (NHD) 2010 West Virginia GIS Conference Huntington, West Virginia – June 9, 2010 Dave Arnold NHD Partner.
Using the Exchange Network A User’s Perspective Deb Soule Watershed Management Bureau New Hampshire Department of Environmental Services.
State Agency Needs for Remote Sensing Data Related to Water Quality By Bob Van Dolah Marine Resources Research Institute South Carolina Department of Natural.
Data is transmitted from monitoring stations and posted on our internet website. Wallops, VAKlamath, CA.
Hydrology and application of the RIBASIM model SYMP: Su Yönetimi Modelleme Platformu RBE River Basin Explorer: A modeling tool for river basin planning.
Optimization of a Large-scale Water Quality Monitoring Network Patricia Burke, Dr. Carlton Hunt, Dr. Steven Rust and Jen Fields.
Abstract Man-made dams influence more than just the flow of water in a river. The build up of sediments and organic matter, increased residence times,
Minnesota Drinking Water Designated Use Assessment Workshop Tom Poleck EPA Region 5, Water Quality Branch May 20-21,
Susan Sylvester Department Director Operations Control Department Mechanics of the Primary Water Management System.
RECOVER PDT Workshop COMPREHENSIVE EVERGLADES RESTORATION PLAN April 18, 2002.
Current EFR synthesis database design Sites Site web sites Contacts Site disclaimers & agreements Status of data Basins Disturbances Disturbance details.
The National Monitoring Network: Monitoring & Management of Alabama Rivers Fred Leslie Alabama Dept of Environmental Management National Monitoring Conference.
Hydrology and application of the RIBASIM model SYMP: Su Yönetimi Modelleme Platformu RBE River Basin Explorer: A modeling tool for river basin planning.
CTD Data Processing Current BIO Procedure. Current Processing Software Matlab Migrating to R & Python Code Version Control SVN Migrating to GitHub.
The Bear River Watershed Information System Jeffery S. Horsburgh Utah Water Research Laboratory Utah State University David.
Brenda Leroux Babin Louisiana Universities Marine Consortium Lei Hu Dauphin Island Sea Lab, Alabama A Tale of Two Observing Systems: September 10-11, 2008Environmental.
Wading Bird Habitat Suitability:
GREAT BAY and NEW HAMPSHIRE WATER QUALITY STANDARDS
Chesapeake Monitoring Cooperative
Multi-year Trends and Event Response
US Environmental Protection Agency
Water Quality Monitoring
Laura Shumway, USEPA Best Practices for Submitting Nutrient Data to the Water Quality eXchange (WQX) Laura Shumway, USEPA
Electronic Data Exchange and Evaluation System
303(d) List March 9, 2016 WQC Jeff Manning, DWR
TOWARDS THE GOAL OF SETTING NUTRIENT CRITERIA FOR THE DELAWARE ESTUARY
Marco island water quality monitoring
Presentation transcript:

Compiling a Baseline Water Quality Database from Heterogeneous Data Sources: Lessons Learned Nenad Iricanin, Brian Turcotte and R. Scott Huebner Environmental Resource Assessment Department South Florida Water Management District Nenad Iricanin, Brian Turcotte and R. Scott Huebner Environmental Resource Assessment Department South Florida Water Management District

Establish a comprehensive water quality and hydrologic database for South Florida to characterize baseline conditions Consider a 10-year baseline period from May 1, 1991 through April 30, 2001 Use baseline data to support Comprehensive Everglades Restoration Plan (CERP) Goals of Project

Comprehensive Everglades Restoration Plan (CERP) Provides framework and guide to restore, protect and preserve the water resources of central and southern Florida (including the Everglades) Covers 16 counties over an 18,000 mile 2 area Plan was approved in the Water Resources Development Act (WRDA) of 2000 The goal of CERP is to capture fresh water that is released to tide and restore the flow to the Everglades Redirect water to areas that need it most

Historic Flow Present Flow CERP Planned Flow Sheet flow from Lake Okeechobee through the Everglades to Florida Bay Most of the water is released from Lake Okeechobee goes to tide Smaller amounts of fresh water released through Everglades to Florida Bay Restore the fresh water flow from Lake Okeechobee through the Everglades to Florida Bay

Comprehensive Everglades Restoration Plan (CERP) One of the key documents is the CERP Monitoring and Assessment Plan (MAP) MAP is a product of an interagency interdisciplinary team known as Restoration, Coordination, and Verification (RECOVER) MAP identifies and describes performance measures and parameters of the natural and man-made systems in South Florida that will be used to assess restoration success

Comprehensive Everglades Restoration Plan (CERP) Water Quality Performance Measures Major ions Biological Nutrients Physical parameters Trace metals/elements Solids Organic carbon Mercury PAHs, PCBs, pesticides/herbicides /fungicides Sulfur compounds Light attenuation

Comprehensive Everglades Restoration Plan (CERP) Performance measures are organized by distinct geographic areas called modules or eco-regions Six (6) eco-regions identified in MAP

Florida Keys Atlantic Ocean Gulf of Mexico Map of South Florida Lake Okeechobee Eco-region Northern Estuaries Eco-region Greater Everglades Eco-region Southern Estuaries Eco-region Showing four (4) distinct geographic areas or eco- regions (or modules) Two additional eco-regions: South Florida Hydrologic Network South Florida Mercury Bioaccumulation Monitoring Network

RECOVER Baseline Database Provide a historic database of pre-CERP (or baseline) conditions for water quality and hydrological performance measures as identified in the MAP 758 studies by 70 organizations identified as potential data sources Approximately 290 studies met the requirements for the baseline database A total of 79.8 million data records loaded by a contractor into baseline database Approximately 36 million records loaded from District’s corporate database, DBHYDRO.

Contributing Agencies 79,819,210 records – 17,557,991 unusable records = 62,261,219 records (Both Hydrologic and Water Quality) 79,819,210 records – 17,557,991 unusable records = 62,261,219 records (Both Hydrologic and Water Quality) Water Quality Records = 35.4 million Water Quality Records = 35.4 million DBHYDRO

NOAA USGS Data Sources for RECOVER Database DBHYDRO SFWMD DBHYDRO SFWMD Florida International University Florida International University EPA STORET EPA STORET

NOAA USGS Miami-Dade County Miami-Dade County Data Sources for RECOVER Database DBHYDRO SFWMD DBHYDRO SFWMD Florida International University Florida International University EPA STORET EPA STORET Whose data is it anyway? These relationships are not well documented

Database Design Re-Think or “Digital Epiphany” Separate baseline database for water quality and hydrologic data was scrapped Data in baseline database that did not reside in DBHYDRO (or “found data”) would be loaded into DBHYDRO  More than 50% of water quality and hydrologic data for South Florida was already in DBHYDRO  DBHYDRO is a dynamic database Data records to be loaded into DBHYDRO would have to adhere to DBHYDRO standards

Initial RECOVER Baseline Database Water Quality Data Scrub Remove records for stations outside District boundaries using GIS Remove records with dummy variables or zeroes Remove duplicate records (initial screening) Remove records outside the baseline period and non- performance measure data Remove records loaded from DBHYDRO and Legacy STORET

Initial RECOVER Baseline Database Water Quality Data Scrub Water Quality Records = 35.4 million 9.4 million

Final RECOVER Baseline Database Water Quality Data Scrub Remove records for stations outside eco-regions using GIS Remove duplicate records (final screening) Consolidate 15-minute instantaneous data for temperature, pH, specific conductivity and dissolved oxygen into daily averages (reduced records from 1.9 million to 9,600 records) Affecting 9.4 Million Usable Records

Final RECOVER Baseline Database Water Quality Data Scrub Original Number of Water Quality Records = 35.4 million 26 million 7.1 million 2.3 million Loaded into DBHYDRO

Database Format Issues Date and Time stored in the database:  YYYYMMDD, MM/DD/YYYY, MM/DD/YYYY HH:MM:SS Latitude and Longitude:  °, DEGMINSEC, etc. Values were stored as numeric or text Reference sheet from contributing agencies was required to understand field names in the database

Parameter Naming Convention Each agency has its own naming convention, parameter names need to be standardized

Units Most agencies use uniform parameter units; however,… mg/L NO 3 as N Or mg/L as NO 3 ? This can result in a 343% difference in concentrations For example: Nitrate = mg/L Is it

Other potential unit problems: Conductivity as: mS/cm or mmhos/cm rather than µS/cm or µmhos/cm Temperature as: °F rather than °C Depth in: feet rather than meters Concentrations in: mmolar or µmolar rather than mg/L or µg/L Concentrations in: mmole/kg or µmole/kg rather than mg/L or µg/L Units

Data Loading Problems Text files or space delimited:  Columns may not line up correctly Comma delimited or CSV files:  Columns may not line up if a comma exists in any of the records

Data Loading Problems EPA STORET Mystery dissolved arsenic data in database (with dissolved value greater than total) This parameter appears in DBHYDRO as silica

Other Data Problems Some agencies have their own criteria for flagging data: ex. USGS uses “<“ to flag data that is below the method detection limit (MDL) ; other agencies use “U” Some agencies use a negative number to denote the value is below the MDL Techniques used to consolidate data like global “search and replace” procedures can cause problems  K PAR → Potassium K  Total Dissolved Nitrogen → Fraction = Total

Lessons Learned RECOVER Baseline Database Team – important part of project: good balance of disciplines but weighted toward water quality expertise Scientific data incorrectly interpreted by database programmers Staging area very important when dealing with many data sources Some data were modified/calculated before being loaded into database, no original copy available for re-loading data

Lessons Learned RECOVER Baseline Database Data were flattened/denormalized (no referential integrity) Lack of indices and/or no unique identifiers GIS Important tool: identification of incorrect coordinates or duplication of stations Station name problems – different names same location, different location same name Embedding one field’s information in another

Lessons Learned RECOVER Baseline Database Elevation problems: NGVD29 vs NAVD88 Technical data conversion problems: importing MS Access tables to Oracle caused numeric fields to drop values past the hundredths column All data are not stored or maintained equally (e.g., Legacy STORET) The majority of environmental (water quality and hydrologic) data for South Florida reside in the District’s DBHYDRO database

Acknowledgements Lisa HerlihySutron Corporation Julio ParadesLaboratory Data Consultants, Inc. Steven ZiliakLaboratory Data Consultants, Inc. Andrew BessioSapphire Technologies Lisa HerlihySutron Corporation Julio ParadesLaboratory Data Consultants, Inc. Steven ZiliakLaboratory Data Consultants, Inc. Andrew BessioSapphire Technologies

Final Thought Final Thought There really are no small mistakes! There really are no small mistakes! QUESTIONS? SOUTH FLORIDA WATER MANAGEMENT DISTRICT Nenad Iricanin Environmental Resource Assessment (561)