Sensors: Making Monitoring More Useful Charles S. Spooner US EPA May 20, 2008.

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Presentation transcript:

Sensors: Making Monitoring More Useful Charles S. Spooner US EPA May 20, 2008

Evolving Needs of Monitoring  Water issues will become more urgent concerns  Climate change will spark a greater interest in context Influence of the weather Influence of control actions Forecast of water quality  Society will increasingly want news, not histories  Economics will demand accountability for investments  Adaptive management will continue to be used in water programs

How Can Monitoring Adapt ?  Data converted to information more quickly  Data reported without “normal” delays Data that explains the current status, not some historical summary Data context that is more current, giving it more meaning  Information that supports adaptive management More refined questions can be framed and more quickly addressed  Data with reduced uncertainty through more frequent measurements

Real-Time Monitoring  Uses sensors that detect conditions at tight intervals transmitting to data centers and to the Internet  Provides actual condition readouts of water  Quantity  Quality

Experience with Real-Time Monitoring  USGS has almost 7,000 real-time water streamgaging stations and 1,392 water quality stations  Texas has 50 stations in 11 major watersheds  Local Michigan governments on Lake St. Clair have integrated continuous monitoring with fixed stations  Several efforts relate pollution sources to meteorology and to beach pollution  San Joaquin River Real-time Water Quality Management Program  Mystic River, An EMPACT project with Somerville, Ma. and Tufts University

Data With Reduced Uncertainty  Reduced uncertainty through more frequent measurements Time-series show variations masked by infrequent samples  Better criteria / goals  Better statistics to reveal changes / trends  Better data to calibrate models

Producing a whole new product  Actual condition data can p rovide information on issues of interest, not just data  Spills  Rainfall upstream  Seasonal spikes  Involvement with Riverkeepers  Oversee the Daily part of TMDLs  Identifying where the pollution we “see” today came from  Tell where we stand today in reaching our management goals  Best Management Practices are more commonly prescribed now. More immediate and more specific the monitored results may prompt greater adherence to these practices

Expensive, But Worth It  Current data is “news,” not “history”  Data centers and models can add interpretative value as context for measures of actual conditions

Why is This Important to Ambient Monitoring?  Real-Time Data is Collected Now Sensors are on buoys, at fixed stations and on underwater gliders & moving boats These sensors broadcast conditions to data centers and to the Internet  Organizations exist to facilitate sensors: Alliance for Coastal Technology Center for Embedded Network Sensing – UCLA Interstate Technology Regulatory Council (ITRC)

Converting Real –Time Data Into Current Information  Done now in a few places Texas for salinity controls and NPS diversions, and enforcement Sentinel monitoring of water supplies Beach and shellfish bed warning systems  These are mostly first-generation “see it and react” systems

The Future of Sensors  The future will bring Sensors with greater specificity Better station communications Biological sensors and the metrics to use them Smaller sensor packages drawing less power  Sensors covering watershed features/needs In-stream flow maintenance Ground water levels -- Precipitation & soil moisture

Sensors are Key to the future of monitoring  Will spark a new set of information products More timely More relevant More expensive  But worth it