Estimation of Nitrate Removal in the Lamprey River Using Longitudinal Profiling with High Frequency Sensors Jeffrey Rano Gopal Mulukutla Department of.

Slides:



Advertisements
Similar presentations
Measuring Water Pollution
Advertisements

Water Quality in Catchments and its Impact on Human and Ecological Health Kenneth H. Reckhow Duke University.
Spatial Modeling of Soil Heterogeneities and their Impacts on Soil-Phosphorus Losses in a Quebec Watershed By Alaba Boluwade Department of Bioresource.
Chris Gammons, John Babcock, Bev Plumb, Steve Parker Montana Tech, Butte, MT Spatial and temporal variations in nutrient concentration and speciation in.
Ecological Perspectives on Critical Loads - Linkages between Biogeochemical Cycles and Ecosystem Change Differences and Similarities in N and S Cycling.
Michael J. Brayton MD/DE/DC Water Science Center Hydrologic Controls on Nutrient and Pesticide Transport through a Small Agricultural Watershed, Morgan.
SUSANNA SCOTT MIAMI UNIVERSITY Ecosystem Metabolism: Response to Storm Events.
NW Area Committee Meeting Region 10 Regional Response Team October 7 th, 2014 Jami Goldman and Joseph Rinella.
Nutrient Dynamics in Streams of Four Land Use Types in the Lake Champlain Basin Allison Jerram, Andrew Schroth, Breck Bowden, Matthew Vaughan, Jamie Shanley,
Sensing Winter Soil Respiration Dynamics in Near-Real Time Alexandra Contosta 1, Elizabeth Burakowski 1,2, Ruth Varner 1, and Serita Frey 3 1 University.
SENSORS, CYBERINFRASTRUCTURE, AND EXAMINATION OF HYDROLOGIC AND HYDROCHEMICAL RESPONSE IN THE LITTLE BEAR RIVER OBSERVATORY TEST BED Jeffery S. Horsburgh.
SENSORS, CYBERINFRASTRUCTURE, AND WATER QUALITY IN THE LITTLE BEAR RIVER Jeffery S. Horsburgh David K. Stevens, Amber Spackman Jones, David G. Tarboton,
Christopher W. Hunt, Doug Vandemark, Joseph Salisbury, Shawn Shellito Ocean Process Analysis Laboratory, University of New Hampshire *contact:
Hydrology River Ecosystems and Humans. Dimensions of river ecosystems Longitudinal Lateral Vertical Temporal 2.
7/18/05 Interdisciplinary Modeling for Aquatic Ecosystems Curriculum Development Workshop Water Quality Modeling John J. Warwick, Director Division of.
Influence of Geomorphic Complexity on Hyporheic Flow and Nutrient Processing Prepared by Dan Baker for CE 413.
Hawaii Ocean Time-series (HOT) program Marine Microplankton Ecology
Proposed Solution: Mass balance, spatial interpolation, and transient analysis Proposed Solution: Mass balance, spatial interpolation, and transient analysis.
Laboratory Analysis: Samples were analyzed for: Dissolved Organic Nitrogen (DON) Dissolved Inorganic Nitrogen (NH 4 and NO 3 ) Total Dissolved Nitrogen.
Module 10/11 Stream Surveys Stream Surveys – February 2004 Part 3 – Hydrologic Assessment.
Water Quality Monitoring and Parameter Load Estimations in Lake Conway Point Remove Watershed and L’Anguille River Watershed Presented by: Dan DeVun, Equilibrium.
Water Quality Monitoring and Parameter Load Estimations in Lake Conway Point Remove Watershed, L’Anguille River Watershed, and Bayou Bartholomew Presented.
Overview of Continuous Water-Quality Monitoring. Purpose of Monitoring Define the objectives of the water quality monitoring project 1. Environmental.
An Analysis of the Pollutant Loads and Hydrological Condition for Water Quality Improvement for the Weihe River For implementing water resources management.
Water Quality of the Yarlung Tsangpo (Brahmaputra) Huang Xiang and Mika Sillanpää November 19th, 2011, New Delhi International conference of ”River Waters:
West Fork of the White River Stream Restoration Monitoring Dan DeVun Ecological Conservation Organization (501)
Environmental Modeling Steven I. Gordon Ohio Supercomputer Center June, 2004.
Quantification of fluvial wetland nitrogen removal in long residence time systems using whole ecosystem-scale experiments and in situ sensors Christopher.
Identify key features and characteristics of atmospheric, geological, hydrological, and biological systems as they relate to aquatic environments.[AQS.4A]
Continuous monitoring in the benthic boundary layer off the Northwestern Florida shelf. William M. Landing, Stephanie Fahrny, Kevin Speer, Markus Huettel.
Export and metabolism of carbon in urban watersheds: Climate implications Rose M. Smith 1, Sujay S. Kaushal 1 1 University of Maryland College Park Motivation.
Nitrogen in Lakes and Streams Wetzel Chapter 12 pp Joe Conroy 12 April 2004.
PH DO DIP TDP Bethany Remeniuk, Department of Biology, York College of Pennsylvania Is Microcystis aeruginosa an Initiator in a Positive Feedback Cycle.
The Non-tidal Water Quality Monitoring Network: past, present and future opportunities Katie Foreman Water Quality Analyst, UMCES-CBPO MASC Non-tidal Water.
Budapest University of Technology and Economics
112.3 Jessica L. Feeser, M. Elise Lauterbur & Jennifer L. Soong Research Project for Systems Ecology (ENVS 316), Fall ’06 Oberlin College, Oberlin OH BackgroundFindings.
1 Factors influencing the dynamics of excessive algal blooms Richard F. Ambrose Environmental Science and Engineering Program Department of Environmental.
Sammamish River Diel Dissolved Oxygen and pH Study September 21, 2005.
Introduction to Ecosystem Monitoring and Metabolism
International Workshop for GODAR WESTPAC Global Ocean Data Archeology and Rescue: Scientific Needs from the Carbon Cycle Study in the Ocean Toshiro Saino.
Dam Removal as a Solution to Increase Water Quality Matthew Nechvatal, Tim Granata Department of Civil and Environmental Engineering and Geodetic Science.
SEASONAL CHANGES IN RIVER WATER QUALITY Vasiliki Partinoudi, Seacoast School of Technology, Exeter, NH My participation in TESSE changed the way my students.
1. The Study of Excess Nitrogen in the Neuse River Basin “A Landscape Level Analysis of Potential Excess Nitrogen in East-Central North Carolina, USA”
Biases in land surface models Yingping Wang CSIRO Marine and Atmospheric Research.
A Mass-Balance, Watershed-Scale Analysis of the Chemistry of Adirondack Lakes Discussion - Day 5.
The Science Requirements for Coastal and Marine Spatial Planning Dr. Robert B. Gagosian President and CEO September 24, 2009.
A. Hangan, L. Vacariu, O. Cret, H. Hedesiu Technical University of Cluj-Napoca A Prototype for the Remote Monitoring of Water Parameters.
Estimating future scenarios for farm-watershed nutrient fluxes using dynamic simulation modelling – Can on-farm BMPs really do the job at the watershed.
Our Case Study. Rationale for study The TMDL model assumes that there is no decrease in seepage during low flow conditions, basing its calculations on.
SiteDateAmbient Uptake Velocity-Grab (m/yr)Ambient Uptake Velocity-Sensor (m/yr) Boxford Boxford Cart Creek
Water quality sensors provide insight into the suspended solids dynamics during high flow events in the Lamprey River, NH Nicholas K. Shonka and William.
North Creek Water Quality Prepared by Jon Rogers and Carie McCoy.
EPA HWI Comments on CA Assessment June 26, 2013 HSP Call 2 major categories of comments: – Report writing (we will work on this) – Content/Analysis/Discussion.
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,
U.S. Department of the Interior U.S. Geological Survey Monitoring Surface-Water-Quality in the Tongue River Watershed of Montana and Wyoming Stacy Kinsey.
Cycling can be studied at different scales. Watersheds of northeastern South Island, New Zealand.
Criteria Measure temperature (⁰C), pH, dissolved oxygen (mg/L), electrical conductivity (uS/cm), and turbidity (NTU) Cost
University of New Hampshire EXPORT OF CARBON, NUTRIENTS, AND WEATHERING PRODUCTS FROM A HIGHLY URBANIZED TROPICAL WATERSHED William H. McDowell, Jody D.
State Standards Hydrology
Nitrogen loading from forested catchments Marie Korppoo VEMALA catchment meeting, 25/09/2012 Marie Korppoo, Markus Huttunen 12/02/2015 Open DATA: Nutrient.
ASSESSMENT OF ENVIRONMENTAL FLOWS FOR THE TAPI RIVER BASIN, INDIA
Watersheds and Hydrology
Continuous Surrogate Monitoring for Pollutant Load Estimation in Urban Water Systems Anthony A. Melcher, USU Civil and Environmental.
Sanitary Engineering Lecture 2
US Environmental Protection Agency
1. The Study of Excess Nitrogen in the Neuse River Basin
Watersheds and Hydrology
Streams Hydrodynamics
Streams Hydrodynamics
Investigating Daily Variation in Lotic Prairie Ecosystems
Presentation transcript:

Estimation of Nitrate Removal in the Lamprey River Using Longitudinal Profiling with High Frequency Sensors Jeffrey Rano Gopal Mulukutla Department of Chemical Engineering, UNH Earth Systems Research Center, UNH Abstract Introduction/Background Methods Results Discussion Conclusion/Summary Acknowledgements Figure 2: Nitrate removal model and calculated discharge over distance Nutrient Dynamics in Rivers and Streams is a complex interaction process of physical, chemical and biological processes occurring over many spatial and temporal scales. An understanding of these interactions is essential to the prediction of nutrients quantities being exported from these water bodies and gain a better understanding of global scale nutrient cycling and how human development and climate change are affecting the ecosystems. High temporal frequency sensors that measure biogeochemical water quality parameters like Nitrate, Dissolved Organic Matter etc. are rapidly becoming an integral part of scientific research. But almost all of the applications involve the use of an Eulerian approach to conduct the measurements i.e. the sensors are deployed at a specific location and variations in processes occurring over time scales ( hours, weeks, seasons and annual cycles) are studied. This approach, while producing new scientific insights is limited by the fact that the heterogeneous nature of Rivers and Streams makes it difficult to assess if the variations occurring are similar upstream or downstream of the deployed location. This study documents one of the first attempts at setting up Lagrangian measurements in a medium sized hydrologically varying river in order to examine ambient nutrient concentration variability and uptake in the time scales of measurements (several hours). Source:100yearflood.org North River In order to collect data on the Lamprey River, a canoe was outfitted with a YSI EXO2 water quality sonde (measuring Conductivity, DO, FDOM, Turbidity, pH and water temperature), a mobile GPS app on android tablet, SUNA UV Nitrate Analyzer, and a Campbell Scientific CR1000 data logger. A submersible pump was used to bring water to the flowcell equipped SUNA. With these in place, the canoe was then floated down the river for roughly 9 kilometers while the sensors took data at varying intervals. Data from each sensor was then matched to one another using the timestamps for each measurement. Further data processing was performed using MATLAB. SUNA –UV Nitrate Analyzer YSI - EXO2 SONDE Specific Conductivity (uS/cm) Distance Downstream from Rt. 87 (m) Methods Figure 1: Plots of measured Nitrate, fDOM, and DO over distance compared to Specific Conductivity Results 1. Missing data caused by Interference due to the pump drawing in sediments, portages, and GPS Logging errors led to the loss of data for resulting in the lack of a continuous 9 km profile of nutrient and other water quality parameters. 2. The longitudinal profiles were studied in three different segments for a total estimated length of 7 kilometers (7000 m), with an estimated minimum segment length of 100 m. The North River segment is not reported in this study, as a planned future survey will cover a longer segment of this river. 3. The appearance of a tributary or an inlet to a headwater stream saw abrupt changes in Specific Conductivity and in spike in Nitrate and dilution in FDOM (Chromophoric Dissolved Organic Matter). 4. North River, a major tributary of the Lamprey River appears to be a major source of DOC. 5. The uptake value estimated for the 7 km stretch of the river is mg/m/day. 6. The estimated amount of total Nitrate input into the river is mg. 7. Estimated amount of total Nitrate removed is mg. 8. The estimated percentage of Nitrate removed by the river is 36.5%. Profs. Wil Wollheim, and Bill McDowell for letting us borrow their sensors, pump and datalogger. Chris Cook for assistance with the survey, without which this study would not have been possible. Brian Godbois for letting us borrow his Canoe. Lisle Synyder for calibrating the SUNA and YSI EXO2 prior to deployment. Raghu Mulukutla, and Saurabh Bollapragada., undergraduate students at GITAM University, Visakhapatnam, India for developing the GPSlogger Android App without which this study would not have been possible. Steve Hale for providing support through the NH EPSCoR office. The objective of this work was to develop a methodology to determine Nitrate uptake rates at ambient concentrations in medium to large rivers at using longitudinal profiling (Lagrangian Measurements) with high temporal frequency water quality sensors. The data was collected by floating a canoe equipped with multiple sensors and taking data over a roughly 9 kilometer stretch. The data allows the examination of various nutrient concentrations and variations over distance. With the data collected, an estimation of the total amount of Nitrate removed in the river was made.