Water Chemistry By Lucas Kirby, Cynthia Watson, Meghan Dye and Stephanie Johnson.

Slides:



Advertisements
Similar presentations
Why Study Water Surface – Dirt Minerals Organic materials (any once living thing now decomposed Fertilizer Chemicals Anything spilled Ground – aquifers.
Advertisements

Presented to: Reitz Lake Open House July 12, 2005 Randy Anhorn Principle Environmental Scientist Metropolitan Council Environmental Services
AP Lab #12 Dissolved Oxygen & Aquatic Primary Productivity part I
Phosphate Budget and Mineralogy in Lake Ballard Introduction: Phosphate is often the limiting nutrient in freshwater bodies (EPA 2012). As phosphate cycles,
Mike- P levels Marvel- effects on organisms Rich- lake wide/cumulative.
Definition of Eutrophication Developed by Richard Sandford with contributions from Martin Bloxham and Paul Worsfold, Eutrophication in the Sea of Azov.
Paper Review Interstitial Ion Concentrations as an Indicator of Phosphorus Release and Mineral Formation in Lake Sediments G C Holdren and D E Armstrong.
Day 3 Topic 2 – Ecosystems.
Phosphates CE Lab. What is Phosphate Phosphate is a salt of phosphoric acid. Phosphates are also important in biochemistry and biogeochemistry.
©2010 Elsevier, Inc. Chapter 14 Nitrogen,Sulfur, Phosphorus, and Other Nutrients Dodds & Whiles.
Limnology 101 Dan Obrecht MU Limnology
Phytoplankton and the Lakes Around Us Stephanie Coglitore Alexis Krukovsky Jamie Nelson.
Trophic Classification of Lakes Created by Diane Gravel.
Ch. 4-4 Aquatic Ecosystems.
Dr. Martin T. Auer MTU Department of Civil & Environmental Engineering ENVE5504 Surface Water Quality Modeling Lab 4. One-Dimensional Models Vertical Mass.
Dr. Martin T. Auer MTU Department of Civil & Environmental Engineering Surface Water Quality.
Dr. Martin T. Auer MTU Department of Civil & Environmental Engineering CE5504 Surface Water Quality Modeling Lab 5. One-Dimensional Models Thermal Stratification,
Light, Secchi, Weather and Miscellaneous Comments Liz Ely, Ira Smith, and Margaret Soulman.
Characterization of Legacy Labile Organic Carbon Reserves Rasika Gawde, Phillip A. DePetro, Kenneth J. Windsand, and Martin T. Auer Department of Civil.
Onondaga Lake. Backround  Onondaga Lake was once a major tourist destination. A long history of pollution quickly led to its decline.  Today it is one.
1 What is in Our Water?. Background slides for the whole unit The water cycle Nutrients Eutrophication.
Physical & Chemical Parameters of the Turnbow Pond Cody Clark Dylan Weir Jeffery Johnson.
Determination of Iron in Water
Nutrient Pollution and Eutrophication
What is a lake? A lake is a topographic depression (basin) in the landscape that collects water Lakes can be made by shifting tectonic plates, volcanism,
Does this picture look familiar? Anyone who has been to Lake Eau Claire knows exactly the feeling that the person who took this picture shared, yuck. Phosphorus.
The Structure of Aquatic Ecosystems Created by Dave Werner MATES.
Spring Lentic is describe as standing water habitats Inland depressions that hold water Range from 1 meter to 2000 meters Formation Glacial Retreat.
The Watershed Connection. Stormwater Management: LID Practices |
The wonderful world of zooplankton The wonderful world of zooplankton (and what it means to us)
Molarity by Dilution Diluting Acids How to Calculate Acids in concentrated form are diluted to the desired concentration using water. Moles of acid before.
The Contamination of Phosphorus in 4 Different Locations Jess Withey Research Advisor: Dr. Carl Binz Secondary Advisor: Dr. Edward Maslowski May 2013 Senior.
Salinity, dissolved oxygen, and nutrient concentrations in Oyster Pond, Falmouth, Massachusetts Karen Bishop and Michael Perret: Marine Ecology, Prof.
Nutrients Why monitor nutrients? Plant and algae growth
Lake Water Chemistry ► Phosphorus ► Nitrate ► Silica.
LAKES.
15.2 DETERMINING pH AND TITRATIONS.
Nutrients  Why monitor nutrients? –Plant and algae growth  Carbon, nitrogen, phosphorus, oxygen, silica, magnesium, potassium, calcium, iron, zinc, and.
24 Global Ecology. Global Biogeochemical Cycles Atmospheric CO 2 affects pH of the oceans by diffusing in and forming carbonic acid.
Chlorophyll and Phytoplankton in Lakes Emily DeBolt Josh Conway.
2.9 Major Aquatic Ecosystems Pages Freshwater Ecosystems salt concentration below 1% Puddles Ponds Rivers Streams Lakes.
Seminar: Snowmelt and Storm Events: Biogeochemical and Hydrological Responses.
OLTAC Meeting - Oct. 31, UPSTATE FRESHWATER INSTITUTE.
Lake productivity: Closed systems, nutrient sinks CO 2 and O 2 from air and water Autochthonous vs. allochthonous inputs.
 The study of fresh bodies of water  Lentic: standing water (lakes and ponds)  Lotic: flowing water (streams and rivers)
YSI Data Presentation Wouldn’t it be great if it was this easy? This might look cool at your local Kincaid gallery, but really who let the 5yr old loose.
PHOSPHATE IN LAKES AND STREAMS
CIV 913 Environmental Assessment and Sustainability
Comparison of light in six New York lakes Amanda Davis Lauren Jetty Jennifer Mokos Justen Walker.
Molles: Ecology 2 nd Ed. Lakes Most of world’s freshwater resides in a few large lakes:  Great Lakes contain 20% of freshwater in world.
Amount and variety of phytoplankton species in Lake Limmaren 2011 Authors: Maija Ķīkule, Latvia Greta Kaklytė, Lithuania Supervisor: Pia Larsson, Sweden.
Lab 5 Physical and Chemical Properties of Sea Water
A Study on Optimizing Biological Phosphorous Removal by Changing Aerobic Operating Times Phillip Dixon and Juan Diaz-Robles CEE 453 Laboratory Research.
Phytoplankton Diversity in New York Lakes Ryan Butryn and Rick Naro
Lake Comparisons: Zooplankton and Benthos With a few comments on Wolf Lake Helen Czech SUNY ESF.
Water Measurements In EcoMUVE you can measure seven abiotic factors of the pond: temperature, dissolved oxygen, phosphates, nitrates, turbidity, pH, and.
The Life Cycle of a Lake. Water Chemistry Basics Water freezes at 0° Celsius (32° Fahrenheit) Most substances get more dense as they get colder and less.
Aquatics. Aquatic Habitats Lentic Lentic –Standing water habitats (lakes, ponds, wetlands) Lotic Lotic –Moving water habitats (rivers, streams)
Lakes by Will Kratz.
Water Chemistry of Local Lakes
Kyle McCanney Adam Baumann
Chemistry of Lakes What physical processes determine the structure of lakes? How does availability of gases, particularly oxygen, vary in lakes with depth.
Ch 52: Intro to Ecology and the Biosphere
Mike Holdsworth Jackie Anderson
Aquatic microbial groups
How are lakes and streams similar? How are they different?
Stratification.
Aquatic Ecosystems.
Lake Water Quality PLA Meeting August 17, 2019.
Presentation transcript:

Water Chemistry By Lucas Kirby, Cynthia Watson, Meghan Dye and Stephanie Johnson

Importance of Phosphorus in Lakes Limiting nutrient in freshwater systems Redfield ratio High concentrations may be indicative of eutrophication

Oneida Lake Largest land-locked lake in NYS Shallow, well mixed lake Mean depth of 6.8m Eutrophic Over 100 species of algae

Onondaga Lake One of the most polluted lakes in the U.S. 4.6 mi long, 1 mi wide ~10.6 m deep Syracuse METRO plant contributes 20% of annual inflow Hypereutrophic(>100 µg/L)

Green Lake Small surface area (glacial plunge pool), formed by waterfall ~52 m deep Oligotrophic Hard water Meromictic Permanent chemocline

Arbutus and Rich Lakes Max. depth: Arbutus: 8 m Rich: 18 m Area Arbutus: 49 ha Rich: 160 ha Archer Creek Catchment (130 ha) drains into Arbutus Lake

Methods Collecting Samples Kemmerer bottle 1L from epi-, meta- and hypo- Mixed Reagent- in specific order (for 150ml) Ammonium molybdate solution- 30ml Sulfuric Acid- 75ml Ascorbic Acid- 30ml Potassium antimonyl-tartrate solution- 15ml Standard Solution Duplicate solutions 50ml of DI water Color blank 5ml Mixed Reagent Unknown Solution Two Replicates- 50 ml sample 5ml Mixed Reagents Calculate for Unknown Phosphorus Average Replicates Graph- Standard Absorbance v. Standard Concentration Calculate Slope μmol-1-1 = (sample abs-reagent blank abs-color blank abs)* slope

Results

Discussion Oneida Lake Second highest phosphorus level. Measured lake depth around 6 meters Lake mixes through summer. Oxygenated hypolimnion

Discussion Onondaga Lake Highest level of P. Anoxic bottom waters Iron releases P. P Decreases with decrease depth.

Discussion Green Lake Lowest P level of all lakes Lowest P epilimnion, organisms use what ever P available. Increases approx. at thermocline Decreases again at hypolimnion Increase below chemocline

Discussion Arbutus Lake Shallow mixed lake Low productivity Oxygenated hypolimnion

Discussion Rich Lake Medium depth but mixes often. Low productivity Oxygenated hypolimnion.

Other Measurements -Nitrogen -Silica -Iron, Fe +3

References Cirmo, Chris Ph.D Council on hydrologic systems science. Biogeochemical and Hydrological Research at the Huntington Forest. New York State Parks, Recreation and Historic Preservation Oneida Lake Association znet.com/~ola/index.html Onondaga Lake Improvement Project Upstate Freshwater Institute