Iowa Agriculture Water Alliance

Slides:



Advertisements
Similar presentations
Overview – Nutrient Fate and Transport Mark B. David University of Illinois at Urbana-Champaign Presented at Building Science Assessments for State-Level.
Advertisements

Hybrid Presentation By Bob Watson & Larry Stone. Hybrid Presentation In recent years at the Annual Wastewater Conference the EPA, DNR, IDALS, USDA, ISU.
Syllabus statements: Chapter Video Labs:
Phosphorus Index Based Management Douglas Beegle Dept. of Crop and Soil Sciences Penn State University
IOWA NUTRIENT REDUCTION STRATEGY A science and technology-based framework to assess and reduce nutrients to Iowa waters and the Gulf of Mexico Spring 2013.
Gulf Hypoxia and its Impact on Ohio Municipalities.
THE NITROGEN CYCLE Nitrogen (N) is an element like carbon. All creatures need nitrogen to survive. There are huge amounts of nitrogen gas in the atmosphere,
Minnesota Watershed Nitrogen Reduction Planning Tool William Lazarus Department of Applied Economics University of Minnesota David Mulla Department of.
Walnut Creek: Monitoring, Modeling, and Optimizing Prairie Restoration Sergey Rabotyagov 1, Keith Schilling 3, Manoj Jha 2, Calvin Wolter 3, Todd Campbell.
Lesson 5: The Dead Zone Chemical Oceanography. Last class we learned about the carbon cycle What is a biogeochemical cycle? What are the primary components.
Science Assessment to Support an Illinois Nutrient Loss Reduction Strategy Mark David, Greg McIsaac, George Czapar, Gary Schnitkey, Corey Mitchell University.
Elm Creek Watershed Green Lands, Blue Waters Annual Conference November 20-21, 2013 Linda Meschke, Rural Advantage.
SPARROW Modeling in the Mississippi River Basin Iowa Science Assessment Davenport, IA Nov. 14, 2012 (608) By Dale M. Robertson*
Illinois Farmers as Nutrient Stewards: Opportunities via the Illinois Nutrient Loss Reduction Strategy IFB Commodities Conference July 30, 2014 Lauren.
Soil Nitrogen Cycling & Budgeting
Eric G. Hurley, Nutrient Management Specialist USDA-Natural Resources Conservation Service.
Economic and Biophysical Models to Support Conservation Policy: Hypoxia and Water Quality in the Upper Mississippi River Basin CARD Resources and Environmental.
Nutrient Loading from Point and Non-Point Sources on Surface Waters by Adam Lanning.
All about “Dead Zones”. Zones of Oxygen Depletion.
Measuring Carbon Co-Benefits of Agricultural Conservation Policies: In-stream vs. Edge-of-Field Assessments of Water Quality. Measuring Carbon Co-Benefits.
Hypoxia in the Gulf of Mexico 07/03/2002.  Eutrophication is a natural process taking place in water- characterized by a development towards an environment.
Anthropogenic Nutrient Sources Fertilizers Human & Animal Wastes Fossil Fuel Combustion Leguminous Crops Potential Ecosystem Effects Algae Blooms Hypoxia.
Types of Water Pollution Sewage Disease-causing agents Sediment pollution Inorganic plant and algal nutrients Organic compounds Inorganic chemicals Thermal.
What organism is important in cycling of nutrients? Agenda for Friday Jan 9 th 1.Quiz 2.Cycles Notes.
Lecture #5 Biogeochemical Cycles Unit 1: Ecology.
Science Assessment to Support an Illinois Nutrient Reduction Strategy Mark David, George Czapar, Greg McIsaac, Corey Mitchell March 11,
Co-Benefits from Conservation Policies that Promote Carbon Sequestration in Agriculture: The Corn Belt CARD, Iowa State University Presented at the Forestry.
World Resources Institute. Hypoxia: What is it? What causes It? The Dead Zone > Seasonally oxygen depleted zone in the Gulf of Mexico > Mobile aquatic.
Iowa CREP Meeting/Tour October 15, 2007 Why off-field practices/buffers? Jim Baker, IDALS (professor emeritus, Dept. Agric. and Biosystems Eng. Iowa State.
Assessing Alternative Policies for the Control of Nutrients in the Upper Mississippi River Basin Catherine L. Kling, Silvia Secchi, Hongli Feng, Philip.
The Gulf of Mexico Hypoxia Zone:. Mississippi River Basin.
DEAD ZONE Hypoxic Zone in the Gulf of Mexico. What is it? The hypoxic zone in the northern Gulf of Mexico refers to an area along the Louisiana- Texas.
Gulf of Mexico Hypoxia and Mississippi River Basin Nutrient Losses Herb Buxton, USGSRob Magnien, NOAA Co-Chairs, Monitoring, Modeling, and Research Workgroup,
BROUGHT TO YOU BY: BUILDING ENVIRONMENTAL LEADERS IN ANIMAL AGRICULTURE WELCOME TO MANURE MANAGEMENT JEOPARDY! Sections 2 and 3 Nutrient Management Regulations.
Drainage and Nitrate Loss Matthew Helmers Dean’s Professor, College of Ag. & Life Sciences Professor, Dept. of Ag. and Biosystems Eng. Iowa State University.
Nutrient Pollution
Science Assessment to Support an Illinois Nutrient Reduction Strategy Mark David, Greg McIsaac, George Czapar, Gary Schnitkey, Corey Mitchell University.
Gulf of Mexico Hypoxia and Nutrient Management in the Mississippi River Basin Herb Buxton, U.S. Geological Survey.
KWWOA Annual Conference April 2014 Development of a Kentucky Nutrient Strategy Paulette Akers Kentucky Division of Water Frankfort, KY.
Opportunities for Collaboration on Water- Quality Issues in the Mississippi River Basin Herb Buxton, Office of Water Quality.
Monthly Follow-Up Session #1 Ecosystems: Interactions, Energy and Dynamics Kelly Orlando
Science Assessment to Support an Illinois Nutrient Reduction Strategy Mark David, George Czapar, Greg McIsaac, Corey Mitchell August 8,
Minnesota BMP CHALLENGE SM Workshop WELCOME!. THE MINNESOTA RIVER WATERSHED All or portions of 38 MN counties 13 major watershed management units ~90%
Dead Zones & Drinking Water: Farming’s Nutrient Loss Challenge Jonathan Coppess University of Illinois.
Eutrophication By Oli Murphy A Team Pickles Production.
Nutrients and the Next Generation of Conservation Presented by: Tom Porta, P.E. Deputy Administrator Nevada Division of Environmental Protection President,
Eutrophication Nutrient pollution in the Mississippi River Delta Eutrophication : Mississippi River Delta.
Introduction to Nutrient Management, Nutrient Cycling and Regional Nutrient Balance Issues Tom Basden Ag. and Natural Resources WVU Extension Service,
IOWA NUTRIENT REDUCTION STRATEGY A science and technology-based framework to assess and reduce nutrients to Iowa waters and the Gulf of Mexico James Gillespie.
Taking on the Challenge Addressing Sustainability and Nutrient Loss Reduction Strategy Goals Caroline Wade, Nutrient Watershed Manager Illinois Corn Growers.
Slide 1 Achieving Effective Conservation in the Upper Mississippi River Basin CEAP —Conservation Effects Assessment Project.
 Decreasing Nutrient Runoff from Iowa Farms to Improve Water Quality Everywhere from Local Sources in Iowa to the Dead Zone in the Gulf of Mexico.
QUICK WRITE: 3-5 mins As Soon As You’re Seated Relate the images to the Nitrogen Cycle Remember the 4 Players.
Yahara River Watershed RCPP
Using RMMS to Track the Implementation of Watershed-based Plans
Chapter 15 Organic Amendments.
Illinois Nutrient Loss Reduction Strategy - NLRS
By: Lucas Hendrickson, Ian Strasburg, John Koets, and Shenquan Li
Developments in Drainage in Illinois
Texas Water Resources Institute
Plant Nutrients Diego and lorenzo.
Review of Carbon, Nitrogen and Phosphorus Cycles
2018 Louisiana Soil Health and Cover Crop Conference
1. The Study of Excess Nitrogen in the Neuse River Basin
Soil Erosion Causes, Effects and Control
Annual Agriculture Progress Reports Tar-Pamlico / Neuse / Falls Lake
Managing Reactive N in the Environment
Water Pollution.
Jacob Piske, Eric Peterson, Bill Perry
7 Environmental Systems and Ecosystem Ecology Part B
Presentation transcript:

Iowa Agriculture Water Alliance Farmer-led Efforts to Improve Water Quality SD Corn Growers 30TH Annual Meeting January 9th, 2016

Iowa Agriculture Water Alliance Mission Increase the pace and scale of farmer-led efforts to improve water quality Founding organizations Iowa Corn Growers Association Iowa Pork Producers Association Iowa Soybean Association

The scope of agricultural expansion is hard to describe just with words, so here are some maps. This is what the world looked like in 1700, with cropland shown as dark brown and rangelands shown in yellow. Forests are dark green and grasslands are lighter green.

At the turn of the last century, agriculture had expanded to cover much of the globe.

By 2050 many of our remaining intact natural areas are projected to be impacted by expanding agriculture.

Global Nitrogen, Phosphorus and Irrigation Use

Water Challenges – Global Many of you will have heard about the dead zone in the Gulf of Mexico, which is caused by excess nutrients in our rivers, largely attributable to runoff of agricultural fertilizers. The fertilizers cause aglal blooms that, when they decompose, reduce the oxygen concentrations below what fish and other aquatic life can withstand, causing all life within the dead zone to flee or die. What you many not know is that this is one of dozens of locations around the world suffering from similar problems, primarily caused by agricultural runoff. Doubling our food production will require adding more fertilizers; this makes the challenge to keep those fertilizers on the farm fields instead of polluting our waters even more urgent. Major known eutrophic and hypoxic areas. Reprinted from Selman et al.

U.S. Corn Production and Nutrient Use

Water Quality – National >100,000 miles of rivers and streams 166 coastal hypoxic areas or “dead zones” nationwide “nutrient pollution is widespread”: 27% river and stream miles have high N, 40% have high P Stream biological condition: 55% poor, 23% fair; (9% more “good” N condition, 19% fewer “good” P condition ) Source: 2013 EPA website: http://water.epa.gov/type/rsl/monitoring/riverssurvey/index.cfm , http://www2.epa.gov/nutrientpollution/effects-environment , http://www2.epa.gov/nutrientpollution/where-occurs-lakes-and-rivers

Water Quality – Regional Wadeable Streams with High Nutrients http://water.epa.gov/type/rsl/monitoring/upload/EPA-MARB-Fact-Sheet-112911_508.pdf

USGS Estimates of Loss and Delivery of N and P to the Gulf SPARROW - Modeled Estimate of N and P Discharge in Watersheds of the Mississippi R. Basin <1 1 to 10 10 to 100 100 to 500 500 to 1000 >1000 <0.01 0.01 to 0.1 0.1 to 1.0 1.0 to 5.0 5.0 to 10.0 >10.0 kg km-2 yr-1 lbs/A/yr (approx.) Alexander et al. Environ. Sci. Technol. 2008, 42, 822–830

USGS SPARROW Modeled Sources of Annual N Load to Gulf of Mexico Robertson and Saad. 2013. J. Environ. Qual. 42:1422–1440

USGS SPARROW Modeled Sources of Annual P Load to Gulf of Mexico Robertson and Saad. 2013. J. Environ. Qual. 42:1422–1440

EPA Hypoxia SAB report suggested 45% less total N AND 45% less total P discharge to the Gulf to reduce hypoxia

Water Challenges – Regional Mississippi River and Gulf of Mexico Hypoxia Impact on the Gulf David, et al., 2010. JEQ 39:1657-67

Iowa Water Challenges

Soils Vulnerable to Leaching Nutrient content of water has more to do with historic changes in land use and hydrology than inputs by farmers. Current major cropping system leaves soil vulnerable to erosion and nutrient leaching. Markets and Technological Advances have shifted cropping patterns and increased productivity. Have the most tools available to date and will still continue to develop and adopt new technologies Past cropping system was driven by animal agriculture needed to power agriculture.

Changes in Land Use Past cropping system was driven by animal agriculture needed to power agriculture.

Corn Nitrogen Cycling & Budget Corn Grain Harvest (~100 lbs N/acre/year) Gaseous Loss (~10 lbs N/acre/year) Corn Nitrate Use (~165 lb N/acre) Corn Residue Return (~65 lbs N/acre/year) Fertilizer to Corn (~150 lbs N/acre/year) Microbial production of nitrate from native soil (100-400 lbs N /acre/year) NITRATE Native Soil Organic Matter Nitrogen ~ 10,000 lb N/acre Microbial re-uptake of nitrate (150-350 lbs N/acre/year) What leaches, what does not. Nitrate leaching to water (~30 lbs N/acre/year) 3

Soybean Nitrogen Cycling & Budget Soybean Grain Harvest (~165 lbs N/acre/year) Atmospheric Fixation (~100 lbs N/acre/year) Soybean Nitrogen Use (~230 lb N/acre) Gaseous Loss (~2 lbs N/acre/year) Corn Residue Return (~65 lbs N/acre/year) Soybean Nitrate Use (~130 lb N/acre/year) Microbial production of nitrate from native soil (100-400 lbs N /acre/year) NITRATE Native Soil Organic Matter Nitrogen ~ 10,000 lb N/acre Microbial re-uptake of nitrate (150-350 lbs N/acre/year) What leaches, what does not. Nitrate leaching to water (~30 lbs N/acre/year) 4

Iowa Nutrient Reduction Strategy Iowa Water Quality Initiative IOWA DEPARTMENT OF AGRICULTURE & LAND STEWARDSHIP Iowa Nutrient Reduction Strategy Leads Iowa Department of Ag and Land Stewardship Iowa Department of Natural Resources Iowa State University Released May 2013, after public comment period Living document meant to be adjusted as technologies are developed and understanding of these systems/practices improves. Goal of 45% Reductions in Total Nitrogen and Phosphorous

Iowa Nutrient Reduction Strategy Transformational change will be required to meet these targets, cost upwards of $4B No single practice will meet these reductions Current rate of adoption and investment – centuries; best case – decades NRCS Photo

Iowa Agriculture Water Alliance Conservation Practices Cover Crops Nutrient Management Strip Till / No-Till Bioreactors Saturated Buffers Nutrient Treatment Wetlands Drainage Water Management Buffers, Grass Waterways, Terraces, Prairie STRIPS NRCS Photo Implementation of The Iowa Nutrient Reduction Strategy is a central focus of our effort. Implementation means a farm by farm application of a suite of practices that will meet the goals of the strategy. Many farmers are applying these practices, but we have a long way to go. No single practice will achieve the goals of the strategy. Not all practices will work or are needed for every field. In many cases, application of multiple practices will be required. This ISU document, which some of you may have seen, is an excellent brief summary of the practices included in the science assessment, along with an estimate of the average level of nutrient reduction that each individual practice is likely to achieve.

IAWA Engagement in Watershed Projects Rock Creek 4 Mile Creek WMA Walnut Creek WMA

Water Quality – Watershed Scale First Draft Rock Creek Watershed Management Plan Initial Estimated Costs Initial Cost: $5.0m ($117/ac) Yearly Cost: $750k ($45/ac) *Update – after completion of watershed plan, Mitchell SWCD applied and received WPF/WSPF funding from IDALS. $174K/year one; $962K total request.

Iowa Agriculture Water Alliance Questions? Sean McMahon 515-334-1480 smcmahon@iowaagwateralliance.com