Nursery BMPs. Keeping Nutrients in the Root Zone. Tom Yeager and Bob Stamps Department of Environmental Horticulture

Similar documents
Fertilizer Management for Plant Health and Environmental Water Quality Protection

Nitrogen BMPs for horticultural crop production Tim Hartz UC Davis

Fertility management in organic strawberries

Progress Report (task 3) Project Title: BMPs for Florida blueberries. Contract # : Dorota Z. Haman Agricultural and Biological Engineering

New Practices for Nutrient Reduction: STRIPs and Saturated Buffers. Matthew Helmers and Tom Isenhart Iowa State University

Cover Crops and Nitrogen in Water

Improving Fertilizer Use Efficiency for Horticultural Crops. Tom Obreza and Jerry Sartain Soil and Water Science Dept.

Water and Nitrogen BMPs for Tomato and Watermelon: Water Quality and Economics 1

Large Scale Studies. UC Cooperative Extension, Monterey Co

Almond Nitrogen Budgeting and Reporting Using the Almond Board s Online Tool

Cover Crops and Water Quality

Nutrient Use Efficiency vs. BMPs in Florida. G. David Liu Horticultural Sciences Department IFAS, University of Florida

Using Sensor Networks for Precision Water and Nutrient Management in Controlled Environments

Soil Amendment and Foliar Application Trial 2016 Full Report

Hood River Water Conservation Strategy: achieving long-term water resource reliability for agriculture & local fish populations

Managing Pistachio Nutrition. Patrick Brown Muhammad Ismail Siddiqui

Overall Instructions

IRRIGATION CONTROLLERS

G Fertilizing Winter Wheat I: Nitrogen, Potassium, and Micronutrients

Chapter 3. Principles and Practices of Irrigation Management for Vegetables

Protecting Your Water and Air Resources

2014 Winter Canola Soil Preparation x Fertility Timing Trial

Recordkeeping Manure and Fertilizer. Marilyn L. Thelen, Educator MSU Extension

Implementation Guide for Container-Grown Plant Interim Measure 1

Nitrogen Fertilizer Movement in Wheat Production, Yuma

Aquaculture Effluents and the Environment. CS Tucker, Mississippi State University

Contents: Purpose and objective Water and energy conservation 1 1

RESEARCH REPORT SUWANNEE VALLEY AREC 92-5 August, 1992 COMPARISON OF VARIOUS N SCHEDULING METHODS FOR SNAPBEANS

Nutrient Losses during Temporary Field Storage of Poultry Manure. Associate Professor & Extension Specialist

Bioswales, Wetlands, and Trees: How going green can be a part of a Wet Weather Management Plan. Presented by Brian Tornes, PE

Robust Design for a Sustainable Future

Using No-till and Cover Crops to Reduce Phosphorus Runoff

Phosphorus for the Ontario CCA 4R Nutrient Management Specialty

Phosphorus for the Ontario CCA 4R Nutrient Management Specialty

REGIONAL STORMWATER CAPTURE & USE FEASIBILITY STUDY TAC MEETING #1 - JULY 18, 2017

Precision Ag. Back to Basics

Evaluation of Compact Bed Geometries for Water, Nutrient, and Economic Efficiency for Drip-Irrigated Tomato and Pepper

Mineralization of Nitrogen from Compost

IMPROVING PERFORMANCE OF RYE COVER CROP SYSTEMS

Hybrid Poplar Research at the Klamath Experiment Station. Poplar Clone Trial: First Season (1996) Results

Interpretation of Soil Moisture Content to Determine Soil Field Capacity and Avoid Over Irrigation in Sandy Soils Using Soil Moisture Measurements

Overview of Florida s s Commercial Blueberry Industry. Jeff Williamson Horticultural Sciences Department IFAS, University of Florida

Institute of Ag Professionals

Water Quality Study In the Streams of Flint Creek and Flint River Watersheds For TMDL Development

Planting and Harvesting Crops

Sugarbeet Response to Nitrogen Fertilizer Rates K.A. Rykbost and R.L. Dovell

LAND APPLICATION OF SWINE MANURE

Maryland Nutrient Management Program

Barnyard Runoff Control: Planning, Design, Construction, Documentation

Unit F: Soil Fertility and Moisture Management. Lesson 3: Applying Fertilizers to Field Crops

Nutrient Management (NM)

Irrigation Workshop. Brad Rathje, AquaSpy Inc

Irrigating for Maximum Economic Return with Limited Water

Case Study. BiOWiSH Aqua has Positive Long-Term Effects. Biological Help for the Human Race

Resources Conservation Practices Tillage, Manure Management and Water Quality

Nutrient Management in. A presentation to the West Metro Water Alliance

APPENDIX I CENTRAL EVERGLADES PLANNING PROCESS ISSUE RESOLUTION

Recommendations for effective water use in agriculture under changing climate perspectives from Poland

Appendix 12. Pollutant Load Estimates and Reductions

SULFUR AND NITROGEN FOR PROTEIN BUILDING

A top issue: Quality. Manual of Tomato and Eggplant Field Production

Overview of the Surface Hydrology of Hawai i Watersheds. Ali Fares Associate Professor of Hydrology NREM-CTAHR

Using Paired Edge of Field Data to Assess Impacts of Management on Surface and Subsurface P Loss

SLOW RELEASE NITROGEN FOR IRRIGATED HARD RED SPRING WHEAT YIELD AND PROTEIN. B. D. Brown University of Idaho, Parma Research and Extension Center

Objective: To examine the validity of petiole sap nitrate analysis as a guide to nitrogen application in North Queensland banana.

UMD Storm Water Program Construction Requirements. Greg Archer, MBA Environmental Compliance Specialist

Biochar: A Potential Soil Organic Amendment in Tea

R.W. Heiniger Vernon G. James Research and Extension Center North Carolina State University

To 4R or Not to 4R Is There an Option?

Using Nitrate-N Petiole Sap-Testing for Better Nitrogen Management in Vegetable Crops

USING ARCSWAT TO EVALUATE EFFECTS OF LAND USE CHANGE ON WATER QUALITY. Adam Gold Geog 591

Recommendations of the Expert Panel to Define Removal Rates for Urban Filter Strips and Stream Buffer Upgrade Practices

Best Management Practices for Nitrogen Use in SOUTHWESTERN AND WEST-CENTRAL MINNESOTA

Farm Conditions that Characterize a BMP Plan Are All Farms Equal?

Final Report for. Project (Task/Deliverable #5)

Small-Scale Farmers and the Environment: How to be a Good Steward

Boy Lake CASS COUNTY

Nitrate, Well Testing and Rules

Current Nutrient Management Strategies for Poultry Production. Josh B. Payne, Ph.D. Animal Waste Mgmt. Specialist

Review of Current Sugarcane Fertilizer Recommendations: A Report from the UF/IFAS Sugarcane Fertilizer Standards Task Force 1

NRCS s Soil Health Initiative and its Relationship to Water Quality

FDACS BMP PROGRAM OVERVIEW. UF/IFAS and FDACS/Office of Agricultural Water Policy

Irrigated Spring Wheat

The Next Generation of Stormwater Management and Site Design. Melanie R. Grigsby, P.E. Stormwater Resource Manager, City of Fort Myers

Weed control reality. Landscape weed control James Altland Oregon State University. Redroot pigweed. Weeds. Landscape weed control

Nutrient Control BMPs: Soil Testing Plant Tissue Analysis Fertilizer Application Spill Prevention

Institute of Ag Professionals

Lecture 1: Importance of Irrigation and Drainage

Improving Nutrient Management in Agriculture. Industry Perspective

Project Name: Add a unique name that appropriately identifies the submission

Using Compost and Animal Manure as a Florida BMP on Vegetable Production. Monica Ozores-Hampton, Ph.D.

LPES Small Farms Fact Sheets* Small-Scale Farmers and the Environment: How to be a Good Steward. By Mark Rice, North Carolina State University

Simplot FŪSN Fertilizer Potato Trials

LIQUID SWINE MANURE NITROGEN UTILIZATION FOR CROP PRODUCTION 1

Florida Nursery and Landscape Industry Outlook for 2013

Can cover crops replace summer fallow?

Nutrient Management of Forages and Legumes Crop Pest Management School Bozeman, January 6, 2010

SUPPLEMENTAL LABEL. FRESCO Plant growth regulator solution for use on commercially grown ornamental plants in containers in greenhouses CAUTION

PENNSYLVANIA PHOSPHORUS INDEX UPDATE

Biochar Field Trial in San Mateo County, California: Presented to AQWA August 29 th 2016 by Brittani Bohlke & Sara Polgar

Transcription:

Nursery BMPs Keeping Nutrients in the Root Zone Tom Yeager and Bob Stamps Department of Environmental Horticulture

Nursery Production 7800 nurseries Diverse Types of plants Container production In-ground production Irrigation methods

In-ground Production 24,000 acres Cut foliage Ferns, caladiums

Container Production 59,000 acres 80% sprinkler irrigation 12% microirrigation

Nursery Production 50% within one mile urban market 19 18 18 17 17 16 16 15 15 14 8000 7900 7800 7700 7600 7500 7400 7300 7200 Fla Pop Nurseries 2000-2001 2001-2002 2002-2003 2003-2004 2004-2005 2005-2006 2006-2007 Millions of People

Container Production 600 nurseries with NOI 13,500 acres

In-ground Production BMP manual process initiated Develop Topics Grower feedback

Container Production Irrigation BMP Challenges Container has small reservoir Different size containers and plants Different container configurations

Container Production Irrigation Best Management Practice Number of nurseries (%) Collect irrigation or rain runoff 35 Know water-holding capacity of substrate 10 Group plants by irrigation requirements 77 Group container sizes by irrigation requirements 72 Use any other grouping for irrigation requirement 28 Monitor amount of water applied each irrigation 36 Monitor the application pressure in irrigation 51 Use automatic rain shutoff 30

Container Production Nutrition BMP Challenges Less than 50% of N applied is used (Yeager and others) Amount of water applied Plant nutrient requirement (Wright, Yeager, others) High container temperatures (Martin and Ingram) Low AEC (Yeager) Old CRF technology

NO 3 -N conc. in runoff (ppm) 50 40 30 20 10 0 Spaced plants out 0 5 10 15 20 Weeks after planting

5 4 Spaced plants out P conc. (ppm) 3 2 1 0 0 5 10 15 20 Weeks after planting

150 Nitrates in production area runoff, 6-state survey (Yeager et al., 1993) 135 NO 3 -N conc. in runoff (ppm) 100 50 Controlled-release fertilizer 8 33 Controlled-release fertilizer + solution fertilizer 20 0 Mean Max Mean Max

N0 3 -N conc. in runoff (ppm) 50 40 30 20 10 0 Nitrates in production area runoff, 6-state survey (Yeager et al., 1993) Controlled release + solution fertilizer Controlled release only Apr May Jun Jul Aug Sep

Container Production Nutritional BMPs controlled-release fertilizers are used (82 %) fertilization rates are adjusted for different species and container sizes irrigation runoff is collected if solution fertilizer in overhead irrigation substrates are amended with CRF if containers are likely to overturn fertilizer is broadcast on non-spaced containers substrate nutrition is monitored to maintain desirable levels records are kept to follow trends and trouble-shoot nutritional problems runoff water is captured and reused to recycle nutrients substrate storage areas are covered to prevent runoff of nutrients substrate is used immediately (within a week) if amended with fertilizer ratio of P 2 O 5 to N in fertilizers is 1:3 or less

18-0-12 18-1-12 18-3-12 18-6-12 Phosphorus Reduction in Fertilizer

Nursery Production BMPs not widely used Monitor nutrition of substrate (Yeager and others) Monitor leachate volume (15%) Efficient irrigation of small containers

Nursery Production BMPs widely used Cyclic irrigation (Beeson, Fare, others) Covered substrate storage (need data) Collection basin (need data)

Container Production Zero water discharged? Retain 90% of irrigation volume Retain first one-half inch of rain Remediation of discharge

Broward County 26 ppb Collection Basin 1370 ppb TP

Nursery Production BMPs to be developed? or How do we determine what needs to be developed? Decision support system to trial BMPs Determine BMPs of most impact Economically and technologically feasible

Plant file Weather file Management file Container Production Model executable file UF server Output files Web-based user interface User input Graphical output

Irrigation (cm/day) 1.2 1.0 0.8 0.6 0.4 0.2 0.0 0 5 10 15 20 Week FIXED MODEL

120 112 Irrigation (cm) 100 80 60 40 20 0 71 1 cm/day Model Irrigation schedule

1.6 Runoff (cm/day) 1.2 0.8 0.4 FIXED MODEL 0.0 0 5 10 15 20 Week

100 Runoff (cm) 80 60 40 20 79 46 0 1 cm/day Model Irrigation schedule

Shoot dry wt. (g/plant) 60 50 40 30 20 10 0 49 44 1 cm/day Model Irrigation schedule

http://70.185.99.211:8081/driver/index.php

Nursery Production Priorities Approach used to improve water quality Possible areas of research Estimated relative chance of success Why? Keep nutrients in root zone Precision application of water and fertilizer to minimize/leaching/ runoff/percolation and associated nutrients good Applicable to most nurseries, container or plants in ground Non-traditional irrigation application techniques e.g. subirrigation good Applicable to container and in-ground production Decision Support Systems good Applicable to container and in-ground production Design, construction and use of recycling systems fair High costs for producer

Field Days June 21, 2007

Container Production

Plant file Weather file Management file Container Production Model executable file UF server Output files Web-based user interface User input Graphical output

Weather data Container Production

Container Production Decision Tool

Leachate collection

Container Production BMP research area Level of knowledge Gaps Irrigation of nursery crops Very low Non-traditional irrigation systems Very low Cyclic irrigation with overhead water Very low Economics of change Very low Decision support system Moderate Water requirements of plants Moderate Container capture of overhead water

Cyclic Irrigation Affects Water Volume Loss from #1 Container Irrigation Treatment 900 ml (1x) 450 ml (2x) 300 ml (3x) 150 ml (6x) Volume (liters) 44 34 32 36 From: Tyler et al. 1996. J. Environ. Hort.

Nursery Production Plant Modifications Genetic manipulation Root stocks

Time Infrequent Frequent Cont. Nut. Level

Container Production Decision Tool Current and Future Work Current and on-going 3-gal growth growth/development Pruning effects Liner vs. #1 transplant Low irrigation requirement - Yaupon holly Website interface Future research/development Heat stress impact on growth Additional species Plant shape impact on irrigation water capture Real-time irrigation scheduling through website Economic analyses optimize inputs and outputs with revenue and impact on environment

Monitor Substrate Solution EC Site Evaluation (Slope, Streams, Soil Type) Runoff Fertilizer (Type and Rate) Plant Requirements (Nutrients/Water) Leaching Irrigation Management (Scheduling) Collection Structure Substrate Vegetative Zones

Thorp 1995 Container Production

Container Production BMP research area Level of knowledge Gaps Nutrition of nursery crops None Nitrogen volatilization Very low When does uptake occur? Very low Nutrient needs of plants in native soils Very low Variation in nutrition with species Very low Substrate temperature impacts Very low Economics of change Very low Decision support system Moderate Nutrient loss from substrates and soils Moderate Bio- and phyto-remediation of runoff