Wednesday February 12, 2014 Managing P and Zn

Similar documents
Nutrient management irrigated corn. Jim Camberato

Interpretation of Soil Tests for Environmental Considerations

Nutrition of Horticultural Crops. Monica Ozores-Hampton University of Florida/IFAS/SWFREC Spring 2013

Fertility management in soybean

Nutrient Recommendations Agronomic Crops Last Updated 12/1/16. Grain Corn. Crop Highlights Target ph: 6.0

COMPARISON OF IMPREGNATED DRY FERTILIZER WITH S AND ZN BLENDS FOR CORN AND SOYBEANS

Using Tissue and Soil Tests Together Helps Make Better Decisions. John Lee Soil Scientist AGVISE Northwood, ND

Raymond C. Ward Ward Laboratories, Inc Kearney, NE

Interpreting Soils Report. Beyond N P K

Topics. Phosphorus cycle. Soil Fertility Management 5 Phosphorus. ZEF IPADS Joint Lecture (18 22 Jan. 2016)

Potassium and Phosphorus as Plant Nutrients. Secondary Nutrients and Micronutrients. Potassium is required in large amounts by many crops

What s new with micronutrients in our part of the world?

Barley and Sugarbeet Symposium

Fluid Sources for Micronutrients Starters for No-Tillage Corn and Soybean in Argentina. Ricardo Melgar

AGVISE Laboratories Established 1976

Managing Micronutrients with Soil (Plant) Testing and Fertilizer

Secondary and Micronutrients

Interpreting Plant Tissue and Soil Sample Analysis

Nutrient Management for Texas High Plains Cotton Production

Nutrient Management for Texas High Plains Cotton Production

What is NUTRIO? Product Line for Biologically Active Products. Biologically Derived Products. Microbial Inoculants

MEASURE AND MANAGE. Zinc. By Dale Cowan Agri-Food Laboratories CCA.On

How to Develop a Balanced Program for Pecan and Chili. Robert R Smith

Dry Bean Fertility Dave Franzen NDSU Soil Science Specialist

Corn and soybean yield responses to micronutrients fertilization

Evaluating the Effectiveness of Iron Chelates in Managing Iron Deficiency Chlorosis in Grain Sorghum

Nutrients & Diagnosing Nutrient Needs. Carrie Laboski Dept. of Soil Science UW-Madison

Chapter 7: Micronutrient Management

Micronutrient Management. Dorivar Ruiz Diaz Soil Fertility and Nutrient Management

Cranberry Nutrition: An A Z Guide. Joan R. Davenport Soil Scientist Washington State University

Soils and Soil Fertility Management

Chapter 1: Overview of soil fertility, plant nutrition, and nutrient management

Phosphate, Done Better BENEFITS

Fertility Management for Corn on Corn Systems Kyle Freeman. The Mosaic Company

Limitations to Plant Analysis. John Peters & Carrie Laboski Department of Soil Science University of Wisconsin-Madison

Soil Conditions Favoring Micronutrient Deficiencies and Responses in 2001

12. ZINC - The Major Minor

ANIMAL, PLANT & SOIL SCIENCE D3-6 CHARACTERISTICS AND SOURCES OF PHOSPHORUS AND POTASSIUM

Mineral Nutrition of Fruit & Nut Trees. Fruit & Nut Tree Nutrition 3/1/2013. Johnson - Nutrition 1

Markus Braaten. Elston D. Solberg. Director of Agri-Knowledge Agri-Trend. US Director of Agri-Knowledge Agri-Trend USA

Animal, Plant & Soil Science. D3-7 Characteristics and Sources of Secondary Nutrients and Micronutrients

POTASSIUM 4Growth Komodo and Komodo Pro by Rick Vetanovetz PhD

Potash Phosphate Nitrogen

NUTRITION KNOW-HOW P.O. BOX 897 // WILLMAR, MN (800) // WCDST.COM

Methods to Improve Nutrient Use Efficiency in Rice

Plant Food. Nitrogen (N)

DAFFODILS ARE WHAT THEY EAT: NUTRITIONAL ASPECTS OF SOILS

Soil Composition. Air

Fertilization Programming

AgriCal by. Healthier Soils Stronger Plants Higher Yields

Larry Stein, Texas A & M AgriLife Extension Service. Nitrogen fertilization materials, rates and timing

Plant Nutrients in Mineral Soils

1. Zinc as a plant nutrient 1 2. Preparing for a prescribed burn 2 3. Fertilizing cotton 4

2009 Elba Muck Soil Nutrient Survey Results Summary, Part III: Calcium, Magnesium and Micronutrients

Soil Fertility and Nutrient Management. Hailin Zhang. Department of Plant and Soil Sciences

MICRONUTRIENT PRINCIPLES

in a uniquely natural way.

Nitrogen. Cotton Fertility. Glen Harris University of Georgia (Tifton) Sulfur. Phosphorous

REMEMBER as we go through this exercise: Science is the art of making simple things complicated!

LIST OF ABBREVIATIONS USED

Sulphur Fertilizer Effect on Crop Development & Quality

Preventing, diagnosing and understanding nutrient deficiencies in plants

FLUID PHOSPHATES: ORTHO VS. POLY SALT INDEX STORAGE. Fluid Technology Roundup December 5, 2017 Raun Lohry 1M Solutions, LLC

Nutrient Management in Subtropical Tree Crops. The avocado model

Plant Health Solutions

Nutrient Deficiencies and Application Injuries in Field Crops

Fertilizers. Chapter INTRODUCTION

The following is a brief description of the symptoms of some of the most common nutrient deficiencies in soybeans. Nutrient deficiency symptoms

Nutrient Management. Ontario Certified Crop Adviser Pre-Exam Workshop Woodstock, Ontario 20 January 2014

TNPSC Chemistry Study Material Fertilizers

New Technologies: Products and Additives

Plants, soil, and nutrients. Created in partnership with Alex Lindsey, Ph.D., The Ohio State University

Introduction to Wolf Trax

Nut Crop Nutrition Understanding the Principles to Optimize the Practices.

1) Yellow Corn in 2014 Compared to 2013 and ) Time of Day Plant Tissue Project

IRON. AGRITOPIC August INTRODUCTION 2. IRON IN THE SOIL

Micronutrient Compatibility with Pesticides and NPK Fertilizers. Brian Haschemeyer Director of Discovery and Innovation

Biosolids Nutrien Management an Soil Testing. Craig Cogger, Soil Scientis WSU Puyallup

Foliar Micro Nutrients in High Management Crop Production. Tim Eyrich Manager Nutrition Product Development Winfield Solutions

Be sure to show all calculations so that you can receive partial credit for your work!

Micro Nutrients Major Effects

ADVANCING CORN YIELDS. Sulf-N Ammonium Sulfate

Developing your Fertilizer Management Program. Outline. 2/6/2018. Other factors Species Correct site Weather Weed control. Soil physical properties

Variability in Tissue Testing What Does It Mean For Nutrient Recommendations?

Plant, Soil, and Nutrients

USE OF OCEANGROWN PRODUCTS TO INCREASE CROP YIELD AND ESSENTIAL NUTRIENT CONTENT. Dave Franzen, North Dakota State University, Fargo, ND

in Cotton Dr. Steve Phillips Director, Southeast USA

In mid-october, all plots were again soil sampled to determine residual nutrients.

Correction of Zinc Deficiency in Avocado

Patented ECO-FERTILIZER. Soil AMENDMENT. Nitrogen REPLACEMENT

The Effect of Soil Moisture on Fluid and Granular Fertilizer Availability.

Sunflower Special Topics: Nutrient Requirements of Sunflower

BOTANY AND PLANT GROWTH Lesson 9: PLANT NUTRITION. MACRONUTRIENTS Found in air and water carbon C oxygen hydrogen

Protein and Yield Response to Nitrogen Fertilizer and Variation of Plant Tissue Analysis in Wheat

Advanced ph management

Stoller s Options and Timings for Increasing Tuber Numbers in Potatoes

Nitrophoska. Cereals, fodder beet, horticulture, maize and vegetables. Precise nutrition for superior plant performance

Interpreting Soil Tests for Efficient Plant Growth and Water Use

Quick Tips for Nutrient Management in Washington Berry Crops. Lisa Wasko DeVetter Assistant Professor, Small Fruit Horticulture March 16, 2016

Agronomy 354 Quiz 1, January 20, Name (-5 points if not written legibly))

Transcription:

John Kruse, PhD Research Agronomist Koch Agronomic Service, LLC Bobby Golden, PhD Asst. Professor Mississippi State University Wednesday February 12, 2014 Managing P and Zn 1

Clear as mud P = the element Phosphorus P 2 O 5 = fertilizer standard (an expression) ~ 44% P H 2 PO 4 = orthophosphate (form of plant uptake) Soil test reports usually make recommendations in terms of P 2 O 5

Energy (ATP) DNA and RNA (cell division and protein synthesis) Phospholipids (cellular membranes) Seedling and root growth Substantial grain accumulation Manure implications (feed) Plant Use and Uptake

Crop P 2 O 5 Total crop removal (lbs/a) Corn uptake (bu1) 0.54 108 (200 bu) Corn removal (bu1) 0.35 70 % removed 65% Soybean uptake (bu1) 1.1 66 (60 bu) Soybean removal 0.73 44 % removed 66% Cotton uptake (bale1) 22 66 (3 bale) Cotton removal 14 42 % removed 64% Wheatwtr. Uptake (bu1) 0.68 41 (60 bu) Wheatwtr. Removal 0.48 29 % removed 71%

Phosphorus in the soil Fe/Al (OH) 3 Fe/Al O (OH) Organic P (labile & nonlabile) Microbial P (nonlabile) H 2 PO 4 HPO 4 2 CaCO 3 Soil P moves by DIFFUSION (mm to microns)

Phosphorus in the soil 2 PO H 2 PO 4 H H 4 2 PO 2 PO 2 PO 4 4 4 H 2 PO 2 PO 4 2 PO 4 4 H 2 POH H 2 PO 4 4 2 PO 4 H 2 PO 2 PO H 4 4 2 PO 2 PO 4 H 2 PO 4 2 PO 4 H 2 PO 4 2 PO 4 4 2 PO H 2 PO 4 2 PO 4 2 PO 4 4 H 2 PO 4 2 PO H H 2 PO 4 4 2 PO 4 2 PO 4 2 PO H 2 PO 4 2 PO 4 4 H 2 PO 2 PO 4 2 PO 4 2 PO 4 H H 2 PO 4 2 PO 4 H 2 PO 4 2 PO 4 4 2 H 2 POH 4 4 2 PO 2 PO H 4 2 PO 4 4 2 PO H 2 PO 4 H 4 2 PO 4 H 2 PO 4 Plant root Iron and aluminum hydroxides and oxyhydroxides (or CaCO 3 )

Phosphorus in the soil Fertilizer P Organic P (labile & nonlabile) Microbial P (nonlabile) Fe/Al (OH) 3 Fe/Al O(OH) H 2 PO 4 HPO 4 2 CaCO 3 O Al Al OH 2 OH H 2 PO 4 O Al Al O OH OH P O OH O Al Al O O P O OH labile nonlabile

Soil Test P probability of response LOW (025 FertIndexValue). The nutrient concentration in the soil is inadequate for the growth of most plants and will very likely limit plant growth and yield. There is a high probability of a favorable economic response to additions of the nutrient. Dr. Tubana: critical soil test P value: ~30 ppm (M3) Credit: extension.udel.edu

N & P interaction http://www.grdc.com.au/researchanddevelopment/grdcupdatepapers/2013/03/~/media/e00efc0a38fd4e99bdfd83899d4544fe.jpg

Wheat response to added P

SSP (0200) TSP (0460) MAP (11520) DAP (18460) APP (10340) OP (6246) Phosphate Fertilizers Source: Rock Phosphate (Ca 10 (PO 4 ) 6 (X) 2 where X=F, OH, or Cl (apatites) Florida, Morocco, Russia, South Africa, China

Orthophosphate and Ammonium Polyphosphate

Corn Response to infurrow starter Beneficial when soils are cold and wet. Use 4 gal (max) APP/acre for wide rows. Provides a concentrated nutrient supply directly in the root zone of young plants Sequesters P from CaCO 3 in calcareous soils Photo: Larson Photo: Bond No Starter Starter Fertilizer

Corn Response to infurrow starter Yield Increases most likely to occur: Planting reduced till Coarse textured; low O.M. soils Cold, poorly drained soils Fields with low soil test P High ph (calcareous) soil Salt Index comparisons for commonly used starters, (expressed as lbs salt effect/gal) Product Analysis Salt Index, (lb/gal) Value Relative to 10340 APP 10340 2.28 1.0 OP 6246 3.04 1.3 UAN 3200 7.78 3.1 ATS 120026S 30.9 13.6 Salt index adapted from Pioneer

Corn Response to infurrow starter Early season plant growth increased in all trials. Plant height increase remains until tassel. Authors attributed growth increase to P 2 O 5 content of starter. Source: Mascagni et al., Better Crops 91:2 (2007)

Corn Response to infurrow starter No Starter 4 gal WL + 0.5 lb Zinc Inconsistent with respect to increases in grain yield Lower harvest moisture and earlier Mid silk dates when no yield response observation Consistently enhances plant growth and maturity

P is very immobile Moves by diffusion Phosphorus Summary Apply P to sufficiency level (30 ppm M3) If low soil test P, use a starter fertilizer at planting If sufficient soil test P, utilize crop replacement levels at a minimum Ownland versus rentland strategies

Zinc Agronomics

Zinc in Soil and Plant Tissue Immobile Nutrient (plant & soil) Soil CEC (mostly SOM) Challenge: High ph and high soil test P A key Micronutrient for Corn Relatively high demand by the plant Enzyme synthesis Necessary for chlorophyll formation Involved in growth hormone and auxin production Co Factor for alcohol dehydrogenase pathway

Zinc Promotes Earlier Tassel recall the importance of cool temperatures during pollination No Zinc 1 lb Zn Foliar

Herbicide Injury or Nutrient Deficiency? Zinc Mesotrione

Zinc Deficiency Symptomology

Soil and tissue test Zn interpretation

Methods of Zn fertilization Soil Applied 510 lb Zn/acre as a granular fertilizer Adjust rates based on water solubility of Zn sources (oxides, sulfates and oxysulfates) Foliar Applied Apply 12 lb Zn/acre after emergence Chelated for soil application (Little foliage for interception) Sulfate for foliar application (larger plants)

Zinc research in corn (Dr. Dustin Harrell, 20022004) Year P Zn Mehlich III 2002 53 1.32 2003 14 0.81 2004 54 1.44 2002=12 bu ZnSO 4 banded in furrow at planting 2003 2004=25 bu

Cheneyville, 2011 Source Rate, lbs/a Zinc Research in Corn (Red River alluvial soils) Soil Test Zn, ppm V3 leaf stage V8 leaf stage Grain Yield, bu/a Zn, ppm P/Zn Zn, ppm P/Zn ZnSO 4 0 1.21 22 147 18 116 115 2.5 1.72 21 152 20 116 142 5 2.43 21 141 20 115 159 10 4.00 26 124 18 124 139 ZnEDTA 0 1.28 18 167 19 121 129 2.5 1.99 20 153 19 113 155 5 2.39 21 145 18 115 143 10 2.11 23 129 20 110 139 Soil test P = 50 ppm; ph = 7.5

2011 Red River alluvial Zn trial A Zn application rate of 5 lbs/a was required for soil testing <1.5 ppm Zn. An average of 35 bu/a increase in grain yield was obtained Lower application rate was required if applied as ZnEDTA A marginal increase in grain yield was observed when 2.5 lbs Zn/A (regardless of source) was applied to corn grown on soil with Zn < 2.5 ppm.

Corn Response to Zn Rate Mean corn grain yield (bu ac 1 ) 300 250 200 150 100 50 Sunflower 2011 (12 bu increase) DREC 2011 (no response) 0 0 2.5 5 7.5 10 Total Zn Rate (lb Zn ac 1 ) Golden unpublished data (2013)

Corn Response to Zn Rate Mean corn grain yield (bu ac 1 ) 300 250 200 150 100 50 Bolivar 2012 (29 bu increase) DREC 2012 (16 bu increase) 0 0 2.5 5 7.5 10 Total Zn Rate (lb Zn ac 1 ) Golden unpublished data (2013)

Corn Response to Zn Rate Mean corn grain yield (bu ac 1 ) 300 250 200 150 100 50 Bolivar 2013 (no response) DREC 2013 (33 bu increase) 0 0 2.5 5 7.5 10 Total Zn Rate (lbs Zn ac 1 ) Golden unpublished data (2013)

Corn response to infurrow starters White Lightning + EDTAZn + CaptureLFR Washington Co. Treatment White Lightning + EDTAZn + Quadris White Lightning + EDTAZN 10340 0 50 100 150 200 250 Mean corn grain yield (bu ac 1 ) Source: Scott; unpublished data (2013)

Zn Product Foliar Burn Citric Acid Chelate @ 2lb Zn EDTA Chelate @ 2lb Zn

Zinc Product Foliar Injury at 9d after Application Visual Leaf Injury (%) 100 80 60 40 20 0 EDTA Chelate Citric Acid Chelate D C D Zn Rate x Product Interaction (p<0.0001) 0.5 1 2 B Total Zn Rate (lb Zn ac 1 ) C A Golden unpublished data (2013)

Zinc Product Tissue Concentration at 2w after Application Corn Tissue Zn Concentration (mg/kg) 140 120 100 80 60 40 20 0 Main effect of Zn Rate (p= 0.0006) 0.5 1 2 LSD Golden unpublished data (2013)

Zinc Product Tissue Concentration at 2w after Application Corn Tissue Zn Concentration (mg/kg) 140 120 100 80 60 40 20 0 Foliar Zn Product Main effect of Zn Product (p<0.0001) Citric Acid EDTA LSD Golden unpublished data (2013)

Zinc Product Tissue Concentration at 2w after Application Mean Corn Grain yield (bu ac 1 ) 300 250 200 150 100 50 EDTA Citric Acid 0 0.5 1 2 Total Zn Rate (lb Zn ac 1 ) Golden unpublished data (2013)

Zinc Source Foliar Burn Citrate Zinc @ 1 lb Zn/ac Zinc Sulfate @ 1 lb Zn/ac Smart Zn @ 1 lb Zn/ac EDTA Zinc @ 1 lb Zn/ac

Zinc program basics Soil test Zn coupled with ph is a good indicator of need Not all Zn fertilizers are created equal Must take into account water solubility Supply Zn early Soil test Zn should be above 1.5 ppm Broadcast at a rate of 510 lbs Zn/acre Higher applications may provide enough Zn to remain effective for multiple years Zn can be banded or added to APP starter at rate of 0.5 1.0 lbs Zn/acre as chelate or 24 lbs Zn/acre as sulfate 0.5 2.0 lbs Zn/acre as a foliar Less residual effect, so repeat annually Zn is immobile in soil so subsurface banding is best for notill

Thank You 2013 KOCH AGRONOMIC SERVICES, LLC. ALL RIGHTS RESERVED. AGROTAIN AND SUPERU ARE TRADEMARKS OF THE MOSAIC COMPANY AND IS LICENSED EXCLUSIVELY TO KOCH AGRONOMIC SERVICES, LLC. AGROTAIN, AGROTAIN ULTRA AND AGROTAIN PLUS NITROGEN STABILIZERS, AND SUPERU FERTILIZER, ARE MANUFACTURED AND SOLD BY KOCH AGRONOMIC SERVICES, LLC UNDER AN EXCLUSIVE LICENSE FROM THE MOSAIC COMPANY. THE KOCH LOGO IS A TRADEMARK OF KOCH INDUSTRIES, INC. CERTAIN OF THE STUDIES REFERRED TO IN THIS PRESENTATION WERE FUNDED IN WHOLE OR IN PART BY KOCH AGRONOMIC SERVICES, LLC OR ITS PREDECESSORS.