Fluid Fertilizers: Properties and Characteristics

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Fluid Fertilizers: Properties and Characteristics Dale F. Leikam Fluid Fertilizer Foundation www.fluidfertilizer.com Dale.Leikam@sbcglobal.net 785-776-0273 785-770-0009

Indianapolis Marriott East Wednesday, December 8, 2010 8:00 8:15 8:15 9:00 9:00 9:45 9:45 10:10 - - - Welcome and Announcements - - - - - - - - Fluid Fertilizer Solutions and pportunities (D. Fairchild ) - - - - - - - - National/Global Fertilizer utlook and Trends (T. Erny) - - - - - - - - - - - - - - Break - - - - - - - - - - - - Session A Session B 10:10 11:00 peration Issues/Maintenance (C. Schultze) Basic Fluid Characteristics, Salt-out, Solubility, Etc. (D. Leikam) 11:00 11:50 Storage Tank Inspection, Maintenance & Failure (C. Brooks) Use of VRT Programs In Dealer Research (M. Wiebers) 11:50 1:00 Lunch Lunch 1:00 1:50 DT Rail Tank Car Certification (M. rr) Urea Volatilization: How Large Is The Issue and Losses (D. Kissel) 1:50 2:40 New Technologies: Products and Additives (D. Leikam) 2:40 3:30 Statistics: How They Are Used and Mis-used (S. Staggenborg) 3:30 3:50 - - - - - - - - - - - - Break - - - - - - - - - - - - 3:50 4:40 UAN Management: Corrosion, Composition, etc (R. Satterfield) Fertigation: Equipment and Agronomics (J. Schepers) 4:40 5:30 Formulation Issues At The Plant (M. rr) Fluid Starter Fertilizer Sources (D.. Zabel) 6:00 7:30 - - - - - - - - - - - - Social Time / Reception - - - - - - - - - - - - Thursday, December 9, 2010 8:00 8:10 8:10 9:00 - - - - - - - - - - - Announcements, Housekeeping - - - - - - - - - - - - - - - - - - - - What's New In Washington? TFI Update (F. West) - - - - - - - - Session A Session B 9:10 9:50 Micronutrient Compatibilities (A. Robinett) High Yield Systems; Fertility Programs For the Future (M. Alley) 9:50 10:10 - - - - - - - - - - - - Break - - - - - - - - - - - - 10:10 11:00 Regulatory Update and ther Issues. (J. Payne) Five Factors To Improve The dds For High Yields (M. Bauer) 11:00 11:50 Fluid Storage and Shelf Life Issues (J. Walker and Panel) High Yield Systems: Role of Placement and Timing (S. Murrell) 11:50 12:00 - - - - - - Wrap-Up, Thank You, Have a safe trip home!! - - - - -

Fluid Fertilizers Increasing in popularity in U.S. and elsewhere Advantages include Flexibility and versatility in application Efficiency and adaptability Benefits of continuous bands Ease of handling Does not segregate Flexibility, etc. Limitations ften higher purchase price than solid fertilizers ** Salt-out and precipitate formation potential with certain products and blends

UAN + 51,000 Tons N/year

Market share, % USA fertilizer market share by class. 90 80 70 60 50 40 30 20 10 0 y -0.013x 2 + 53.62x - 53654 R² 0.98 1965 1970 1975 1980 1985 1990 1995 2000 2005 2010 *Excludes dir. appl. anhydrous ammonia Data source: Commercial Fertilizers, AAPFC & TFI Dry 61.5% Fluid 31.0%* Ammonia 7.5%

Fluid Fertilizers Terminology, Solubility, Density and N Solutions Solution All salts totally dissolved in water. No solids allowed! Slurry Fluid product containing water, dissolved salts and undissolved salts. Settles out quickly. Not Common. Suspension Fluid product containing water, dissolved salts, fine undissolved salt crystals and a suspending agent normally attapulgite clay. Muddy Water Solutions with undissolved solids or suspensions containing too few undissolved salt crystals. Not a good range to try and operate in!!. Falling ut f Solution No such thing.

Salt-ut Crystals form as solution cools; goes back in solution as product is warmed. Example; UAN Solution. Precipitate Formation Non-crystalline mass forms which has much lower solubility than original ingredients in solution. Example; Improperly stored fluid phosphates

Salt-ut (F) Density (Lb/Gal) 80 Urea Solutions 9.8 70 Salt ut (F) Lbs/Gal. 9.5 60 50 9.2 40 8.9 30 8.6 20 10 8.3 0 0 2 4 6 8 10 12 14 16 18 20 22 24 Percent N 8.0

Salt-ut (F) Density (Lb/Gal) 90 Ammonium Nitrate Solutions 11.6 80 70 Salt ut (F) Lbs/Gal. 11.2 10.8 60 10.4 50 40 30 20 10 0 0 2 4 6 8 10 12 14 16 18 20 22 24 Percent N 10.0 9.6 9.2 8.8 8.4 8.0

To Make 32-0-0 UAN Solution How Much Water Is Needed? A B C

% Material % N 100 90 80 70 Urea - Ammonium Nitrate Solutions Amm. Nitrate Urea % N (32 degree F saltout) 34 32 30 28 60 50 40 30 20 10 26 24 22 20 18 16 0 40:0 40:10 40:20 38:30 37:40 35:45 30:46 20:48 10:51 0:53 Urea - Ammonium Nitrate Ration 14 Eutectic Point point of maximum solubility 32% UAN contains: approximately 35% ammonium nitrate, 45% urea and 20% water at eutectic point 28% UAN contains 30% water

To Make 32-0-0 UAN Solution How Much Water Is Needed? A B C 20% WATER

Salt-ut (F) Density (Lb/Gal) 60 Urea - Ammonium Nitrate Solutions 11.6 50 40 Salt ut (F) Lbs/Gal. 11.2 10.8 30 10.4 20 10.0 9.6 10 9.2 0 8.8-10 8.4-20 0 4 8 12 16 20 24 28 32 Percent N 8.0

UAN Solutions Water 100% 10% 90% 20% 80% 30% 14 F 70% 40% 60% 50% - 4 F 14 F 50% 32 F 60% - 16 F 50 F 40% 70% 68 F 86 F 30% 80% 20% 90% 10% Urea 100% 10% 20% 30% 40% 50% 60% 70% Amm. Nitrate 80% 90% 100 % Amm. Nit.

UAN Solution Salt-out is an issue in many environments There is very little water in UAN solution. Warm water has ability to dissolve more salts than cold water Salt-out occurs when salt content exceeds solubility at a given product temperature Crystals form on tank walls as temperature cools Eventually salts accumulate at tank bottom Salts will re-dissolve with sufficient heat and recirculation

Lowering Water Freezing Temperature With UAN Solution Freezing Temperature F % N 28-0-0 32-0-0 gal per 100 gal water 0 32 0 0 2 27 6.1 5.2 4 23 13.1 11.2 6 18 21.5 18.2 8 14 31.5 26.2 10 9 43.7 35.6 12 5 59.0 47.2 14 0 78.7 61.2

Liquid Phosphate Products Fluid Phosphate Products and Characteristics

Phosphoric Acid Wet-Process Acid Black, brown, green (calcined) Contains many rock impurities Used in fertilizer industry Furnace, food-grade acid Clear No impurities Food and industrial processes

rthophosphoric Acid Examples Source Acid 1 Acid 2 Acid 3 Acid 4 P25 61 53.2 52.8 57 Mg 0.3 1.2 1.1 0.2 Fe23 0.35 0.5 1 0.32 Al23 0.18 0.4 0.5 0.16 F 0.3 0.4 2.1 0.1 Solids 0.5 0.1 0.1 Nil Visc.@100F 40 90 100 27 P/F 89 58 46 248 Source: Texas Gulf

Ammonium Polyphosphate Primary P source for much of fluid industry Many NPKS products made from APP Produced from ammonia, superphosphoric acid and water Generally equal agronomic performance as compared to solid fertilizers If applied at equal P rates in similar manner Potentially superior to solids if discontinuous bands result from with solid fertilizer band applications Contains most P as polyphosphate

H P H H P H H P H H P H H H H H H P H H H 2 H P H H H 2 H P H H H 2 H P P P P H H H H H H P H H Heat links phosphates by removing chemically bound water Heat comes from chemical reaction of reacting phosphoric acid with ammonia rtho Pyro Tri Higher

Flow Diagram For Ammonium Polyphosphate Production 10-34-0 & 11-37-0

Why Do We Want Polyphosphates? Not necessarily for agronomic reasons Manage sludge problems in fluid P products Polyphosphates sequester metal cation impurities in the product (especially Mg) to form relatively insoluble precipitates Provides superior storage qualities Increased analysis compared to orthophosphate Provides ability to include higher amounts of micronutrients in product (not Ca or Mg)

Hydrolysis f Polyphosphate To rthophosphate 24 Hour Polyphosphate Soil Temperature Hydrolysis (%) 41 F 30-40 % 68 F 50-60 % 95 F 80-90 % Chang and Racz, 1977 After application to soils, polyphosphate is quickly converted to orthophosphate by abundant soil enzymes Plants utilize orthophosphates

Percent Total N + P25 Content Effect of Poly Content and N:P25 Ratio n Solubility 49 47 70% Poly 45 43 45% Poly 41 39 37 0% Poly 35 0.28 0.29 0.30 0.31 0.32 0.33 0.34 N:P25 Weight Ratio

Why Do We Want Polyphosphates? Not necessarily for agronomic reasons Manage sludge problems in fluid P products Polyphosphates sequester metal cation impurities in the product (especially Mg) to form relatively insoluble precipitates Provides superior storage qualities Increased analysis compared to orthophosphate Provides ability to include higher amounts of micronutrients in product (not Ca ++ or Mg ++ )

15 F 50 F 75 F 110 F Source: Farmland Industries

Factors Impacting Precipitate Formation In Storage Amount of polyphosphate initially present Amount of impurities in super-acid ther impurities added to product Zinc Previous product sludge Temperature of stored product Length of time product stored

APP Storage and Housekeeping Suggestions Do not store longer than necessary Avoid storage in summer months Completely empty and clean tanks regularly Know the quality of remaining product before adding additional product to tanks Do not contaminate with products/impurities that may affect storage properties Never mingle any calcium or magnesium with product or mix plant Make sure that farmers and dealers lines, tanks and equipment are completely cleaned after use

Final maximum grade May Contain 31 Total Plant Food Units. N 25% of 31.25 X 31 7.75% N P 2 5 50% of 31.50 X 31 15.5% P25 K 2 25% of 31.25 X 31 7.75% K2 P25 100% 70 % Poly 10% 90% 20% 80% 30% 4 9 4 7 45 43 41 70% 50% 40% 39 37 35 33 31 29 27 60% 50% 60% 25 40% 23 70% 21 30% 80% 19 20% 90% 17 10% N 100% 15 15 17 15 10% 20% 30% 40% 50% 60% 70% 80% 90% 100 % K2 K2

Solution Grades For UAN Solution (28-32% N), Potassium Chloride (0-0-62) and Ammonium Polyphosphate (10-34-0, 11-37-0) System N:P 2 5 :K 2 Ratio Solution Analysis (32 F Saltout) N:P 2 5 :K 2 Ratio Solution Analysis (32 F Saltout)

Typical Characteristics f Several Fluid Fertilizer Products Source Analysis Density Salt-ut General Comments N-P 2 5 -K 2 Lbs/gal º F UAN 28-0-0 10.67 0 ~ 30% water UAN 32-0-0 11.06 28-32 ~ 20% water ATS 12-0-0-26S 11.04 <20 Fluid S Source of Choice APP 10-34-0 11.65 <10 11-37-0 grade also

Product Temperature 12 Temperature Effect n Fluid Fertilizers Density 11.8 11.6 11.4 28-0-0 32-0-0 10-34-0 11.2 11 10.8 10.6 10.4 20 30 40 50 60 70 80 90 100 Estimated Density (lb/gal) Estimated Density f Fluid Products Product Temperature 28-0-0 32-0-0 10-34-0 - - - lb / gal - - - 20 10.78 11.17 11.76 30 10.76 11.14 11.74 40 10.73 11.12 11.72 50 10.7 11.09 11.7 60 10.67 11.05 11.68 70 10.64 11.02 11.66 80 10.61 10.99 11.64 90 10.58 10.95 11.62 100 10.55 10.92 11.6

Salt-out Crystals form as solution cools; goes back in solution as product is warmed. Example; UAN Solution. Precipitate formation Non-crystalline mass forms which has much lower solubility than original ingredients in solution. Example; Improperly stored fluid phosphates Heat generator Generates chemical heat when producing solutions. Examples; ammonia + phosphoric acid; dilution of sulfuric acid) Fume generator Generates fumes which can be safety hazard. Example; UAN solution + Potassium carbonate ammonia fumes. 2NH 4 N 3 + K 2 C 3 2KN 3 + (NH 4 ) 2 C 3 UAN in Irrigation Water? 2NH 3 + H 2 C 3 H 2 + C 2

UAN in Irrigation Water? Urea N Volatilization? 2NH 4 N 3 + CaC 3 Ca(N 3 ) 2 + (NH 4 ) 2 C 3 2NH 3 + H 2 C 3 H 2 + C 2

Urea Calcium Nitrate Potassium Chloride Potassium Nitrate Magnesium Nitrate Sulfuric Acid Ammonium Nitrate Water Nitric Acid N-pHuric 15/49 N-pHuric 10/55 Phosphoric Acid (green) N-pHuric 28/27 Phosphoric Acid (white) Ammonium Thiosulfate Potassium Thiosulfate Calcium Thiosulfate Magnesium Thiosulfate Calcium-Ammonium Nitrate Solution Calcium Nitrate Solution Potassium Carbonate Solution Ammonia Aqua Ammonia Urea Solution Amm. Nitrate Solution UAN Solution Ammonium Sulfate Solution Ammonium Polyphosphate Solution Ammonium Chloride Solution Caution: This chart contains information based on the opinions of people in the fluid fertilizer industry. This information has been compiled as a general guide only. Neither the Fluid Fertilizer Foundation or contributors guarantee the accuracy of the information. Please refer to manufacturer/supplier product information and also Perform a small jar compatibility test prior to final mixing. 'Compatible', results in relatively stable mixture. FluidFertilizer.com 'Limited Compatibility', generally compatible within solubility limits. 'Very Limitied Compatibility', generally unsuitable mixtures. Anhydrous Ammonia 'Incompatible', unsuitable mixture and/or hazardous combination. Aqua Ammonia; 20-0-0 Significant heat generated. Urea Soln; 23-0-0 Ammonium Nitrate Soln; 20-0-0 Urea Ammonium Nitrate Soln; UAN 28/32-0-0 Ammonium Sulfate Soln; 8-0-0-9S Ammonium Polyphosphate Soln; 10-34-0 Ammonium Chloride Soln; 6-0-0-16Cl Ammonium Thiosulfate Soln; 12-0-0 26S Potassium Thiosulfate; KTS 0-0-25-17S Calcium Thiosulfate; CaTS, 6%Ca 10%S? Magnesium Thiosulfate; MgTS, 10%S 4%Mg? ` Calcium-Ammonium Nitrate Soln; 17-0-0 8.8Ca Calcium Nitrate Soln; 9% N, 11% Ca? Potassium Carbonate Soln; 0-0-32? N-pHuric 28/27; 28-0-0 9S N-pHuric 15/49; 15-0-0 16S N-pHuric 10/55; 10-0-0 18S Water ``` Nitric Acid Phosphoric Acid (white) Phosphoric Acid (green) Sulfuric Acid Urea; 46-0-0 Ammonium Nitrate; 34-0-0 Fluid Fertilizer Foundation 2805 Claflin Road, Suite 200 Manhattan, KS 66502 785-776-0273 FluidFertilizer@sbcglobal.net Calcium Nitrate; 15.5-0-0-19Ca Dry Dry Potassium Chloride; 0-0-62 Dry Dry Dry Potassium Nitrate; 13-0-46? Dry Dry Dry Dry Magnesium Nitrate; 10%N 9%Mg? Dry Dry Dry Dry Dry Dry

Thank You And Enjoy The Roundup Dale F. Leikam Fluid Fertilizer Foundation www.fluidfertilizer.com Dale.Leikam@sbcglobal.net 785-776-0273 785-770-0009