Variable rate irrigation to manage vineyard variability in California. Brent Sams, Luis Sanchez, Maegan Salinas, Nick Dokoozlian

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Variable rate irrigation to manage vineyard variability in California Brent Sams, Luis Sanchez, Maegan Salinas, Nick Dokoozlian

U.S. wine production (million gallons) 900 850 800 750 700 650 600 550 500 450 400 California Wine Institute

Vineyard development and management Vineyards are developed uniformly: Variety Rootstock Planting distances Irrigation layout Vineyards are managed uniformly: Pruning Leaf removal Irrigation Fruit thinning Fertilization Harvesting

Vineyard development and management However soils are variable: Topography Aspect Elevation Slope Chemical and physical properties Texture Water holding capacity ph Nutrient content

How can we manage vineyard variability? Through Precision Viticulture: Management to optimize vineyard performance Responding to intra-field variability Maximizing grape yield and quality Minimizing environmental footprint

To be replaced with video at final presentation (exceeds file upload size) Yield Monitor Yield Mapping

From point to surface data

Significant Correlations with Yield per Acre Parameter Correlation (r 2 ) Subsurface K + Soil rooting depth Subsurface ph Subsurface P Subsurface organic matter Subsurface K/Mg ratio 0.903 0.774 0.805 0.805 0.882 0.890 Significant Correlations with Grape Quality Parameter Correlation (r 2 ) Soil rooting depth Surface CA Subsurface CA / Mg ratio Surface CEC 0.673 0.506 0.510 0.554

Variable Rate Irrigation Study Objective: Develop and operate a proof-of-concept VRI system prototype and validate it by: Decreasing vineyard variability Optimizing fruit yield and quality Increasing water use efficiency.

Modular vs. Zonal Irrigation

Zonal Irrigation Soil 2 Soil 1

Zonal Irrigation Irrigation management zone 1 Irrigation management zone 1 VF PUMP

Zonal Irrigation Irrigation management zone 1 Irrigation management zone 1 Soil 3 VF PUMP

Modular Irrigation Soil 3 Soil 2 Soil 1

Modular Irrigation Soil 3 Soil 2 Soil 1 VF PUMP

Modular Irrigation Soil 3 Soil 2 Soil 1 VF PUMP

Modular Irrigation Soil 3 Soil 2 Soil 1 VF PUMP

Modular Irrigation Wine Program A Wine Program B VF PUMP

Experiment location Colony Ranch

2012 yield map Colony 2A Cabernet Sauvignon Wilton, California 31.5 acres 5 x 11 feet 17-year old Teleki 5C Hand-pruned Drip-irrigated San Joaquin silt loam (~ 75%) San Joaquin-Galt complex (~ 25%) 20 inches annual rainfall Highly variable Yield (t/ac) High : 14 Low : 0

Field layout Landsat data Yield (t/ac) High : 14 Variable rate Low : 0 Block area: 31.5 acres VRI & CI: 10.0 acres Field average: 9.17 tons/acre Conventional For each high density variable: 140 data points in VR Irrigation 140 data points in Conventional Irrigation

System design IBM First Of A Kind (FOAK) program Variable flow submersible pump Underground piping to experiment Main and sub-main valves Flow meters Power/electronics/central computer Double-hose irrigation tubing Solenoid and check valves

General layout 5 DL 4 DL 5 DL 4 DL 5 DL 4 DL Node-Solenoid, Check Valve, Tee Flow meter Flushing solenoid valve 5 DL 4 DL 5 DL Sub-main Valves 4 DL 5 DL 4 DL 5 DL 4 DL

Power layout 14/2 stranded wire 12/2 solid wire 5 DL 4 DL 5 DL 4 DL 5 DL 4 DL 5 DL 4 DL 5 DL Master 4 DL 5 DL 4 DL 5 DL 4 DL

Communication layout 5 DL 18 gauge stranded wire 4 DL 5 DL 4 DL 5 DL 4 DL 5 DL 4 DL 5 DL MASTER 4 DL 5 DL 4 DL 5 DL 4 DL 18 gauge stranded wire

System design solenoid valve check valve emitters Tubing, 0.69 ID 4 emitters Check valve 2 Power loc tee 2 Solenoid valve Power loc adapter emitters

System design

Control board 480 VAC Power distribution box Control box UPS box Cell Antenna 115 VAC Lightning arrestor 12 VDC to 14 subnets Communications to South and North

Irrigation zone control Computer network with single master coordinating operation Master-slave messaging protocol based on MODBUS High speed over the 3,000+ feet cable PC and master control are accessed remotely through cell link to load irrigation schedules

Irrigation scheduling METRIC (Mapping evapotranspiration at high resolution and internalized calibration) ET residual of surface energy balance Rn + LE + G + H = 0 Inputs Landsat (visible & infrared) CIMIS weather data Outputs ETc Kc (f/ndvi) Watering of each zone: ETc = ETref * Kc * Km Rn H G LE

2013 irrigation management 2012 yield tons/acre (average = 8.9) # of irrigation zones Irrigation management factor May 4 weeks June 4 weeks July - Oct 16 weeks < 8.9 76 1.2 0.5 0.7 > 8.9 64 no irrigation 0.5 0.7

2014 irrigation management # of irrigation zones Irrigation management factor May 4 weeks June 4 weeks July - Oct 16 weeks 140 0.0-0.7 0.5 0.8 0.6 1.0

Vine performance data High density: Yield NDVI Fruit composition 43 analytes GQI Wine composition 45 analytes Sensory Yield (t/ac) High : 14 Low : 0

VRI Yield - Normalized 2012 Yield: Mean = 8.9 t/ac 6.1 12.4 t/ac Range = 6.3 2013 Yield: Mean = 7.7 t/ac 6.3 8.9 t/ac Range = 2.6 2014 Yield: Mean = 10.2 t/ac 6.2 14.0 t/ac Range = 7.8

CI Yield - Normalized 2012 Yield: Mean = 8.9 t/ac 6.4 10.9 t/ac Range = 4.5 2013 Yield: Mean = 7.41 t/ac 5.8 10.7 t/ac Range = 4.9 2014 Yield: Mean = 8.7 t/ac 6.1 14.3 t/ac Range = 8.2

2013 applied water Scheduled Water (hours/year) 700 600 500 400 300 200 100 Variable rate average Conventional average Scheduled 2013 Variable Rate and Conventional Irrigation Areas 0 20 9 50 7 59 41 69 80 52 16 26 11 1 5 53 83 55 54 23 4 3 124 39 38 47 100 71 81 78 88 73 131 75 111 84 122 85 108 129 118 103 113 104 133 117 115 135 Conv Irrigation Zone

2014 applied water Scheduled Water (hours/year) 700 600 500 400 300 200 100 Variable rate average Conventional average Scheduled 2014 Variable Rate and Conventional Irrigation Areas 0 37 36 17 7 35 49 55 41 59 51 19 43 53 22 20 14 91 92 13 2 47 38 28 140 77 64 78 61 71 87 30 84 96 95 99 132 101 102 123 110 108 125 105 115 130 117 129 CI Irrigation Zone

2013 water use efficiency 30 Water Use Efficiency (kg mm -1 ) 28 26 24 22 20 18 16 14 12 R² = 0.5012 Variable rate average Conventional average 10 360 380 400 420 440 460 Growing Season Irrigation + Precipitation (mm)

2014 water use efficiency 30 Water Use Efficiency (kg mm -1 ) 28 26 24 22 20 18 16 14 12 R² = 0.1373 Variable rate average Conventional average 10 250 300 350 400 450 500 550 Growing Season Irrigation + Precipitation (mm)

Non-spatial statistics Irrigation Variable rate Conventional Yield class Leaf Area Index clusters per vine cluster weight (g) berry weight (g) high 6.0 a 147.7 a 76.0 a 0.9 ab medium 5.3 a 127.7 a 84.7 a 0.8 b low 5.2 a 127.7 a 71.6 a 0.7 c high 6.1 a 151.6 a 81.9 a 1.0 a medium 6.1 a 155.6 a 75.7 a 0.8 b low 6.1 a 130.2 a 66.1 a 0.7 bc Different letters are significantly different at p<0.05

Spatial statistics 1. MCD, Mean Correlation Distance 2. Cambardella Index Measures of spatial dependence and structure Variable Rate Irrigation: Decreased spatial structure in 2013 Increased spatial structure in 2014

Fruit Yield and Quality GQI Yield (tons/acre) 12 10 8 6 4 2 0 90 80 70 60 50 40 30 20 10 0 a VRI CI a a a b a b 2012 2013 2014 VRI CI a a a a 2012 2013 2014 b

2013 Wine Composition Irrigation Conventional Variable rate A420 4.2 b 4.7 a A520 8.0 b 9.3 a MALC 14.4 b 15.1 a Malic acid 2,062.8 a 1,806.5 b IBMP 1.8 a 1.2 b Pigmented_polymers 27.8 b 33.5 a Polymeric_tannins 611.6 b 761.5 a Quercetin glycosides 2.7 b 4.1 a Dimethyl_sulfide 12.8 a 11.3 b

First season: Conclusions Successful VRI system prototype implementation VRI decreased vineyard variability VRI increased water use efficiency Second season: Increased yield in low yielding vines Maintained high water use efficiency Opportunity for commercial development

E&J Gallo Winery Viticulture Lab: Luis Sanchez, Maegan Salinas, Erin Troxell, Shijian Zhuang, Nona Ebisuda Chemistry: Hui Chong, Bruce Pan, Natalia Loscos Research Winery: David Santino, Bianca Wiens, Steven Kukesh GIS-CE: Martin Mendez, Andrew Morgan Nick Dokoozlian Acknowledgments IBM (TJ Watson Lab & Data Center Services) TJ Watson Lab, NY: Levente Klein, Nigel Hinds, Hendrik Hamann Data Services, CA: Alan Claassen, David Lew James Taylor, New Castle University, UK Ernie and Jeff Dosio, Pacific Agrilands Scott Britten and Associates, Bennett & Bennett