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Mobile Irrigation Water Management System using eRAMS Cloud Computing Infrastructure Allan A. Andales Department of Soil and Crop Sciences Mazdak Arabi Department of Civil and Environmental Engineering
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Mobile Irrigation Water Management System Using eRAMS Cloud Computing Infrastructure

Apr 15, 2017

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Page 1: Mobile Irrigation Water Management System Using eRAMS Cloud Computing Infrastructure

Mobile Irrigation Water Management System using eRAMSCloud Computing Infrastructure

Allan A. AndalesDepartment of Soil and Crop Sciences

Mazdak ArabiDepartment of Civil and Environmental Engineering

Page 2: Mobile Irrigation Water Management System Using eRAMS Cloud Computing Infrastructure

Goal

To develop, pilot, and disseminate a scalable device‐independent mobile system for improved irrigation water management (IWM).

Page 3: Mobile Irrigation Water Management System Using eRAMS Cloud Computing Infrastructure

Irrigation Scheduler using cloud services

eRAMS = environmental Risk Assessment and Management SystemCSIP = Cloud Services Innovation PlatformCoAgMet = Colorado Agricultural Meteorological NetworkNCWCD = Northern Colorado Water Conservancy DistrictREST = representational state transfer distributed‐computing specifications for web servicesSSURGO = USDA Soil Survey Geographic DatabaseVM = virtual machine

Develop

Page 4: Mobile Irrigation Water Management System Using eRAMS Cloud Computing Infrastructure

Daily Water Balance of the Soil Profile:Dc = Dp + ETc – P – Irr + SRO

(if Dc < 0, then Dc = 0)

P = precipitation

Source: http://soils.usda.gov/education/resources/k_12/lessons/profile/

ETcIrrP

Dc

SRO

DP

Irr = irrigationETc = crop evapotranspirationSRO = surface runoffDc = current deficit (net Irr req’t.)

DP = deep percolation; if Dc < 0

L = lateral flow (0 net)

L

C

C = capillary rise (assumed 0)

Dp = previous deficit

Develop

Page 5: Mobile Irrigation Water Management System Using eRAMS Cloud Computing Infrastructure

ater  rrigation   cheduling for fficient ApplicationWISE

Develop

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Irrigation Schedule ‐ Graph

Graph Style

Print Chart

Develop

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Comparison of WISE and measured deficits during the 2010-2012 corn growing seasons (Greeley, CO)

Site – Year na RMSEb (mm) MBEc (mm) MAEd (mm) REe (%)

North 2010 16 13.0 -0.3 10.6 1.8

South 2010 16 16.4 -1.5 13.1 8.6

North 2011 16 12.1 -1.8 10.8 11.3

South 2011 16 15.7 -1.6 12.6 11.3

North 2012 15 22.9 -12.9 18.0 30.9

South 2012 15 13.4 -2.9 10.8 6.5

All 94 15.9 -3.4 12.6 13.6

an = number of measurements; bRMSE = root mean square error; cMBE = mean bias error;dMAE = mean absolute error; eRE = relative error.

Pilot

Page 8: Mobile Irrigation Water Management System Using eRAMS Cloud Computing Infrastructure

Calculated water balance components using actual and WISE‐recommended irrigations for center pivot irrigated corn at 

Greeley, CO in 2011 (13 June – 10 October).Water balance

componentWith actual irrigations

(mm)With recommended irrigations

(mm)

ETc (mm) 501 501

Gross Irr (mm) 511 372

P (mm) 125 125

DP + SRO (mm) 146 37

∆S (mm) 12 42

∆S = change in soil water storage in managed root zone (1050 mm)Scheduling using WISE:

• 27% savings in gross irrigation• 75% reduction in deep percolation (DP) and surface runoff (SRO)

Pilot

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Testing WISE for sugar beet irrigationPilot

Page 10: Mobile Irrigation Water Management System Using eRAMS Cloud Computing Infrastructure

Predicted soil water deficit compared to observed values for a sprinkler‐irrigated sugar beet field near Gilcrest, Colorado in 2013

RMSE = 16 mm

Pilot

Page 11: Mobile Irrigation Water Management System Using eRAMS Cloud Computing Infrastructure

Reduction of ETc by hail damage(Sugar beet example)

Before hail (7/29/2013) After hail (8/5/2013)

Pilot

Page 12: Mobile Irrigation Water Management System Using eRAMS Cloud Computing Infrastructure

Effect of hail damage on sugar beet ETc(WISE calculated vs. Remotely sensed)

Pilot

Page 13: Mobile Irrigation Water Management System Using eRAMS Cloud Computing Infrastructure

WISE Smart phone Apps

https://itunes.apple.com/app/id928128681

https://play.google.com/store/apps/details?id=com.erams.wise

Page 14: Mobile Irrigation Water Management System Using eRAMS Cloud Computing Infrastructure
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Demonstrations and Workshops• San Luis Valley Field Day – Center (7/30/2015)• NRCS Conservation Innovation Grant stakeholders meeting ‐ Fort Collins (3/23/2015)• Central Plains Irrigation Association Conference – Burlington (2/25/2014)• Soil Health Conference – Delta (1/24/2014)• Colorado Chapter of Soil and Water Conservation Society Annual Technical Conference ‐ Colorado 

Springs (11/12/2013)• Northern Colorado Water Conservancy District – Berthoud• Fall 2013 Crop Clinic – Sterling• Arkansas Valley• US Committee on Irrigation and Drainage – Denver• West Slope IWM specialists – Montrose• Agro‐engineering – San Luis Valley• Limited Irrigation and Crop Field Day – Iliff (9/5/2013)• Dry Bean Field Day – Lucerne (8/20/2013)• Upper Arkansas Water Conservancy District – Salida (4/26/2013)• Rocky Mountain Agribusiness Association (RMAA) Annual Convention and Trade Show – Denver 

(1/16/2013)

Disseminate

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For more information, go to http://wise.colostate.edu/or see:Andales, A.A., Bauder, T.A., and Arabi, M. 2014. A Mobile Irrigation Water Management System Using a Collaborative GIS and Weather Station Networks. In: Practical Applications of Agricultural System Models to Optimize the Use of Limited Water (Ahuja, L.R., Ma, L., Lascano, R.; Eds.), Advances in Agricultural Systems Modeling, Volume 5. ASA‐CSSA‐SSSA, Madison, Wisconsin, pp. 53‐84.

Bartlett, A.C., Andales A.A., Arabi, M., Bauder, T.A. 2015. A Smartphone App to Extend Use of a Cloud‐based Irrigation Scheduling Tool. Computers and Electronics in Agriculture 111:127‐130.

Disseminate

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Project Team• Allan Andales• Mazdak Arabi• Troy Bauder• Kyle Traff• Andy Bartlett

• Erik Wardle• Aymn Elhaddad• Joel Schneekloth• Perry Cabot

Funding provided by:• USDA‐NIFA• Colorado Water Conservation 

Board

• Colorado Agricultural Experiment Station

• Western Sugar Cooperative• Coca Cola