Real-time monitoring of soil information in agricultural fields in Asia using Fieldserver Masaru Mizoguchi 1* Shoichi Mitsuishi 1 Tetsu Ito 1 Kazuo Oki.

Slides:



Advertisements
Similar presentations
National Agriculture and Food Research Organization National Agricultural Research Center Data Mining and GRID Research TeamTakuji Kiura, Atsushi Yamakawa,
Advertisements

Field monitoring and BIX standardization Takaharu Kameoka Laboratory of Bioinformation & Food Engineering Faculty of Bioresources, Mie University, JAPAN.
Sensor Asia Development Progress HONDA Kiyoshi Asian Institute of Technology / Mie University Aadit Shrestha, Rassarin Ch., NGUYEN Duy Hung Asian Institute.
Quantitative information on agriculture and water use Maurits Voogt Chief Competence Center.
Development of a rice growth model for early warning and decision support systems Agriculture and Food Research Organization (NARO) Japan National Agricultural.
Crop Modeling, The 2012 “Flash Drought” & Irrigation Demand Cameron Handyside University of Alabama in Huntsville Earth Systems Science Center September,
1 CODATA 2006 October 23-25, 2006, Beijing Cryospheric Data Assimilation An Integrated Approach for Generating Consistent Cryosphere Data Set Xin Li World.
/11 7th Agricultural Ontology Service Bangalore, India 1 Implementation of Semantic Network Dictionary System for Global Observation.
SPONSOR of 4R Nutrient Stewardship Program. The Nature Conservancy Teaming with the Florida agriculture industry to increase farmer profitability and.
Crop Science 6 Fall Crop Science 6 Fall 2004 What is Precision Agriculture?? The practice of managing specific field areas based on variability.
NCAR GIS Program : Bridging Gaps
1 G EOSS A nd M AHASRI E xperiment in T ropics (GaME-T) Taikan Oki and Shinjiro.
Application to the rice production in Southeast Asia Rice Production Research Program Agro-meteorology Division National Institute for Agro-Environmental.
APAN Natural Resource Area 1 17時14分 17時14分 Agriculture WG and e-Culture APAN Xian August 31, 2007 Masayuki Hirafuji.
Global Croplands Project Remote Sensing of Global Croplands and their Water Use for Food Security in the Twenty-first Century Prasad S. Thenkabail
Dr. Sarawut NINSAWAT GEO Grid Research Group/ITRI/AIST GEO Grid Research Group/ITRI/AIST Development of OGC Framework for Estimating Near Real-time Air.
Climatic changes and evaluation of their effects on agriculture in Asian monsoon region (CAAM) Project leader: Prof. Masaru Mizoguchi Department of Global.
Site-Specific Management Factors influencing plant growth Water Light Temperature Soil Compaction Drainage.
Climatic changes and evaluation of their effects on Agriculture in Asian Monsoon region (CAAM) Masaru Mizoguchi Department of Global Agricultural Science.
Field Monitoring Server in China China Agricultural University Chinese Academy of Agricultural Sciences National Agricultural Research center, Japan Dongxian.
The Field Server (the Sensor Net) Application to Information, Environmental Education, and International Communication with e-Culture Scheme.
What is Precision Agriculture?
AVHRR-NDVI satellite data is supplied by the Climate and Water Institute from the Argentinean Agriculture Research Institute (INTA). The NDVI is a normalized.
The use of the Mesonet in Oklahoma agriculture Clint Dotson Precision Ag April 16, 2007.
Geoscience WG update PRAGMA 25 Whey-Fone Tsai Yoshio Tanaka Sarawut Ninsawat Sornthep Vannarat.
A Statistical Comparison of Weather Stations in Carberry, Manitoba, Canada.
West Hills College Farm of the Future. West Hills College Farm of the Future Precision Agriculture – Lesson 5 What is Precision Agriculture?? Managing.
JCOMM Data Buoy Cooperation Panel October 16, 2006 National Data Buoy Center 2006 Review: A Year of Growth Paul F. Moersdorf, PhD, Director.
Operational Agriculture Monitoring System Using Remote Sensing Pei Zhiyuan Center for Remote Sensing Applacation, Ministry of Agriculture, China.
APAN/AG-WG Report AG Honolulu, 2008 –10 presentations Ontology and textmining:1 Sensor network:8 Global crop modelling:1 –Main topic Field monitoring.
An Application of Field Monitoring Data in Estimating Optimal Planting Dates of Cassava in Upper Paddy Field in Northeast Thailand Meeting Notes.
EPA’s Strength in Both GEOSS & ESIP; Environmental Health Decisionmaking January 10, 2008 George Gray, Ph.D. Assistant Administrator EPA Office of Research.
Luxor, Egypt, April 2013 Utilization of ICT for Enhanced Water Resources Management &Monitoring Networks at MWRI Ayman Ibrahim, General Director.
1 G EOSS A nd M AHASRI E xperiment in T ropics (GaME-T) Taikan Oki and Shinjiro.
Geosciences - Observations (Bob Wilhelmson) The geosciences in NSF’s world consists of atmospheric science, ocean science, and earth science Many of the.
Modern Era Retrospective-analysis for Research and Applications: Introduction to NASA’s Modern Era Retrospective-analysis for Research and Applications:
Understanding hydrologic changes: application of the VIC model Vimal Mishra Assistant Professor Indian Institute of Technology (IIT), Gandhinagar
--- Global Warming Front Monitoring System
WA-06-05:  Title: Initiate the creation of a coordination mechanism within GEO for global in-situ water observations, including ocean observations, and.
Precision Agriculture in Small Scale Farm System Yumiko Kanke.
J. Eric Madsen International Relations Specialist National Oceanic and Atmospheric Administration (NOAA) July, 2006 Global Earth Observation System of.
AMS 85 Dr. James R. Mahoney Assistant Secretary of Commerce for Oceans and Atmosphere | NOAA Assistant Administrator January 10, 2005 From Information.
CONTENTS: 1.Abstract. 2.Objective. 3.Block diagram. 4.Methodology. 5.Advantages and Disadvantages. 6.Applications. 7.Conclusion.
Satellites enabling the Global Earth Observation System of Systems (GEOSS) Michael Inggs, Department of Electrical Engineering, University of Cape Town,
The GEOSS Initiative Codata workshop, September 2005 Dhesigen Naidoo DST, South Africa.
1 Symposium on the 50 th Anniversary of Operational Numerical Weather Prediction Dr. Jack Hayes Director, Office of Science and Technology NOAA National.
CONTENTS: 1.Abstract. 2.Objective. 3.Block diagram. 4.Methodology. 5.Advantages and Disadvantages. 6.Applications. 7.Conclusion.
Japan’s Earth Observation Promotion Strategy and Japan EOS Promotion Program Contents 1. International and Domestic Movement about Earth Observation 2.
Corn Yield Comparison Between EPIC-View Simulated Yield And Observed Yield Monitor Data by Chad M. Boshart Oklahoma State University.
Toward Global Agricultural Cloud
AR Produce practical strategic and tactical guidance document on how to converge disparate systems to a higher degree of collaboration and interoperability.
NOAA Vision and Mission Goals Pedro J. Restrepo, Ph.D., P.E. Senior Scientist, Office of Hydrologic Development NOAA/NWS First Q2 Workshop (Q2 - "Next.
Autonomous site-specific irrigation control: engineering a future irrigation management system Dr Alison McCarthy, Professor Rod Smith and Dr Malcolm Gillies.
Japan-India Sensor Network Project Masayuki Hirafuji 1,2), Adinarayana Jagarlapudi 3), Seishi Ninomiya 1,2) 1) NARO National Agriculture and Food Research.
AT Remote Sensing by: Dr. Kiyoshi Honda Semester: August RS&GIS School of Advanced Technologies Asian Institute of Technology.
Center for Satellite Applications and Research (STAR) Review 09 – 11 March 2010 Image: MODIS Land Group, NASA GSFC March 2000 STAR Enterprise Synthesis.
Digitial Precision Agriculture and Location Intelligence Levente Klein IBM TJ Watson Research Center.
Real-time monitoring of SRI planting in Bogor using Field Server Masaru Mizoguchi 1 Budi I. Setiawan 2 1 Interfaculty Initiative in information Studies,
Statewide Curriculum. Statewide Curriculum Precision Agriculture – Lesson 5 What is Precision Agriculture?? Managing Each Crop Production Input – Fertilizer.
What is Precision Agriculture?
QUO VADIS PRECISION FARMING
Remote Sensing ET Online Tool Ted W. Sammis1, Junming Wang1, Vince P
Global Terrestrial Observing System
Precision Agriculture
Review of RRSF Implementation ICT and Geo-information
Name Of The College & Dept
■Auto-collection of data from oversea field
Automated Irrigation Control System
Intro to Precision Agriculture
Jemal Mohammed WMO RA I WORKSHOP ON AUTOMATIC WEATHER STATION (AWS) NETWORKS STRENGTHNING AND MODERNIZING OBSERVING SYSTEMS IN AFRICA,
Presentation transcript:

Real-time monitoring of soil information in agricultural fields in Asia using Fieldserver Masaru Mizoguchi 1* Shoichi Mitsuishi 1 Tetsu Ito 1 Kazuo Oki 1 Seishi Ninomiya 2 Masayuki Hirafuji 2 Tokihiro Fukatsu 2 Takuji Kiura 2 Kei Tanaka 2 Hitoshi Toritani 3 Hiromasa Hamada 4 Kiyoshi Honda 5 1 st Global workshop on High Resolution Digital Soil Sensing and Mapping February 5-8, 2008, Sydney-Australia

What is Fieldserver? - To see is to believe - New technologies developed by NARO –National Agriculture and Food Research Organization An on-site field monitoring system –that collects data on crop, climate and soils in agricultural fields –and sends the data –along with high-resolution digital photos –to a laboratory via the Internet Each FS communicates through a Wi-Fi network

Soil information system by Fieldserver We use ECH 2 O as a standard soil moisture sensor

Soil sensor ECH 2 O soil moisture sensors measure –volumetric water content accurately and economically –the dielectric permittivity of the soil Benefits include: –TDR-level performance at a fraction of the cost –Very low power requirement –Easy installation at any depth and orientation

Experimental site in a rain-fed field in Northeast Thailand –Soil moisture distribution changes dynamically according to land use

Monitoring data Meteorological data –air temperature –humidity –radiation –wind speed –Precipitation Soil data at 4, 8, 16, 32 cm –soil moisture content –ground temperature –electrical conductivity Image data of the site

Diagram of real-time soil information monitoring system Soil data flow –Soil – sensor – (data logger) – Fieldserver – –Router – Satellite – AIT – NARO – UT

Data storage (AIT – NARO – UT) Real-time monitoring data sent from a rain-fed field Meteorological data are obtained as a xml-table and graphs

An example of soil monitoring data Precipitation Accumulated precipitation Soil temperature Soil moisture Water logging To see is to believe!

Other sites SRI site in Bogor, IndonesiaSpinach field in Chiang Mai, Thailand Cabbage field in Tsumagoi, JapanGlacial lake in Himalaya, Nepal

Soil moisture in Cabbage filed changes according to rain and vegetation Before harvesting (6/23) Harvesting(7/18) Cultivating (7/24)Planting (7/26) Growing (7/26) To see is to believe!

Future of Fieldserver under National project

Group on Earth Observations (GEO) The Ten Year Implementation Plan for Global Earth Observation System of Systems (GEOSS) National Key Technology The Third Science and Technology Basic Plan Council for Science and Technology Policy (CSTP) Earth Observation Data Integration and Fusion Research Initiative ( EDITORIA ) Data Infrastructure and Interoperability Supporting Sound Decision Making Observation Convergence Year2010 Year2020 Year2030 Year2040 Year 単位 :0.1 度 月 Numerical Simulation & Prediction Model Outputs Socio-economic Data Geographical Information Graduate School of Engineering Graduate School of Agricultural and Life Sciences Ocean Research Institute Institute of Industrial Science Center for Climate System Research Center for Spatial Information Science

Application of agro-informatics to management of safe agricultural production Global observation data for agricultural production Tools for data fusion of agricultural information Collaboration between University and Institutes input Agricultural production supporting tool considering propagating information ( ) Collaboration system of DB and model ( ) Climate prediction by model Vegetation data by satellite Meteorological data History of agricultural crop management Data Integration and Fusion System Link to models Rice growth model Soil water prediction model Ecosystem model Early-warning system for cold- weather damage Check system of right crop for right land system Societal Benefits Information based on knowledge from scientific data and models ↓ Low-cost, high-quality and safe agricultural production How much pesticide should we spread? Most appropriate day Seeding, planting, fertilizing Soil moisture control Prediction of the best cultivation day future vegetation of cabbage Decision by agricultural information Future application Solution of food and environmental issues in the world Real-time observation data in agricultural field Tools for data collection

Conclusions - Fieldserver - is a new technology for spatial measurement of agricultural field has a great potential for soil Information monitoring waits for the development of powerful and useful sensors: –ECHO-TE (Soil moisture, Soil temperature, EC) –Nitro-sensors (NH 4, NO 3, NO 2, etc)? –GHG-sensors (CH 4, N 2 O, etc)? will bring precision agriculture a big chance under the National project related to the 10-year Implementation Plan for GEOSS

Thank you for your attention Masaru Mizoguchi Lab. of International Agro-Informatics Dept. of Global Agricultural Science University of Tokyo JAPAN