Smart researchfor the fields of tomorrow.

Six focus areas, one goal: turning field data into healthier, more sustainable harvests for farmers, from open fields and canals to estates and plant factories.

28
Center projects
20
Student theses
6
Focus areas
Open Field Technology

Research area

Open Field Technology

Open Field Technology brings precision agriculture to the fields farmers actually work. One architecture, sensors and controllers on site with cloud analysis and apps behind them, runs through our work on coastal sand irrigation, tractor guidance, bird pest control and crop and fruit assessment.

What we do

  • IoT and weather-aware sprinkler control for coastal sandy soils
  • GPS tracking and auto-steering for tillage
  • Computer-vision bird pest detection and deterrence
  • Non-destructive leaf and fruit assessment

Why it matters

  • 16.9% less water than farmers' own watering in a three-day sandy-soil trial
  • Sprinkler uniformity raised from 77.9% to 92.8% by correcting pressure and layout
  • Salak sugar content read without cutting the fruit (R² 0.946)

Built on

  • IoT Sensor Networks
  • Computer Vision
  • Machine Learning & AI
  • Weather & Climate Modeling
16.9%less water than farmers' own watering, automatic sprinklers on coastal sand4 center projects5 student theses
Irrigation Modernization

Research area

Irrigation Modernization

Irrigation performance does not come back with rehabilitation alone. Through SIPASI and our work at DI Sapon in Kulon Progo we bring irrigation operation onto data: forecasting canal discharge, modelling how gate moves shift the water, and capturing what experienced operators know.

What we do

  • SIPASI decision support for operation and maintenance
  • Deep-learning forecasts of canal discharge
  • Hydrodynamic modelling and automatic gate control
  • Knowledge management for irrigation operators

Why it matters

  • SIPASI in use in the Wadaslintang, Mrican and Way Sekampung irrigation areas
  • Primary canal discharge forecast with R² 0.974 for cropping-pattern planning
  • Operators' tacit gate decisions turned into a shareable dashboard

Built on

  • Smart Irrigation Control
  • IoT Sensor Networks
  • Weather & Climate Modeling
  • Decision Support Systems
3irrigation areas running SIPASI: Wadaslintang, Mrican and Way Sekampung2 center projects3 student theses
Smart Estate Technology

Research area

Smart Estate Technology

On a plantation, a small error in fertiliser or water repeats across thousands of palms. Our estate work turns historical records, field sensors and aerial imagery into decisions on what to apply, where, and when stress is on its way.

What we do

  • Fertiliser dose models from historical estate data
  • Real-time soil moisture on suboptimal soils
  • AI-based rapid testing for off-spec fertiliser
  • Environmental stress prediction from multispectral VTOL imagery

Why it matters

  • Fertiliser recommendations for six nutrients from the estate's own records
  • A water deficit seen before it shows in the palms
  • Fertiliser checked against its specification before it is spread

Built on

  • UAV Platforms
  • Geospatial Analytics
  • Multispectral Imaging
  • Decision Support Systems
4estate projects, from fertiliser planning to stress prediction4 center projects
Smart UAV Technology

Research area

Smart UAV Technology

Our UAV work has moved from pictures to physiology. Trinity Pro VTOL flights with multispectral cameras, matched to measurements on the ground, become maps of tree counts, crop health, stomatal conductance and where fertiliser is needed.

What we do

  • Automated tree counting from VTOL orthomosaics
  • Crop health and physiology mapping from multispectral imagery
  • Land management assessment per plot
  • Grid zoning for variable-rate fertilising

Why it matters

  • Rice stomatal conductance mapped from the air (R² 0.69)
  • 93 paddy plots rated for land management (F1 0.79)
  • Fertiliser-need maps ready for variable-rate application

Built on

  • UAV Platforms
  • Multispectral Imaging
  • Geospatial Analytics
  • Computer Vision
0.69R² mapping rice stomatal conductance from multispectral VTOL imagery2 center projects3 student theses
Indoor Farming Technology

Research area

Indoor Farming Technology

Indoor farming is our most active area. It starts with the growing environment, VPD-based greenhouse control, edge computing, lighting and aeroponics, and is moving towards reading the plant directly through its gas exchange, impedance, spectrum and electrical signals.

What we do

  • VPD-based climate monitoring and control
  • Plant factory and aeroponic production systems
  • Plant-based sensing: impedance, low-cost spectroscopy, electrical signals
  • Machine learning and computer vision for physiology and disorders

Why it matters

  • Lettuce photosynthesis predicted from monitoring data (R² 0.985)
  • A low-cost spectral sensor matched to a reference spectrometer (R² up to 0.974)
  • A low-cost smart greenhouse running with the Taruna Tani farmer group in Sriharjo

Built on

  • Climate Control Systems
  • Hyperspectral Sensing
  • EIS Plant Sensing
  • IoT Sensor Networks
0.985R² of the random forest model of lettuce photosynthesis14 center projects6 student theses
Agro-Informatics

Research area

Agro-Informatics

Agro-Informatics connects the rest of our work to the people who use it: enterprise and knowledge systems for cooperatives and communities, an ERP for the plant factory, blockchain traceability for rice and IoT early warning for village industry.

What we do

  • Enterprise and decision support systems for cooperatives
  • Knowledge management systems
  • Blockchain traceability for supply chains
  • IoT early-warning and monitoring dashboards

Why it matters

  • Rice traced from farmer to consumer on a blockchain (SUS 87.8, A+)
  • Plant factory operations run from one ERP
  • An air quality early warning for village tofu makers

Built on

  • Machine Learning & AI
  • Decision Support Systems
  • Geospatial Analytics
  • Computer Vision
87.8usability score (SUS, grade A+) of the rice traceability system2 center projects3 student theses

Roadmap 2012–2030

From foundationsto full ecosystems.

Six stages, supported throughout by research on environmental monitoring and control and on knowledge and information management.

Done2012–2024Foundation of smart agriculture systems
  • IoT in smart agriculture
  • VPD monitoring for plant growth
  • Edge computing analytics
Done2025Optimisation of control and automation
  • Smart grow-light systems
  • CFD-based indoor farming
  • Machine-learning plant growth models
Now2026Robotics and advanced sensing
  • AI-powered robotics
  • Biosensing engineering
  • Precision plantation management
Now2027AI and big data for decision support
  • AI-powered decision support
  • Blockchain traceability for agriculture
  • Big data analytics
Next2028Autonomous, self-optimising systems
  • AI-driven food production
  • Self-adaptive irrigation networks
  • AI-based pest and disease control
Next2029–2030Full-scale smart agriculture ecosystems
  • Fully automated smart farming
  • Climate-resilient farming with AI
  • AI-driven yield prediction

Let's grow the futureof farming together.

Partner with our researchers, pilot smartagri on your fields, or join the team building data-driven agriculture.