AGRIFARM-AI: Intelligent Management System for Climate-Resilient Smart Agriculture
Expected completion: December 2029 | Current phase: Architecture Design
Project Overview
AGRIFARM-AI is an ambitious research project developing an Intelligent Management System (IMS) for climate-resilient smart agriculture. The system integrates cutting-edge technologies to enable autonomous precision farming in controlled environments.
Key Innovation Areas
| Area | Technology | Impact |
|---|---|---|
| Communication | Hybrid VLC/RF Networks | 73% RF reduction, crop-safe |
| Decision Making | Multi-Agent RL (MARL) | Autonomous coordination |
| Intelligence | Agentic AI + LLM | Natural language farming advice |
| Privacy | Federated Learning | Cross-border knowledge sharing |
System Architecture
Core IMS Components
The system extends our proven IMS architecture (ACM MobiCom 2023) with four specialized agricultural agents:
π Agri-IHC (Intelligent Handover Controller)
- Function: Seamless VLC/RF network transitions
- Agricultural Adaptation: VLC-priority in grow zones; RF for mobile robots
- Target: <250ms handover latency
π Agri-ETL (Edge Tracking & Localization)
- Function: Federated learning-based positioning
- Agricultural Adaptation: Drone/robot tracking; worker localization via WiFi Doppler
- Target: <30cm accuracy in greenhouse
π§ Agri-ARS (Adaptive Resource Management)
- Function: ML-based resource allocation
- Agricultural Adaptation: Precision irrigation scheduling; sensor prioritization
- Target: 40% water savings, 30% fertilizer reduction
β‘ Agri-EHM (Energy Harvesting Management)
- Function: LED brightness optimization
- Agricultural Adaptation: Dual-purpose grow lights (PAR + VLC)
- Target: 25% energy cost reduction
15-Dimensional Agricultural State Space
Our MARL agents operate on an expanded state space validated with agronomic literature:
Environmental Variables (5)
SoilMoisture [0-100%] Volumetric water content
AirTemperature [15-40Β°C] Metabolic rate driver
RelativeHumidity [20-100%] Disease pressure indicator
SolarRadiation [0-1000 W/mΒ²] Photosynthesis driver
CO2Concentration [400-1000 ppm] CEA optimization
Crop State Variables (4)
GrowthStage [BBCH 0-9] Seedling β Harvest
LeafAreaIndex [0-8 mΒ²/mΒ²] Canopy development
CropStressIndex [0-1] NDVI-derived stress
DaysToHarvest [0-120] Countdown timer
Soil Variables (3)
SoilpH [4-9] Nutrient availability
ElectricalConductivity [0-8 dS/m] Salinity indicator
NPKLevel [Low/Med/High] Composite nutrient index
Network Variables (3)
RSSIcurrent [-90 to -30 dBm] Signal strength
APType [VLC=1, RF=0] Access point type
SensorLoad [0-100%] Network utilization
Climate Resilience Causal Chain
Complete pathway from forecast to validated outcome:
βββββββββββββββββββ
β 1. Data Collection β IoT sensors + ERA5 climate data
β (Real-time) β Every 15 minutes
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βΌ
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β 2. Prediction β SEACLID regional model + LLM
β (48-72 hours) β Heat stress, drought, pest risk
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βΌ
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β 3. Decision β LLM + RAG knowledge base
β Support β "Reduce irrigation 20% now"
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βΌ
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β 4. Action β IMS-ARS automated execution
β Execution β OR farmer SMS notification
ββββββββββ¬βββββββββ
βΌ
βββββββββββββββββββ
β 5. Outcome β Treatment vs. control plot
β Validation β Quantified yield improvement
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MARL Coordination Mechanism
Agent Interaction Model
Coordination: Centralized Training, Decentralized Execution (CTDE)
Value Decomposition: QMIX algorithm
Convergence: Nash equilibrium via fictitious play (<1000 episodes)
Reward Functions
| Agent | Reward Formula |
|---|---|
| IHC | r = RSSI_quality - 0.1 Γ handover_cost |
| ARS | r = yield_proxy - 0.05 Γ water_cost - 0.1 Γ energy_cost |
| EHM | r = energy_stored - 0.2 Γ light_impact_on_crop |
Federated Learning Framework (AgriFL)
Privacy-preserving cross-border agricultural intelligence:
Data Schema
| Sensor Type | Frequency | Volume/Season |
|---|---|---|
| Soil moisture | 15 min | 50 MB |
| Temperature/humidity | 15 min | 20 MB |
| Camera (pest/disease) | 1 hr | 500 MB |
| Weather station | 1 hr | 10 MB |
| Total | Β | ~580 MB |
Privacy Guarantees
- Differential Privacy: Ξ΅ β€ 0.5
- Secure Aggregation: No raw data leaves farm
- Cluster-based FL: Tropical (ASEAN) + Temperate (EU)
Validation Plan
Target KPIs
| Metric | Baseline | Target |
|---|---|---|
| Yield improvement | - | +15% under climate stress |
| Water use efficiency | - | +40% |
| Nitrogen use efficiency | - | +30% |
| Pest/disease reduction | - | -50% |
| Energy consumption | - | -25% |
Technology Stack
Hardware
- Edge Gateways: Jetson Nano (<50ms inference)
- VLC Platform: OpenVLC 1.3 + BeagleBone Black
- Sensors: Low-cost nodes (β¬50/unit vs. β¬200+ commercial)
Software
- MARL Framework: QMIX with PyTorch
- Foundation Model: LLaMA-3.1-8B (5M agricultural tokens)
- FL Framework: AgriFL with Byzantine-robust aggregation
- Climate APIs: ERA5, SEACLID
Development Timeline
2026 2027 2028 2029
β β β β
βββPhase 1βββΌββPhase 2βββΌββPhase 3βββΌββPhase 4βββ€
β β β β β
β Design β Integrationβ Validationβ Transfer β
β Farmer β MARL Train β 4 Trials β Open-Sourceβ
β Co-Design β Edge AI β Impact β Commercial β
βββββββββββββ΄ββββββββββββ΄βββββββββββ΄ββββββββββββ
Publications & Resources
Related Publications
- ACM MobiCom 2023: IMS Architecture for Hybrid VLC/RF
- LNEE 2024: Offline RL for Agricultural IoT (90.4% success)
- IEEE ICCC: VLC/WiFi MAC Optimization
Links
- π GitHub: https://github.com/kotobuki09/AGRIFARM-AI
- π Documentation: Under development