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Case Study – Field Monitoring with LoRaWAN Sensors & Drone Verification

Agriculture & Environment

How it works: From first sensor to fleet deployment - one platform to connect, simulate and control. Connect with WiseOS, control via MCP ROS2, validate in Digital Twins.

Summary

An agricultural operator managed large, distributed fields and wanted better insight into soil moisture and temperature, local weather conditions, and crop status in hard-to-reach areas.

WiseVision's stack enabled:

  • LoRaWAN sensors integrated into WiseOS
  • Drone flights coordinated via MCP ROS2 to verify anomalies
  • A simple Digital Twin of fields and zones for planning and analysis

Stack Used

  • WiseOS
  • MCP ROS2
  • Digital Twins
  • LoRaWAN
  • ROS 2

Key Benefits

  • Better targeted drone inspections
  • Understanding of field variability over time
  • Scalable pattern for new fields
  • Visual spatial context

Challenges

Wide, heterogeneous terrain

Limited connectivity for traditional IT infrastructure

Sensor data siloed away from drone operations

Difficult to decide when and where to send inspection flights

Solution

1. WiseOS – LoRaWAN Integration

WiseOS connected:

  • Soil and weather sensors via LoRaWAN into ROS 2 topics
  • Edge gateways at strategic locations
  • Telemetry stored in InfluxDB
  • Single view of field conditions over time

2. MCP ROS2 – Drone Verification

MCP ROS2 exposed tools for:

  • Listing zones and their sensor statuses
  • Requesting drone inspections over zones with anomalies
  • Retrieving recent measurements and flight results
  • Correlating sensor readings with aerial imagery

3. Digital Twin – Field Layout

A lean Digital Twin of field zones:

  • Basic terrain model and zone boundaries
  • Integration with WiseOS telemetry as overlays
  • Playback of drone paths and inspection results
  • Visual spatial context

Architecture Overview

  1. LoRaWAN sensors → network server → WiseOS bridge → ROS 2 topics
  2. Drones → ROS 2 → WiseOS / MCP ROS2
  3. InfluxDB → historical field condition data
  4. Digital Twin → field visualisation & scenario exploration

Outcomes

The approach typically leads to:

✅ Targeted Inspections

  • Better targeted drone inspections based on sensor data
  • Reduced unnecessary flights

✅ Better Understanding

  • Improved understanding of field variability over time
  • Data-driven agronomic decisions

✅ Scalability

  • A scalable pattern that can be extended to new fields and crops
  • Reusable infrastructure

✅ Visual Context

  • Visual, spatial context for agronomists and operations teams
  • Better communication across teams

Next Steps

Extensions include more advanced analytics, additional mobile platforms (ground robots, UGVs), and tighter integration with agronomic decision tools