Status: Active Development Latest Update: July 2025 - First Thermal Flight

Drone

Overview

Building autonomous drone systems for wildlife management, focusing on thermal imaging and edge ML for animal detection and tracking.

Current Application: Autonomous wild hog detection using thermal imaging and edge classification.

Tech Stack: Python • ROS • Gazebo • OpenCV • TensorFlow • Ardupilot • Pixhawk • Raspberry Pi • NVIDIA Jetson Orin Nano • FLIR Boson

Problem

Wildlife management (particularly wild hog control) requires extensive manual surveillance across large properties. Traditional methods are time-intensive and provide limited coverage.

Solution

Autonomous drone system that:

  • Flies pre-programmed search patterns over target areas
  • Captures thermal imagery during flight
  • Runs edge ML classification to identify animals
  • Sends real-time notifications when target animals detected
  • Tracks animal movement patterns over multiple flights

Secondary capabilities:

  • Precision landing system using depth camera and QR code detection
  • Long-range operation (60km theoretical, 2 miles tested)
  • 45+ minute flight time
  • Night operations with LED indicators

Current Status

Operational:

  • Autonomous GPS waypoint navigation
  • 2 mile range tested (60km theoretical with CUAV P8 radios)
  • 45 minute flight time
  • Basic offboard control via ROS
  • Video transmission system (WFB-NG)

In Development:

  • Precision landing algorithm (Realsense D435i depth camera + QR codes)
  • Thermal image classification model
  • Ground station integration (Pelican case portable system)
  • LED control and sequencing for night ops

Next Milestone (2025):

  • Flight test precision landing system
  • Thermal camera integration and range testing
  • Failsafe and guardrail validation

Hardware

Airframe: HolyBro X500 (10” frame) with 12” props Flight Controller: Pixhawk 6x (PX4) Compute: Raspberry Pi 4 + NVIDIA Jetson Orin Nano Cameras: Intel Realsense D435i (landing), FLIR Boson (thermal) Comms: CUAV P8 radios (60km), Alpha WiFi antenna (video TX) Power: Custom 3D printed battery holder

Technical Challenges

Solved:

  • Long-range telemetry and video streaming
  • Power distribution for multiple high-draw peripherals
  • ROS/PX4 integration for offboard control

Active:

  • Ground loop issues with PDB-powered peripherals
  • Gazebo sensor simulation for precision landing algorithm development
  • Thermal image dataset acquisition for training

Sub-Projects

Ground Station

Custom Pelican case ground station with integrated computer, battery, radio, and display. Designed for rapid deployment and portable operations.

Thermal Classification

Edge ML system for real-time animal classification from thermal imagery. Training dataset being collected through manual flight operations.

Roadmap

Roadmap

Phase II (Current): Precision landing, LED control, video streaming, offboard control guardrails

Phase III (Next): Thermal camera integration, image classification, notification system

Future Applications

Swarms: Multi-drone coordination with self-assembling “Drone Area Network (DAN)” communication protocol

Heavy Lift: Long-range cargo transport (moonshot: shipping container transport, 150 mile range)

Magnetotellurics: Drone swarm-based resource exploration for mining/energy industries

Updated: