Protecting our territories, preserving our livestock.
Discover how AlphaProtect offers an innovative and collaborative response to the growing challenges of predation in France.
Discover the TechnologyIntroduction: A Major Challenge for France
Context and Issue
**Predation by large predators** (wolves, bears, foxes, wild boars) represents a growing threat to farmers and breeders in rural and peri-urban areas of France. Beyond the **direct financial losses** to herds (sheep, cattle, poultry) and crops, this situation creates **considerable psychological stress** for professionals, impacting their well-being and productivity.
Individual protection methods are showing their limits. In response, the AlphaProtect project proposes an **innovative and collective approach**.
AlphaProtect System Objectives
- Implement an intelligent system combining **early detection**, **behavioral analysis**, and **automated reaction** to deter predators.
- Effectively protect herds and crops while minimizing constant human intervention.
- Develop a **robust, autonomous, and scalable** solution adapting to the specificities of the territory.
- Promote a **collaborative and mutualized** approach for consistent territorial protection.
The Predation Problem: Impacts and Realities
Types of Predators and Their Specific Impacts
- Wild Boars: Mainly responsible for significant damage to crops (corn, wheat, etc.) and gardens. Their presence is also notable in peri-urban areas where they scavenge through trash.
- Wolves: Primary targets: sheep, but also cattle. Their attacks are often characterized by specific injuries and herd disorganization. Their presence is increasingly confirmed in Burgundy-Franche-Comté and throughout France.
- Bears: Although less frequent in some departments, their potential for destruction is high, also targeting sheep and cattle.
- Foxes: Mainly threaten poultry (chickens, ducks) in backyards.
- Others: Waterfowl can damage certain aquatic crops, and ill-intentioned human intrusions (poaching, theft), though less frequent, require surveillance.
Financial and Social Consequences
- Direct financial losses: Compensation is sometimes insufficient to cover the value of killed or injured animals, not to mention the loss of genetics.
- Stress and anxiety: Repeated attacks create a climate of insecurity and psychological distress for breeders, impacting their quality of life.
- Indirect losses: Missing or dispersed animals, increased monitoring time, loss of productivity in traumatized animals, veterinary fees.
Our Strategic Vision: Collective Territorial Protection
The fundamental principle of AlphaProtect is based on the conviction that **individual protection is insufficient**. Only **collective and shared protection at a territorial scale** can guarantee long-term effectiveness.
An Essential Collaborative Approach
- Displacement Effect: Without collective protection, an unequipped or less-protected breeder becomes a priority target, moving the problem rather than solving it. AlphaProtect aims for uniform protection.
- Economies of Scale: Sharing the costs of acquisition, installation, and maintenance makes the solution accessible to more professionals.
- Increased Technical Efficiency: Sharing detection data across the sector feeds the system's Artificial Intelligence, refining recognition models and deterrence strategies.
- Territorial Cohesion: By deploying across a geographic sector (e.g., a community of towns), AlphaProtect creates a true **"virtual barrier"** that is intelligent and dynamic.
Key Players and Essential Collaborations
The success of AlphaProtect relies on close collaboration with local and national institutions.
Ministry of Agriculture and Food Sovereignty
- National coordination and steering of the protection strategy.
- Establishment of the regulatory framework for technology use.
- Implementation of funding mechanisms and subsidies.
French Office for Biodiversity (OFB)
- Technical expertise in wildlife and predator behavior.
- Scientific monitoring of system effectiveness and biodiversity impact.
- Dialogue and mediation with nature protection associations.
Departmental Livestock Facilities (EDE) / GDS
- Technical support and health monitoring of herds.
- Reporting crucial field information and feedback on system effectiveness.
Chambers of Agriculture
- Territorial animation and coordination of local actors.
- Economic advice and decision support for farms.
- Training and awareness of digital tools for breeders.
Technical Specifications: The Material Heart of the System
Advanced Detection Sensors
- PIR Sensors (Passive Infrared): Motion detection based on heat variations. Essential for wide-spectrum early warning.
- Thermal Cameras: Detecting predators by their thermal signature, including in total darkness or poor visibility (fog, rain).
- Acoustic Sensors: Detection and analysis of predator-specific sounds (wolf howls, boar grunts, etc.).
- Olfactory Sensors (In Development): Detection of pheromones and territorial markings.
Edge Processing Units: On-Site Intelligence
- Main Controller (Local Hub): Central unit based on **Raspberry Pi 4** or equivalent. Manages sensor data fusion and coordinates local deterrence.
- Satellite Microcontrollers: Remote modules like **ESP32-S3**. Manage data acquisition from individual sensors, optimized for low power.
Adaptive Deterrence Systems
- Sound Repellents: Use of animal distress calls or predators (coyote cries) and ultrasound.
- Light Systems: High-power LEDs and strobes with varied sequences to disorient predators without habituation.
- Olfactory Diffusers: Natural, non-harmful repellents (citronella, cayenne pepper, garlic extracts) diffused by misters.
Software Specifications: The Brain of the System
Artificial Intelligence at the Core
- Recognition Models: Using **TensorFlow Lite** or **PyTorch Mobile** for fast inference on Edge units. Trained to distinguish livestock from predators.
- Decision Algorithms: Complex decision logic based on **multi-sensor data fusion**. Calculates a dynamic "threat score."
User Interface
- Mobile App: Real-time dashboard, interactive mapping of protected zones, and push notifications for critical events.
- Web Interface: Built with **React.js** and **Node.js** for data management, API communication, and advanced data visualization.
Network Architecture and Communication
- Local Communication: LoRaWAN Class A. Ideal for long distances and low power consumption in rural areas.
- Secondary Communication: WiFi for configuration, 4G/5G for video alerts fallback, and Bluetooth LE for mobile app connectivity.
- Cloud Infrastructure: Using **AWS IoT Core** or **Azure IoT Hub** for secure device management and big data analytics.
Power and Energy Autonomy
- Photovoltaic System: High-efficiency monocrystalline solar panels with MPPT regulators.
- Robust Storage: **LiFePO4 (Lithium Iron Phosphate)** batteries with integrated BMS for long life and safety.
- Smart Energy Management: Adaptable consumption modes (Normal, Sleep, Alert).
Testing and Validation Protocols
The AlphaProtect system undergoes rigorous testing to ensure reliability.
- Unit Testing: Sensor precision and AI model performance evaluation.
- Integration Testing: Simulated scenarios (wolf approach, pack movement, false alerts).
- Field Testing (Pilot Phase): 6-month deployment on 3 to 5 representative farms.
Key Figures and Challenges in France
- Total Cost of Predation in France: Approximately **30 million euros** spent in 2020 on compensation and protection measures.
- Estimated Number of Wolves in France: About **580 wolves**, with a growing presence in the South-East and incursions in regions like Nièvre.
- Number of Attacks on Herds: In 2020, **3,730 wolf attacks** were recorded in France, primarily impacting sheep farming.
- Crop Damage: Wild boars cause tens of millions of euros in damage annually to crops and urban gardens.
Conclusion and Future Outlook
AlphaProtect offers a revolutionary solution to predation. By relying on **AI**, **multi-source sensors**, and a **territorial collective approach**, the system aims for sustainable and shared protection.
AlphaProtect is more than just technology; it is a commitment to the **sustainable coexistence** between livestock, agriculture, and wildlife.