Unmanned aerial, ground, and maritime vehicles (UxVs) are at the core of PROACTIF. The project develops new platforms and technologies that make these systems affordable, energy-efficient, and secure. Instead of sending people into hazardous situations – such as disaster zones, wildfire areas, or critical infrastructure sites – UxVs can perform inspections, collect real-time data, and support first responders.

• Impact: Reduced operational costs, lower environmental footprint, and safer working conditions.
• Example: A drone fleet can arrive at a fire scene before human responders, delivering a 3D map of the site and helping firefighters make faster, safer decisions.

To achieve autonomy and advanced mission capabilities, PROACTIF develops nine modular building blocks. These include:

• 360° radar and infrared sensors for all-weather detection
• LiDAR and hyperspectral cameras for detailed mapping and object recognition
• AI-supported vision and imaging for autonomous perception
• Reconfigurable antennas for reliable communication
• Edge–cloud computing for real-time data processing
• Teaming and telecontrol systems for coordinated multi-UxV missions
• Localization, positioning and tracking for precise navigation even without GPS
• Cybersecurity frameworks to ensure safe and trusted operations
• Resilient communication and connectivity solutions to maintain robust links in demanding environments

Each building block is designed to be adaptable: they can be installed on different UxV types and tailored for various missions, from emergency management to infrastructure security.

• Impact: Accelerates the adoption of UxVs by making advanced capabilities available as “plug-and-play” modules.
• Example: The same infrared sensor can detect hotspots in a wildfire mission or monitor overheating equipment at a power substation.

Beyond components, PROACTIF delivers five next-generation unmanned platforms:

• New-generation UAVs – for emergency response and surveillance.
• Wheeled UGVs – for patrolling complex infrastructure environments.
• Mini track-based UGVs – for tight and challenging terrains.
• Off-road UGVs – agile robots for security and inspection missions.
• Unmanned surface vessels (USVs) – for offshore monitoring and maritime security.

All platforms can operate individually or in teams, coordinated from one control center.

• Impact: Demonstrates Europe’s ability to deploy multi-domain UxV fleets in real environments.
• Example: A ground robot can patrol a port at night, while a drone provides an aerial overview and a USV secures the nearby waters – all coordinated from one control center.

Security technologies are critical assets. Europe cannot depend on external suppliers in times of crisis. PROACTIF ensures that essential UxV technologies are developed and manufactured in Europe, securing supply chains and supporting Europe’s strategic autonomy.

• Impact: Guarantees availability of safety and security technologies regardless of global political or economic disruptions.
• Example: European-made radar and communication systems ensure that emergency services can operate even if global supply chains are blocked.

The project brings together 42 partners from 13 countries, including large companies, innovative SMEs, and research organisations. This unique collaboration covers the entire value chain – from microelectronics and sensors, to AI and robotics, to end-user needs.

• Impact: Builds strong industrial and research ecosystems, strengthens SMEs, and positions Europe as a global leader in unmanned technologies.
• Example: SMEs developing advanced sensors can directly collaborate with large telecom operators and drone manufacturers, accelerating innovation and creating new business opportunities.

From the start, PROACTIF is designed with practical application in mind. Every technology is linked to at least one real-world mission, ensuring immediate relevance. Demonstrations in emergency response and infrastructure protection pave the way for rapid adoption by industry and public authorities.

• Impact: Shortens the time from research to real deployment, creating faster return on investment and stronger market competitiveness.
• Example: A hyperspectral imaging system tested in search-and-rescue missions can be quickly adapted for applications in agriculture, logistics, or environmental monitoring.