If you are an airport operator dealing with increasing drone sightings near your airspace — this project developed a complete detection-to-response architecture with demo software that identifies drone threats, categorizes risk levels, and provides real-time decision support to your operations team. The system was validated with HMI-based solutions integrated into the airport environment across a consortium of 7 partners from 3 countries.
Protect Airports from Rogue Drones with Detection, Tracking, and Response Systems
Imagine someone flies a drone near an airport — maybe by accident, maybe on purpose. Right now, airports struggle to even spot these drones, let alone decide what to do about them. ASPRID built a complete system that detects intruding drones, figures out how dangerous they are, and tells airport operators exactly what steps to take — from raising alerts to neutralizing the threat. Think of it like a smart alarm system, but instead of burglars, it watches for drones around runways and flight paths.
What needed solving
Unauthorized drones near airports cause flight delays, safety hazards, and massive economic losses — yet most airports have no integrated system to detect, assess, and respond to drone threats in real time. The problem is growing as consumer and commercial drone use explodes, and existing security systems were never designed to handle small, low-flying unmanned aircraft that can appear without warning.
What was built
ASPRID delivered a complete counter-drone architecture for airports covering detection, identification, tracking, and neutralization, along with a demo software platform built on open-source technology for validation. The project also produced risk analysis methods, alert level definitions, HMI-based operator tools, and a review of applicable regulations and emergency procedures.
Who needs this
Who can put this to work
If you are a security technology company looking to enter or expand in the counter-drone market — this project created an open-source demo platform covering the full chain from detection and identification to tracking and neutralization. The architecture was designed with operational alert levels and response protocols, giving you a validated blueprint to build commercial products on top of.
If you are an air traffic management provider struggling to integrate drone threat information into your existing operations — this project developed an alert system with defined threat levels and communication protocols specifically designed for ATM integration. The risk analysis and vulnerability assessment covers different threat types and their impact on ongoing airport and air traffic operations.
Quick answers
What would it cost to implement this system at our airport?
The project operated on a EUR 1,235,195 EU budget across 7 partners over 2 years, which covered research, architecture design, and demo software development. Commercial implementation costs would depend on airport size, existing infrastructure, and chosen detection/neutralization technologies. Contact the consortium for tailored pricing estimates.
Can this scale to large international airports with multiple runways?
The system was designed with an operationally oriented architecture that handles different threat types, alert levels, and response scenarios. The stepped approach — from detection through identification, tracking, and neutralization — is modular by design. Based on available project data, the concept was validated through HMI-based solutions and sensitivity studies, but scaling to full-size airport deployments would require further engineering.
What is the IP situation — can we license this technology?
The demo software was implemented through an open-source platform, which suggests core components may be freely available. However, specific detection algorithms, risk assessment methods, and integration know-how likely remain with the 7 consortium partners. Contact the coordinator INTA (Spain) to discuss licensing or collaboration terms.
Does this comply with current aviation security regulations?
The project specifically included review and assessment of regulations and procedures, covering both normal and emergency operations. This was built under the SESAR program, the EU's air traffic management modernization initiative, ensuring alignment with European aviation standards.
How long would deployment take at our facility?
The project ran for 24 months from November 2020 to November 2022, covering the full cycle from risk analysis to concept validation. Based on the demo software deliverable and validation activities completed, a focused deployment using existing results could potentially be faster, but would depend on your specific airport configuration and regulatory approvals.
Can this integrate with our existing airport security systems?
The architecture was specifically designed to integrate into the airport environment, with defined communication protocols, alert levels, and decision-making workflows. The project addressed interrelations between detection, ATM systems, and airport operations. The HMI-based solutions were built for end-user awareness and response coordination.
Who built it
The ASPRID consortium brings together 7 partners from Spain, France, and Italy — three major European aviation markets. Led by INTA, Spain's national aerospace research institute, the team includes 3 industry players and 3 research organizations, giving it a 43% industry ratio that signals practical orientation rather than pure academia. Two SMEs in the mix suggest specialized counter-drone or software capabilities. The absence of universities is notable — this was built by organizations closer to operational deployment than to theoretical research. For a business looking to adopt or build on these results, the mix of national aerospace authority, industry integrators, and specialized SMEs means the knowledge spans from regulation to implementation.
- INSTITUTO NACIONAL DE TECNICA AEROESPACIAL ESTEBAN TERRADASCoordinator · ES
- ENAIREparticipant · ES
- OFFICE NATIONAL D'ETUDES ET DE RECHERCHES AEROSPATIALESparticipant · FR
- C.I.R.A. CENTRO ITALIANO RICERCHE AEROSPAZIALI SCPAparticipant · IT
- AENA S.M.E. SAparticipant · ES
INTA (Instituto Nacional de Tecnica Aeroespacial) in Spain led this project — reach out to their SESAR/drone research division for collaboration or licensing inquiries.
Talk to the team behind this work.
Want an introduction to the ASPRID team? SciTransfer can connect you with the right people and provide a detailed technology brief tailored to your airport or security operation.