FASTNet belongs to working area WA5, addressing topic WA5.1 Fast-track innovation and uptake for capacity on demand and dynamic airspace and focusing on future data services and applications for airport and network. FASTNet proposes solutions that contribute to the evolution of ATM aviation into an integrated digital ecosystem characterised by distributed data services. This project aims at further enhancing the airports and network integration in tactical, pre-tactical and strategic planning through the development of the following two solutions: - Solution 1: Enhanced AOPs-NOP Tactical planning, with the inclusion of an “airport-to-airport(s)" AOP to AOP collaborative planning process and the use of artificial intelligence. The solution aims to extend the consolidated Demand and Capacity Balancing (DCB) process amongst airports and NM. In this context, it will include an “airport-to-airport(s)” collaborative planning process, prior to the “airport-to-network” process, for performance benefits of all connected airports and the network, such as improved punctuality, optimized use of ground and airspace capacity, thus leading to higher network efficiency. - Solution 2: AOP-NOP Strategic and pre-tactical planning. This solution aims to extend the timeframe of the AOP-NOP integration, focusing on the strategic (from months in advance until D-7) and pre-tactical (D-7; D-1) planning phases to ensure a smooth transition towards tactical phase with reduced adjustments. Both Solutions 1 and 2 involve the extension of state-of-the-art technologies to integrate new datasets available at local level, such as local restrictions, pre-tactical flight information and strategic local information in order to enrich DCB information and ensure efficient planning from the strategic phase.

CHARIOT will provide a design method and cognitive computing platform supporting a unified approach towards Privacy, Security and Safety (PSS) of IoT Systems including the following innovations: • A Privacy and security protection method building on state of the art Public Key Infrastructure (PKI) technologies to enable the coupling of a pre-programmed private key deployed to IoT devices with a corresponding private key on Blockchain system. • A Blockchain ledger in which categories of IoT physical, operational and functional changes are both recorded and affirmed/approved by a combination of a cognitive engine and private key hashing between the cognitive engine and IoT devices to authorise change and, likewise, invalidating any and all other changes be they malicious or otherwise. • A fog-based decentralised infrastructure for Firmware Security integrity checking that leverages a Blockchain ledger to enhance physical, operational and functional security of IoT systems, including actuation and deactivation. • An accompanying IoT Safety Supervision Engine providing a novel solution to the challenges of securing IoT data, devices and functionality in new and existing industry-specific safety critical systems. • A Cognitive System and Method with accompanying supervision, analytics and prediction models enabling high security and integrity of Industrials IoT. • New methods and tools for static code analysis of IoT devices, resulting in more efficient secure and safer IoT software development and V&V. Three Living Labs will demonstrate realistic and compelling heterogeneous solutions through industry reference implementations at representative scale, with the underlying goal of demonstrating that Secure, Privacy Mediated and Safety IoT imperatives are collectively met, in turn delivering a key stepping stone to the EU’s roadmap for the next generation IoT platforms and services.

The twenty-first century experiments a digital revolution that simplifies flight and cross-border. Digitalization contributes to leverage information sharing, reduce exploitation costs and improve travel experience, but it also blurs the lines between virtual world and reality with serious security matters. In the meanwhile airports face a daily challenge to ensure business continuity and passengers’ safety. SATIE adopts a holistic approach about threat prevention, detection, response and mitigation in the airports, while guaranteeing the protection of critical systems, sensitive data and passengers. Critical assets are usually protected against individual physical or cyber threats, but not against complex scenarios combining both categories of threats. In order to handle it, SATIE develops an interoperable toolkit which improves cyber-physical correlations, forensics investigations and dynamic impact assessment at airports. Having a shared situational awareness, security practitioners and airport managers collaborate more efficiently to the crisis resolution. Emergency procedures can be triggered simultaneously through an alerting system in order to reschedule airside/landside operations, notify first responders, cybersecurity and maintenance teams towards a fast recovery. Innovative solutions will be integrated on a simulation platform in order to improve their interoperability and to validate their efficiency. Three demonstrations will be conducted at different corners of Europe (Croatia, Italy and Greece) in order to evaluate the solutions in operational conditions (TRL≥7). Results and best practises will be widely disseminated to the scientific community, standardization bodies, security stakeholders and the aeronautic community. Finally, SATIE paves the way to a new generation of Security Operation Centre that will be included in a comprehensive airport security policy.