Background and Drivers
The Aerospace industry drives the design, manufacturing, and operation of vehicles that traverse both atmospheric and space realms, playing a vital role in global transportation, communication, defence, and the exploration of our universe. Data communication is the invisible network empowering every facet of modern aerospace operations. There is a growing impetus to embed data communication systems used by the aerospace industry into a larger, more encompassing version of the Internet. This drive is fuelled by the need for seamless, real-time data exchange across diverse platforms—from aircraft and satellites to ground control stations and remote users.
Integrating these specialized communication networks into a broader Internet promises enhanced interoperability, increased efficiency through shared infrastructure, while raising the potential for innovative services leveraging the vast capabilities of a globally connected network. This evolution aims to create a more robust, resilient, and interconnected aerospace ecosystem capable of supporting future advancements in air travel, space exploration, and ubiquitous connectivity.
Key examples include:
Objectives
The AEROSPACE WG is dedicated to analysing the role and impact of data communication within the aerospace industry, with the goal of driving safety, efficiency, and innovation. The aerospace industry faces significant technical challenges in data communications due to extreme environments, critical safety requirements, and the sheer volume of data involved. These include:
Cybersecurity
Reliability and Resilience
Data Management and Processing
Advancements in Network Technologies
Themes and Activities
The Aerospace WG will undertake the following three themes, subject to revision, including addition of new themes and activities, in a future re-chartering of the WG.
This theme focuses on understanding problem statements and related use cases to define technical challenges for innovative services and business models within the aerospace ecosystem, driven by extreme conditions and critical safety requirements. Such new services and business models may impact various areas, including:
Improvement of Aerospace Operations:
- Decentralized Aerospace Traffic Management: Envisioning a future where aircraft make more autonomous decisions, coordinating with each other and ground systems dynamically to optimize flight paths, reduce delays, and decrease fuel consumption.
- Emergency Coordination: Utilizing data communications for rapid and efficient coordination between air traffic control, pilots, and emergency
Aerospace as Datacom Infrastructure:
- Mobile Communications Services: Providing seamless global connectivity via flying platforms based on aircraft and spacecraft.
- Global Secure Communications: Supporting government and military operations, even in hostile environments, through secure data transmission and encryption techniques.
- Data Muling: Aerospace vehicles physically carrying stored data between remote locations and exchange points to create low-cost communication
- Fediverse: Hosting exchange points in space to enable thousands of users to interact in social networks without traffic flowing on terrestrial
Aerospace as Base for Value-Added Services:
- Sensing Services: Enabling remote monitoring of assets and environmental conditions (e.g., oil rigs, forests, agricultural fields) and supporting rapid deployment of IoT devices in disaster zones for real-time data collection.
- Earth Observation Services: Providing high-resolution imagery for monitoring weather patterns, optimizing agricultural practices, and environmental monitoring (e.g., deforestation, pollution, climate change).
- Cooperative Perception Services: Supporting autonomous vehicles with precise contextual awareness data through accurate object detection, especially in low sensorial environments.
- Data Processing Services: Leveraging aircraft and spacecraft with enhanced onboard connectivity and next-generation digital services harnessing AI to enable new levels of service execution, facilitating operations and the creation of new digital services.
For this, the following activities are planned as a recurring effort:
This theme involves a comprehensive and systematic approach to analyzing the technical requirements for novel aerospace services, given the sector’s inherent complexity and safety-critical nature. Each service, from decentralized air traffic management to space-based social networks, presents unique challenges demanding rigorous technical definition. This process includes identifying core functionalities and addressing critical non-functional requirements such as safety, security, reliability, performance, and regulatory compliance.
For this, the following activities are planned as a recurring effort:
Integrating new datacom services into the aerospace sector involves a complex interplay between technological innovation and existing governmental and policy frameworks. Governments play a crucial role not only in regulating but also in enabling and fostering the development of these services, given aerospace’s critical nature for safety, security, and national interests. Analyzing policies and governance requires a multifaceted approach, encompassing regulatory frameworks, international cooperation, and economic and ethical considerations.
For this, the following activities are planned as a recurring effort:
Organisation
WG chair: Paulo Mendes (Airbus), Tomaso di Cola (DLR)
Mailing List: aerospace@datacom-ia.eu
The charter document of the Aerospace WG describes its mission, objectives and activities.
If you want to know more about the Aerospace Working Group, don’t hesitate to contact us.
