Imagine having a high-tech calculator that predicts how a new airplane design affects the planet and the wallet before it's even built. It connects experts from different cities into one digital workspace to test if a new technology actually reduces noise or smog. It's like a flight simulator, but for the long-term consequences of aviation choices.
Aviation companies struggle to accurately predict and quantify the long-term environmental and economic effects of new technologies. This leads to risky investments and difficulty in meeting strict government regulations.
A digital toolbox and a collaborative web-based framework for monitoring aviation impacts. It includes an updated CPACS schema for complex aircraft modeling.
If you are an aircraft designer dealing with strict emissions targets — this project developed a toolbox that provides a systematic way to monitor environmental and economic impacts. This helps in making science-based decisions during the design phase.
If you are an airport operator dealing with local noise complaints and air quality regulations — this project developed a collaborative assessment process. It allows you to model the impact of new transport systems at the airport level.
If you are a policy advisor dealing with the need for evidence-based aviation regulations — this project developed a reference choice for technology and policy assessment. It ensures that R&I initiatives are measured against real-world societal impacts.
Based on available project data, no pricing or licensing costs are mentioned as the project focused on developing the toolbox and framework.
The project demonstrated the process through use cases at the aircraft, airport, and air transport system levels, suggesting it is designed for broad aviation system application.
Based on available project data, specific IP or licensing terms are not provided, though it aims to be the reference choice for European aviation R&I.
The toolbox is inspired by the EC’s Better Regulation Guidelines and helps in making informed, science-based decisions for policy assessment.
It uses web-based systems for workflow architecting and enhances the Common Parametric Aircraft Configuration Schema (CPACS) to handle complex aircraft modeling.
The consortium is heavily research-driven, consisting of 11 partners from 8 countries. With 4 universities and 5 research institutes, the technical depth is high, while the industrial presence is relatively low at 18% (2 industry partners, including 2 SMEs). This suggests the output is currently a high-level technical tool rather than a commercial product.
Contact DLR (Deutsches Zentrum für Luft- und Raumfahrt) for technical inquiries.
Contact us to explore how to integrate this impact assessment toolbox into your aviation R&D pipeline.
