Completed Materials & Manufacturing Engineering

The Smart Active Wing of the Future Project

In plain English

AI plain-English summary

Aircraft wings that actively reshape their airflow could shrink the carbon footprint of every flight. Today’s wings are passive—their shape is fixed, and designers must compromise between take-off, cruise, and landing performance. This project asks whether small, active flow-control devices (such as jets or moving surfaces) can replace heavy, complex flaps and slats, and how that would change the entire aircraft’s design. The core question is not just whether the technology works on a wing, but how it ripples through the rest of the plane: shorter wings, lighter structures, different engine placement, and the resulting fuel savings. If successful, the work could lead to aircraft that burn significantly less fuel, reducing both operating costs and aviation’s contribution to climate change. The research is applied engineering—it directly targets a practical outcome. It does not aim to discover new physics, but to answer the hard engineering questions that stand between a laboratory demonstration and a production aircraft: which flow-control technologies are most promising, how to deploy them reliably, and how to manufacture them at scale. The payoff is a quieter, more efficient wing that could become standard on future airliners.

View original technical description
The overall aim of the SAWoF (Smart Active Wing of the Future) campaign is to establish a full understanding and appreciation of the impact of the flow controlled wing on the evolution of overall aircraft design. The key issues which are addressed by SAWoF are: • What flow control technologies offer the most potential and how should they be deployed and operated on the wings of the future. • What is the impact of the flow controlled wing on overall aircraft design in terms of evolution in configuration and the resulting gains in performance • What are the engineering and manufacturing issues that challenge the practical implementation of the technology?

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Related Research

Grants with similar aims, by meaning.

Scalable Wirelessly Interconnected Flow-Control Technologies (SWIFT)
The Advanced Integrated Wing Optimisation (AIWO) Project
Development of Advanced Wing Solutions (DAWS)
Smart aircraft morphing technologies (smorph)
Towards biologically-inspired active-compliant-wing micro-air-vehicles

Original classification

BEIS-Funded Programmes

Plain English summaries and category classifications on this site are generated by AI and may not perfectly reflect the original research.