Parameter

3.1.1.5 gust sensors

Traditionally, aircraft are built with heavy, stiff wings to survive rare, extreme turbulence events. By using gust sensors (using LiDAR technology) to scan the air ahead, the aircraft can "see" a gust before impact. This allows the flight computer to proactively adjust control surfaces—a process called Active Gust Load Alleviation (GLA).

The decarbonisation impact could be significant: by dampening peak structural loads, wings can be designed to be lighter, saving hundreds of kilograms in mass. Furthermore, this predictive intelligence enables the use of Ultra-High Aspect Ratio (long, thin) wings that would otherwise be too flexible, reducing induced drag significantly. By shifting from reactive to proactive load management, gust sensors turn the airframe into a smarter, lighter, and more fuel-efficient system.

Hierarchy

3 product service systems
3.1 aircraft product systems
3.1.1 components
3.1.1.1 2+mw electric motors
3.1.1.2 electronically steerable antennas
3.1.1.3 finlets
3.1.1.4 fully integrated antennas
3.1.1.5 gust sensors
3.1.1.6 high voltage wiring
3.1.1.7 hydrogen sensors
3.1.1.8 landing gear electric motors
3.1.1.9 lightweight business class seats
3.1.1.10 quantum-based sensors
3.1.1.11 real-time high-performance controllers
3.1.1.12 SAF sensors
3.1.1.13 wing-integrated sensors
3.1.2 Aircraft systems
3.2 development supporting services
3.3 flight supporting service systems

Scenario relevance

Number of parameter occurrence per scenario.

Input
Output
3
2
Optimising together
N/A
Stripping down
N/A
Tech for you
N/A
Mad max

Milestone Timehorizon

PESTEL categories

Current

Short term

Medium term

Long term

Little to many relations with other Milestones