A New Standard in the Sky

 

Complete Airplane

High speed wind tunnel testing validated the aerodynamic design that was optimized using Computational Fluid Dynamics. The wind tunnel results verified that the Learjet 85 would be capable of high cruise speeds with low drag, fuel burn, and noise levels.

Nacelle

The engine pylon was shaped with Computational Fluid Dynamics to eliminate drag-producing shock waves and increase range.

Nose

The nose and canopy design of the Learjet 85 preserve the appealing lines that have contributed to the famous ramp appeal of earlier Learjet models. The canopy design goes beyond just aesthetics however; detailed aerodynamic analysis has been used to eliminate shock waves near the canopy, resulting in a quieter, more comfortable cockpit environment.

Tail

Given the high-speed requirements of the Learjet 85, the ability to retain manual flight controls required focused design effort, particularly in the shaping of the tail. Use of manual (instead of powered) flight controls contributes to the simplicity of the aircraft design and increases aircraft reliability.

Winglets

In 1977, the Learjet 28 became the first production jet to use winglets. Winglets are now widely used in the industry to produce extra lift, reduce fuel burn, and increase range. The Learjet 85 2nd generation winglets will provide even greater aerodynamic efficiency than earlier designs.

Wing

The wing was designed using advanced 3D Computational Fluid Dynamics software to achieve low drag at high cruise speeds. The advanced airfoil and wing geometry allow the Learjet 85 to have a long range cruise speed that matches the high speed cruise of its nearest competitor.