Linked from

The 73 pages that link to Aerodynamics, each with the reason it gives.

• Computational fluid dynamicsRelated: CFD predicts lift, drag, and flow separation around aircraft and vehicles.

• Navier–Stokes equationsRelated: Airflow around wings and vehicles is commonly modeled with Navier–Stokes equations.

• HydrodynamicsCompared with: It applies related flow principles to gases rather than liquids.

• Fluid mechanicsBroader topic: It applies fluid mechanics to lift, drag, aircraft, and other bodies moving through air.

• Bird flightNarrower topic: Lift, drag, and airflow explain the forces acting on flying birds.

• Wing loadingNarrower topic: Aerodynamic forces explain why mass-to-wing-area ratios matter in flight.

• BallisticsRelated: It explains lift, drag, and stability for projectiles moving through air.

• Wind tunnelNarrower topic: Wind tunnels are experimental facilities for investigating this broader subject.

• AvialaeRelated: Wing shape and feather arrangements affected the aerodynamic performance of flying avialans.

• Fluid dynamicsBroader topic: It applies fluid-flow principles to aircraft, vehicles, and structures exposed to wind.

• Gliding flightNarrower topic: Gliding flight follows aerodynamic principles even without active propulsion.

• Fixed-wing aircraftNarrower topic: It provides the physical principles behind fixed-wing flight.

• Velocity fieldRelated: Air velocity fields determine pressure forces and aerodynamic loading.

• Swing bowlingNarrower topic: Swing bowling is an applied example of aerodynamic forces acting on a moving ball.

• Aerospace engineeringRelated: Aerodynamic forces determine lift, drag, stability, and control for atmospheric vehicles.

• DragNarrower topic: It uses drag analysis to shape aircraft, vehicles, and structures.

• Vehicle dynamicsRelated: Air forces modify vehicle loads and motion, especially at high speed.

• History of aviationNarrower topic: Advances in aerodynamic understanding repeatedly changed aircraft performance and design.

• AviationRelated: Lift and drag arise from airflow around wings and other aircraft surfaces.

• Peregrine falconNarrower topic: The stoop is a biological example of flight through dense air at high speed.

• Powered flightNarrower topic: It supplies the physical framework for understanding wing-generated forces.

• Flight simulatorNarrower topic: Aerodynamic principles supply the forces and responses represented in flight models.

• Time trialRelated: Reducing aerodynamic drag is central to maintaining speed against the clock.

• Bat wingNarrower topic: Airflow around the membrane explains how wing motion generates aerodynamic forces.

• Aircraft designNarrower topic: Lift, drag, and stability shape the aircraft’s configuration and performance.

• Flying squirrelRelated: Lift and drag determine how a squirrel’s body and membrane travel through air.

• George CayleyNarrower topic: Cayley’s wing experiments helped make the forces of moving air a subject of systematic study.

• Gustave EiffelNarrower topic: After leaving construction, Eiffel pursued experimental research on air resistance and flight.

• HydraulicsCompared with: It focuses on gas flows, while hydraulics centers on liquid systems.

• PatagiumNarrower topic: Airflow over a patagium produces lift and drag.

• Reverse swingNarrower topic: Reverse swing is an aerodynamic force acting on a ball in flight.

• Tennis ballNarrower topic: Air resistance and lift shape the ball’s trajectory after a stroke.

• Early aviationNarrower topic: Understanding lift and drag helped experimenters turn brief hops into controlled flight.

• Flight trainingNarrower topic: Lift, drag, and stability explain the forces pilots learn to manage.

• Hang glidingNarrower topic: Lift and drag determine how the glider moves through air.

• Jet aircraftNarrower topic: Airflow around the aircraft determines lift, drag, and handling.

• Ludwig PrandtlNarrower topic: His research made aerodynamic prediction central to the scientific design of aircraft.

• Downhill skiingRelated: At downhill speeds, reducing air resistance can substantially affect a racer’s time.

• AeronauticsBroader topic: Explains how wings and other surfaces generate forces during atmospheric flight.

• ColugoNarrower topic: Airflow and lift help explain how the colugo steers during a glide.

• Military aircraftNarrower topic: Aerodynamic forces determine lift, drag, stability, and maneuverability.

• ProjectileRelated: Aerodynamic lift and drag can make a real projectile depart from a simple parabolic path.

• Streamline ModerneRelated: Aerodynamic forms supplied a visual language of speed and efficiency.

• Theodore von KármánNarrower topic: This engineering field was the main setting for his work on lift, drag, and flow.

• AerostaticsCompared with: Aerostatic lift comes from buoyancy, while aerodynamic lift depends on motion through air.

• AirplaneNarrower topic: Airplane flight depends on aerodynamic forces generated by motion through air.

• Hammer throwNarrower topic: Air resistance and wind can alter the hammer's flight after release.

• Norman Bel GeddesNarrower topic: Its principles supplied a technical basis for forms that Bel Geddes often used as design imagery.

• Dan GurneyNarrower topic: Gurney’s racing designs applied aerodynamic principles to improve speed and handling.

• Greg LeMondNarrower topic: Reducing aerodynamic drag helped make LeMond’s time-trial equipment effective.