Weather You Really Shouldn’t Ignore
Why Pilots Mess Up
Engines, Turbines, and Other Hot Noisy Things
Not Just Spinny Things
Spicy Aerodynamics
200

This type of cloud, with an anvil‑shaped top, signals strong updrafts and the potential for thunderstorms.

Cumulonimbus

200

This term describes when a pilot continues a flawed plan despite cues that it’s unsafe, often during approaches.

Get‑there‑itis / plan continuation bias

200

This component mixes fuel and air in many piston aircraft engines before sending it to the cylinders.

Carburetor

200

This propeller blade angle setting produces the most thrust for takeoff by allowing the engine to turn at higher RPM.

Fine Pitch

200

This aerodynamic term describes the point where airflow separates from the wing, causing a rapid loss of lift.

Stall

400

This weather product shows areas of significant turbulence, icing, and convective activity for pilots.

SIGMET

400

This illusion can occur during rapid acceleration, causing a pilot to feel as though the nose is pitching up.

Somatogravic illusion

400

This type of detonation‑related engine issue occurs when fuel‑air mixture ignites before the spark plug fires.

Pre-Ignition

400

This aerodynamic force on a propeller blade causes the blade tips to try to straighten outward as RPM increases.

Centrifugal Effect (force)

400

This phenomenon increases induced drag at high angles of attack and is strongest at low airspeeds.

Wingtip Vortices

600

This type of fog forms on clear nights when the ground cools rapidly, chilling the air above it to the dew point.

Radiation Fog

600

This psychological effect causes pilots to rely too heavily on the first piece of information they receive, even when later evidence contradicts it.

Anchoring Bias

600

This turbine engine section squeezes incoming air before it enters the combustion chamber.

Compressor

600

This effect causes the descending propeller blade to produce more thrust than the ascending blade, contributing to left‑turning tendencies.

P-Factor

600

This aerodynamic effect increases lift on the advancing wing and decreases lift on the retreating wing during a roll, causing the aircraft to yaw opposite the direction of bank.

Adverse Yaw

800

This frontal feature can produce embedded thunderstorms and severe icing, and is characterized by a cold front overtaking a warm front.

Occluded Front

800

This hazardous attitude involves disregarding rules and procedures because the pilot believes they don’t apply to them.

Anti-Authority

800

This turbine engine parameter, often abbreviated ITT or EGT depending on design, must be monitored closely to avoid thermal damage during start and climb.

Turbine inlet temperature

800

This mechanism in a constant‑speed propeller automatically adjusts blade angle to maintain a selected RPM despite changes in airspeed or power.

Propeller Governor

800

This aerodynamic phenomenon reduces induced drag and increases lift efficiency when flying close to the surface, often causing aircraft to “float” during landing if approach speed is too high.

Ground Effect

1000

This invisible hazard forms when warm rain falls through a sub‑freezing layer, coating aircraft surfaces with a smooth, heavy glaze that can drastically reduce lift and increase stall speed.

Freezing Rain

1000

This cognitive phenomenon occurs when a pilot becomes so focused on one task or instrument that they miss critical cues elsewhere in the cockpit.

Fixation

1000

This phenomenon occurs when a turbine engine’s compressor cannot maintain stable airflow, causing pressure fluctuations, loud bangs, and potential flameout.

Compressor Stall

1000

On some aircraft, when a constant‑speed propeller suddenly loses oil pressure, this fail‑safe design feature causes the blades to move toward this high‑drag, low‑RPM condition to protect the engine.

Feathered Position

1000

This high‑speed aerodynamic phenomenon occurs when shockwaves form on the wing, causing a rearward shift of the center of pressure and a sudden nose‑down pitching moment.

Mach Tuck

M
e
n
u