Transport Performance
Transport Performance is a core knowledge area on the Flight Engineer FAA written exam. This hub collects our 5 in-depth, ACS-aligned transport performance articles — each written in plain English and grounded in the official FAA handbooks. Work through them below, then drill the topic with practice questions.
Engine-Out Climb Performance and the Net Flight Path
Engine-out climb performance defines how a transport-category airplane must climb after losing an engine, setting the legally required gradient floors that protect obstacle clearance. 14 CFR 25.121 specifies the exact configurations, gradients, and segments of the net takeoff flight path.
Landing Performance and Runway Length Requirements
Landing performance and runway length requirements determine whether a transport-category aircraft can safely stop within the available runway distance, and FAA regulations mandate specific safety margins that flight engineers must verify before every landing.
High-Altitude Aerodynamics: Mach Buffet and Coffin Corner
Mach buffet and coffin corner define the narrow speed band at high altitude where a transport-category aircraft can fly safely; understanding both is essential for Flight Engineer candidates and transport-category operations.
Cruise Performance: Long-Range versus Maximum-Range Cruise
Long-range cruise (LRC) and maximum-range cruise (MRC) are two distinct transport-category fuel-efficiency strategies; understanding the speed-fuel trade-off between them is essential for Flight Engineer knowledge testing.
Takeoff Performance: V1, VR, V2, and Balanced Field Length
V1, VR, V2, and balanced field length are the cornerstone takeoff performance speeds and concepts that every flight engineer must master to ensure transport-category aircraft operate safely within certified limits.
More Flight Engineer subjects
Articles are original summaries grounded in the public-domain FAA handbooks and cite their source. ACS-aligned study aids — not a substitute for the official handbooks or regulations.