Chapter 12—Transition to Multiengine Airplanes

Table of Contents
Multiengine Flight
General
Terms and Definitions
Operation of Systems
    Propellers
    Propeller Synchronization
    Fuel Crossfeed
    Combustion Heater
    Flight Director / Autopilot
    Yaw Damper
    Alternator / Generator
    Nose Baggage Compartment
    Anti-Icing / Deicing
Performance and Limitations
Weight and Balance
Ground Operation
Normal and Crosswind Takeoff and Climb
Level Off and Cruise
Normal Approach and Landing
Crosswind Approach and Landing
Short-Field Takeoff and Climb
Short-Field Approach and Landing
Go-Around
Rejected Takeoff
Engine Failure After Lift-Off
Engine Failure During Flight
Engine Inoperative Approach Landing
Engine Inoperative Flight Principles
Slow Flight
Stalls
    Power-Off Stalls (Approach and Landing)

    Power-On Stalls (Takeoff and Departure)
    Spin Awareness
Engine Inoperative—Loss of Directional Control Demonstration
Multiengine Training Considerations




REJECTED TAKEOFF

A takeoff can be rejected for the same reasons a takeoff in a single-engine airplane would be rejected. Once the decision to reject a takeoff is made, the pilot should promptly close both throttles and maintain directional control with the rudder, nosewheel steering, and brakes. Aggressive use of rudder, nosewheel steering, and brakes may be required to keep the airplane on the runway. Particularly, if an engine failure is not immediately recognized and accompanied by prompt closure of both throttles. However, the primary objective is not necessarily to stop the airplane in the shortest distance, but to maintain control of the airplane as it decelerates. In some situations, it may be preferable to continue into the overrun area under control, rather than risk directional control loss, landing gear collapse, or tire/brake failure in an attempt to stop the airplane in the shortest possible distance.

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Copyright 2012
PED Publication