a. electrically controlled and hydraulically actuated
b. electrically controlled with mechanical back-up control and hydraulically actuated
c. electrically controlled and hydraulically actuated with mechanical reversion capability
a. electrically controlled and hydraulically actuated
a. or cables
b. but the stabilizer and rudder trim may also be controlled by cables
c. but the stabilizer and rudder servos may also be controlled by cables
c. but the stabilizer and rudder servos may also be controlled by cables
a. the pitch and roll only
b. the pitch, roll and yaw (for turn coordination)
c. the elevators, ailerons and nosewheel steering (during ground operation)
b. the pitch, roll and yaw ( for turn coordination)
a. two independent elevators and a Trimmable Horizontal Stabilizer
b. Two inter-connected elevators and a Trimmable Horizontal Stabilizer
c. Two inter-connected elevators with trim tabs and a Trimmable Horizontal Stabilizer
a. two independent elevators and a Trimmable Horizontal Stabilizer
a. Two hydraulic servos, each powered by one of two hydraulic systems
b. Two hydraulic servos, each powered by one of three hydraulic systems
c. Three hydraulic servos, each powered by one of three hydraulic systems
b. Two hydraulic servos, each powered by one of three hydraulic systems
a. spoilers 2 through 4
b. spoilers 2 through 5
c. spoilers 1 through 6
c. spoilers 1 through 6
a. PRIM 1 + 2 failure with SEC 1 + 2 available
b. PRIM 1 and 2 SEC 1 + 2 failure
c. PRIM 1 + 2 + 3 failure with Sec 1 + 2 available
c. PRIM 1 + 2 + 3 failure with Sec 1 + 2 available
a. Normal control laws and characteristics speed computations only
b. Normal, Alternate, Direct Laws, speed brakes and ground spoilers control logic, characteristics speed computations
c. Normal and alternate laws only, speed brakes and ground spoilers control logic
b. Normal, Alternate, Direct Laws, speed brakes and ground spoilers control logic, characteristics speed computations
a. Direct control laws, rudder trim, yaw damper, rudder and rudder pedals travel limits
b. Direct control laws, speed brakes and ground spoilers control logic
c. Alternate control laws, characteristic speeds computation
a. Direct control laws, rudder trim, yaw damper, rudder and rudder pedals travel limits
a. 2 control modes: active and damping
b. 2 control modes: active and centering
c. 3 control modes: active, damping and centering
c. 3 control modes: active, damping and centering
a. the related surface is lost
b. the damped servo jack on the same surface becomes automatically active
c. the surface deflection is reduced
b. the damped servo jack on the same surface becomes automatically active
a. PRIM 1, the elevator green hydraulic jacks and the number 1 THS electric control motor
b. PRIM 1, the elevator green hydraulic jacks, and the number 2 THS electric control motor
c. PRIM 2, the elevator blue and yellow hydraulic jacks and the number 2 THS electric control motor
a. PRIM 1, the elevator green hydraulic jacks and the number 1 THS electric control motor
a. SEC 2 for elevator control and PRIM 3 using the number 2 electric motor for THS control
b. SEC 1 for elevator control and PRIM 3 using the number 3 electric motor for THS control
c. PRIM 3 for elevator control and SEC 2 using the number 2 electric motor for THS control
b. SEC 1 for elevator control and PRIM 3 using the number 3 electric motor for THS control
a. the THS is controlled by the manual pitch trim wheel only
b. the THS is controlled by the manual pitch trim wheel and the number 2 electric motor
c. the THS is controlled by the manual pitch trim wheel and the number 3 electric motor
a. the THS is controlled by the manual pitch trim wheel only
a. occurs when the slats and flaps are extended
b. occurs when flaps are extended and is single droop setting
c. occurs when the flaps are extended and is a variable droop setting
c. occurs when the flaps are extended and is a variable droop setting
a. the outboard ailerons
b. the inboard ailerons
c. spoiler 1 to 6
a. the outboard ailerons
a. retract
b. remain at the existing deflection or less if pushed down by aerodynamic forces
c. extend fully
b. remain at the existing deflection or less if pushed down by aerodynamic forces
a. armed and extended
b. armed and not extended
c. unarmed and not extended
b. armed and not extended
a. extend automatically on touchdown
b. extend when the pilot selects reverse on at least 1 engine (other engine at idle).
c. not extend, no matter what the pilot does with thrust levers
b. extend when the pilot selects reverse on at least 1 engine (other engine at idle).
a. you can “feel” the inputs with rudder pedal movement
b. feedback is provided only when the autopilot is off
c. no feedback to the rudder pedals are provided
c. no feedback to the rudder pedals are provided
a. you must input the required rudder to maintain coordination
b. the correct amount of rudder is calculated by the computers
c. the redder pedals move automatically to maintain turn coordination
b. the correct amount of rudder is calculated by the computers
a. is fed back to the rudder pedals
b. is fed back to the rudder pedals only when you push reset
c. is not feedback to the rudder pedals
a. is fed back to the rudder pedals
a. the corresponding slats or flaps are normally operating
b. the corresponding slats or flaps are operating at half speed
c. the wing tip brakes (WTB) are activated and the corresponding slats or flaps remain at previous position
b. the corresponding slats or flaps are operating at half speed
Your present flap setting is FLAPS 1 In order to select FLAPS 2
a. you must decrease speed below S speed
b. you must decrease speed below 195 kts
c. you are not restricted by speed limit (below 240 kts)
b. you must decrease speed below 195 kts