032.04 + .05 CS-25/APPLICABLE OPERATIONAL REQUIREMENTS PERFORMANCE CLASS A Flashcards

Theory + Use of Aeroplane Performance Data

1
Q

The initial airborne phase (take-off climb) is devided into 4 segments, each with a specified aircraft configuration and speed. The critical engine is assumed to have failed at the (V1/V2/VEF/VMCG) speed.

A

The initial airborne phase (take-off climb) is devided into 4 segments, each with a specified aircraft configuration and speed. The critical engine is assumed to have failed at the (VEF) speed.

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2
Q

V1 may not be (less/more) than VMCG and not (less/more) than VR.

A

V1 may not be (less) than VMCG and not (more) than VR.

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3
Q

Aircraft Classification Number (ACN) should usually be (lower/higher) than the Pavement Classification Number (PCN).

A

Aircraft Classification Number (ACN) should usually be (lower) than the Pavement Classification Number (PCN).

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4
Q

VR may not be less than V1 or (…) VMC.

A

VR may not be less than V1 or (1.05) VMC.

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5
Q

Performance class A screen height of the take-off distance for a dry runway is (…) ft.

A

Performance class A screen height of the take-off distance for a dry runway is (35) ft.

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6
Q

Performance class A screen height of the take-off distance for a wet runway is (…) ft.

A

Performance class A screen height of the take-off distance for a wet runway is (15) ft.

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7
Q

Take-Off Distance is the (lesser/greater) of the following:

  • Distance to t/o and climb to 35 ft over runway with all engines operating + (…)%
  • Distance to t/o and climb to 35 ft over runway with critical engine inop.
A

Take-Off Distance is the (greater) of the following:

  • Distance to t/o and climb to 35 ft over runway with all engines operating + (15)%
  • Distance to t/o and climb to 35 ft over runway with critical engine inop.
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8
Q

VMU is the (…) speed.

A

VMU is the (minimum unstick) speed.

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9
Q

A (low/high) runway elevation and a (headwind/tailwind) would most likely lead to a tire speed limited take-off.

A

A (high) runway elevation and a (tailwind) would most likely lead to a tire speed limited take-off.

- require higher TAS for lift-off -

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10
Q

In the event that take-off mass is obstacle limited and the take-off flight path includes a turn, the bank angle should not exceed (…)° up to a height of 400 ft.

A

In the event that take-off mass is obstacle limited and the take-off flight path includes a turn, the bank angle should not exceed (15)° up to a height of 400 ft.

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11
Q

VMax Tyre can limit the VLOF. (IAS/CAS/TAS/GS) can be directly used to determine this limitation.

A

VMax Tyre can limit the VLOF. (GS) can be directly used to determine this limitation.

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12
Q

For rigid (R) pavements, occasional movements by aircraft with ACN not exceeding (…)% above the reported PCN should not adversely affect the pavement.

A

For rigid (R) pavements, occasional movements by aircraft with ACN not exceeding (5)% above the reported PCN should not adversely affect the pavement.

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13
Q

For flexible (F) pavements, occasional movements by aircraft with ACN not exceeding (…)% above the reported PCN should not adversely affect the pavement.

A

For flexible (F) pavements, occasional movements by aircraft with ACN not exceeding (10)% above the reported PCN should not adversely affect the pavement.

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14
Q

The first segment of the take-off flight path ends at (…).

A

The first segment of the take-off flight path ends at (completion of gear retraction).

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15
Q

V2 MIN may not be less than:

  • (…) VSR for turbojets and 2 and 3 engined turpoprops
  • (…) VSR for turbojects with provisionf for obtaining a significant reduction in the OEI power-on stall speed and 4 engined turboprops
  • (…) VMCA
A

V2 MIN may not be less than:

  • (1.13) VSR for turbojets and 2 and 3 engined turpoprops
  • (1.08) VSR for turbojects with provisionf for obtaining a significant reduction in the OEI power-on stall speed and 4 engined turboprops
  • (1.1) VMCA
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16
Q
  • ‘Contaminated runway’* means a runway of which more than (25/50/75/100)% of the runway surface area within the required length and width being used is covered by the following:
    (a) surface water more than (…) mm deep, or by the equivalent slush, or loose snow;
    (b) compacted snow; or
    (c) ice, including wet ice.
A
  • ‘Contaminated runway’* means a runway of which more than (25)% of the runway surface area within the required length and width being used is covered by the following:
    (a) surface water more than (3) mm deep, or by the equivalent slush, or loose snow;
    (b) compacted snow; or
    (c) ice, including wet ice.
17
Q

State whether a down slope will increase, decrease, or not affect the following:

  • ASD
  • VR rotation speed
  • Tire speed limtied take-off mass
A

State whether a down slope will increase, decrease, or not affect the following:

  • ASD → decrease
  • VR rotation speed → not affected
  • Tire speed limtied take-off mass → not affected
18
Q

State whether a down slope will increase, decrease, or not affect the following:

  • Take-off Distance
  • V1 decision speed
  • V2 take-off safety speed
  • VMBE limited take-off mass
A

State whether a down slope will increase, decrease, or not affect the following:

  • Take-off Distance → decrease
  • V1 decision speed → decrease
  • V2 take-off safety speed → not affected
  • VMBE limited take-off mass → decrease
19
Q

The take-off distance must not exceed the take-off distance available, witha clearway distance not exceeding (…)% of the take-off run available (TORA).

A

The take-off distance must not exceed the take-off distance available, witha clearway distance not exceeding (50)% of the take-off run available (TORA).

20
Q

Following an engine failure before V1 anda llowing for a pilot reaction time of (…) second(s), a correctly loaded class A aircraft must be capable of decelerating to a stop within the (TODA/ASDA).

A

Following an engine failure before V1 anda llowing for a pilot reaction time of (2) second(s), a correctly loaded class A aircraft must be capable of decelerating to a stop within the (ASDA).

21
Q

The one engine out take-off run is the distance between the brake release point and the (lift-off point / point where V2 is reached / middle of segment between VLOF point and 35 ft point / the point halfway between V1 and V2).

A

The one engine out take-off run is the distance between the brake release point and the (middle of segment between VLOF point and 35 ft point).

22
Q

The obstacle clearance area for aeroplanes with a wingspan > 60 m is defined as: (30/50/60/90) m + (0.125/0.250/1.125/1.5) • distance from end of TODA.

A

The obstacle clearance area for aeroplanes with a wingspan > 60 m is defined as: (90) m + (0.125) • distance from end of TODA.

23
Q

The obstacle clearance area for aeroplanes with a wingspan < 60 m is defined as: (30/50/60/90) m + (0.25/0.5/0.75/2) • wingspan + (0.125/0.250/1.125/1.5) • distance from end of TODA.

A

The obstacle clearance area for aeroplanes with a wingspan < 60 m is defined as: (60) m + (0.5) • wingspan + (0.125) • distance from end of TODA.

24
Q

Cost Index is (cost of fuel/operating costs/distance travelled/total costs) devided by (distance travelled/cost of fuel).

A

Cost Index is (hourely operating costs) devided by (cost of fuel)​.

25
Q

The net flight path of an aircraft with OEI shall clear vertically by at least (…) ft, all terrain and obstructions along the route within 5 NM on either side of the intended track.

A

The net flight path of an aircraft with OEI shall clear vertically by at least (2000) ft, all terrain and obstructions along the route within 5 NM on either side of the intended track.

26
Q

In case of an engine failure above OEI ceiling, the best speed to descent is (VS1g/VMP/VMD), for jets this is (VX/VY), for propeller aircraft this is (VX/VY).

A

In case of an engine failure above OEI ceiling, the best speed to descent is (VMD), for jets this is (VX), for propeller aircraft this is (VY).

27
Q

According to EASA AIR OPS, the required runway length at a destination airport is (greater than/less than/the same as)​ that required at an alternate airport.

A

According to EASA AIR OPS, the required runway length at a destination airport is (the same as) that required at an alternate airport.

- For both jets and props. -

28
Q

The maximum mass for landing could be limited by the climb requirements with (all engines operative/OEI) in the (approach/landing) configuration with gear (retracted/extended) and flaps (approach/land)​.

A

The maximum mass for landing could be limited by the climb requirements with (OEI) in the (approach) configuration with gear (retracted) and flaps (approach).

29
Q

In accordance with CS-25, VREF (reference landing speed) has to be at least (…) • VSR0 (stall speed in landing config.).

A

In accordance with CS-25, VREF (reference landing speed) has to be at least (1.23) • VSR0 (stall speed in landing config.).