CHAPTER 8A JEPPESEN KNOWLEDGE TEST GUIDE Flashcards

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1
Q

WHICH WOULD PROVIDE THE GREATEST GAIN IN ALTITUDE IN THE SHORTEST DISTANCE DURING CLIMB AFTER TAKEOFF?

A

Vx
THE BEST ANGLE OF CLIMB SPEED

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2
Q

AFTER TAKEOFF, WHICH AIRSPEED WOULD THE PILOT USE TO GAIN THE MOST ALTITUDE OVER A GIVEN TIME?

A

Vy
BEST RATE OF CLIMB

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3
Q

WHAT DOES THE HIGH-DENSITY ALTITUDE, AS COMPARED TO LOW-DENSITY ALTITUDE, HAVE ON PROPELLER EFFICIENCY AND WHY?

A

EFFICIENCY IS REDUCED BECAUSE THE PROPELLER EXERTS LESS FORCE AT HIGH-DENSITY ALTITUDES THAT LOW-DENSITY ALTITUDES

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4
Q

WHICH COMBINATION OF ATMOSPHERIC CONDITIONS REDUCES AIRCRAFT TAKEOFF AND CLIMB PERFORMANCE

A

HIGH TEMPERATURE
HIGH RELATIVE HUMIDITY
LOW-DENSITY ALTITUDE

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5
Q

WHAT EFFECT DOES HIGH-DENSITY ALTITUDE HAVE ON AIRCRAFT PERFORMANCE?

A

IT REDUCES CLIMB PERFORMANCE
HIGH TEMP = LESS DENSE AIR = WORSE PERFORMANCE

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6
Q

WHAT EFFECT, IF ANY, DOES HIGH HUMIDITY HAVE ON AIRCRAFT PERFORMANCE

A

IT DECREASES IT
MOISTURE ISA DRAG ON THE WING THROUGH THE AIR AND ENGINE PERFORMANCE

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7
Q

(REFER TO FIGURE 8)
WHAT IS THE EFFECT OF A TEMPERATURE INCREASE FROM 25 Deg F TO 50 Deg F on the density altitude if the pressure altitude remains at 5,000’

A

C
1,650’ INCREASE

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8
Q

(REFER TO FIGURE 8)
DETERMINE THE PRESSURE ALTITUDE WITH AN INDICTED ALTITUDE OF 1,380’ MSL WITH AN ALTIMETER SETTING OF 28.22 AT STANDARD TEMPERATURE

A

2,991 ‘
USING THE TABLE ON THE RIGHT, INTERPOLATE BETWEEN 28.2 AND 28.3 TO GET A CONVERSION FACTOR OF 1,611 ( A VALUE OF 20% OF THE WAY BETWEEN 1,630 AND 1,533. ADD THE INDICATED ALTITUDE OF 1,380 FOR A PRESSURE ALTITUDE OF 1380 FOR A PRESSURE ALT OF 2,991’

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9
Q

(REFER TO FIGURE 8)
DETERMINE THE DENSITY ALTITUDE FOR THESE CONDITIONS…
ALT 29.25
RWY TEMP +81 Deg F
airport elevation 5,250’ msl

A

8,500’ MSL

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10
Q

(REFER TO FIGURE 8)
DETERMINE THE PRESSURE ALTITUDE AT AN AIRPORT THAT IS 3,563’ MSL WITH AN ALTIMETER SETTING OF 29.96

A

3,527’ MSL

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11
Q

(REFER TO FIGURE 8)
WHAT IS THE EFFECT OF A TEMPERATURE INCREASE FROM 35Deg F to 50Deg F ON THE DENSITY ALTITUDE IF THE PRESSURE ALTITUDE REMAINS AT 3,000’ MSL

A

1,000 FOOT INCREASE

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12
Q

(REFER TO FIGURE 8)
DETERMINE THE PRESSURE ALTITUDE AT AN AIRPORT THAT IS 1,386’ MSL WITH AN ALTIMETER SETTING OF 29.97

A

1,341’

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13
Q

(REFER TO FIGURE 8)
WHAT IS THE EFFECT OF A TEMPERATURE DECREASE AND A PRESSURE ALTITUDE INCREASE ON THE DENSITY ALTITUDE FROM 90Deg F AND 1,250’ PA TO 55Deg F AND 1,750’ PA

A

1,750’ DECREASE

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14
Q

(REFER TO FIGURE 35)
APPROXIMATELY WHAT TRUE AIRSPEED SHOULD A PILOT EXPECT WITH A 65% MAX CONTINUOUS POWER AT 9500’ WITH A TEMPERATURE OF 36 Deg F BELOW STANDARD

A

158 kTS

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15
Q

(REFER TO FIGURE 35)
WHAT IS THE EXPECTED FUEL CONSUMPTION FOR A 1,000 nm FLIGHT UNDER THE FOLLOWING CONDITIONS…..
PA = 8,000’
TEMP = 22 Deg C
MANIFOLD PRESSURE = 20.8 Ihg
WIND = CALM

A

70.1 GALLONS

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16
Q

(REFER TO FIGURE 35)
WHAT FUEL FLOW SHOULD A PILOT EXPECT AT 11,000’ ON STANDARD DAY WITH 65% MAX CONTINUOUS POWER

A

11.2 GALLONS PER HOUR

17
Q

(REFER TO FIGURE 35)
DETERMINE THE APPROXIMATE MANIFOLD PRESSURE SETTING WITH 2,450 RPM TO ACHIEVE 65% MAX CONTINUOUS POWER AT 6,500’ WTIN A TEMPERATURE OF 36 Deg F HIGHER THAN STANDARD

A

21.0 I Hg

18
Q

(REFER TO FIGURE 36)
WHAT IS THE HEADWIND COMPONENT FOR A LANDING ON RUNWAY 18 IF THE TOWER REPORTS THE WIND AS 220 Deg @ 30 Kts

A

23 Kts

19
Q

(REFER TO FIGURE 36)
DETERMINE THE MAX WIND VELOCITY FOR A 45 Deg CROSSWIND IF THE MAXIMUM CROSSWIND COMPONENT FOR THE AIRPLANE IS 25 Kts

A

35 Kts

20
Q

(REFER TO FIGURE 36)
WHAT IS THE MAX CROSSWIND VELOCITY FOR A 30-deg CROSSWIND IF THE MAXIMUM CROSSWIND COMPONENT FOR THE AIRPLANE IS 12 Kts

A

24 Kts

21
Q

(REFER TO FIGURE 36)
WITH A REPORTED WIND OF NORTH @ 20 Kts, WHICH RUNWAY (6,23 OR 32) IS ACCEPTABLE FOR USE FOR AN AIRPLANE WITH A 13 Knt MAXIMIUM CROSSWIND COMPONENT

A

RUNWAY 32

22
Q

(REFER TO FIGURE 36)
WITH A REPORTED WIND OF SOUTH @ 20 Kts WHICH RUNWAY (10,14 OR24) IS APPROPRIATE FOR AN AIRPLANE WITH A 13 Kt MAX CROSSWIND COMPONENT

A

RWY 14

23
Q

(REFER TO FIGURE 36)
WHAT IS THE CROSSWIND COMPONENT FOR A LANDING ON RUNWAY 18 IF THE TOWER REPORTS THE WIND AS 220 Deg @ 30 Kts

A

19 Kts

24
Q

(REFER TO FIGURE 37)
DETERMINE THE APPROXIMATE TOTAL DISTANCE REQUIRED TO LAND OVER A 50’ OBSTACLE
OAT= 90 Deg F
PA= 4,000’
WEIGHT = 2,800 Lbs
HEADWIND COMPONENT 10 Kts

A

1,775’

25
Q

(REFER TO FIGURE 38)
DETERMINE THE APPROXIMATE LANDING GROUND ROLL DISTANCE
PA= S/L
HEADWIND = 4 Kts
TEMP = STD

A

401’

26
Q

(REFER TO FIGURE 38)
DETERMINE THE TOTAL DISTANCE REQUIRED TO LAND OVER A 50’ OBSTACLE
PA = 7,500’
HEADWIND 8 Kts
TEMP 32 Deg F
RWY = HARD SURFACE

A

1,004’

27
Q

(REFER TO FIGURE 38)
DETERMINE THE TOTAL DISTANCE REQUIRED TO LAND OVER A 50’ OBSTACLE
PA = 5,000’
HEADWIND = 8Kts
TEMP 41 Deg F
RWY = HARD SURFACE

A

956 ‘

28
Q

(REFER TO FIGURE 38)
DETERMINE THE APPROXIMATE LANDING GROUND ROLL DISTANCE
PA = 5,000’
HEADWIND = CALM
TEMP 101 Deg F

A

545’

29
Q

REFER TO FIGURE 38)
DETERMINE THE TOTAL DISTANCE REQUIRED TO LAND OVER A 50’ OBSTACLE
PA = 3750’
HEADWIND = 12 Kts
TEMP= STD

A

816’

30
Q

( REFER TO FIGURE 38)
DETERMINE THE APPROXIMATE LANDING GROUND ROLL DISTANCE
PA 1,250’
HEADWIND 8 KTS
TEMP STD

A

366’

31
Q

IF AN EMERGENCY SITUATION REQUIRES A DOWNWIND LANDING, PILOTS SHOULD EXPECT A FASTER

A

GROUNDSPEED AT TOUCHDOWN, A LONGER GROUND ROLL, AND A LIKELIHOOD OF OVERSHOOTING THE DESIRED TOUCHDOWN POINT.

32
Q

(REFER TO FIGURE 40)
DETERMINE THE TOTAL DISTANCE REQUIRED FOR TAKEOFF TO CLEAR A 50’ OBSTACLE
OAT - STD
PA–> 4,000’
T.O. WGT –> 2800 LBS
HEADWIND COMPONENT–> CALM

A

1,750’

33
Q

(REFER TO FIGURE 40)
DETERMINE THE TOTAL DISTANCE REQUIRED FOR TAKEOFF TO CLEAR A 50’ OBSTACLE
OAT STD
PA- S/L
T.O. WGT 2,700 LBS
HEADWIND - CALM

A

1400’

34
Q

(REFER TO FIGURE 40)
DETERMINE THE APPROXIMATE GROUND ROLL DISTANCE REQUIRED FOR TAKEOFF
OAT 38 DEG C
PA - 2,000’
T.O. WGT- 2,750 LBS
HEADWIND CALM

A

1,150’

35
Q

(REFER TO FIGURE 40)
DETERMINE THE APPROXIMATE GROUND ROLL DISTANCE REQUIRED FOR TAKEOFF
OAT 32 DEG C
PA- 2,000’
T.O. WGT - 2,500 LBS
HEADWIND COMPONENT - 20 KTS

A

650’

36
Q

(REFER TO FIGURE 62)
IN FLYING THE RECTANGULAR COURSE, WHEN WOULD THE AIRCRAFT BE TURNED LESS THAN 90 DEG

A

CORNERS 1 & $

37
Q

(REFER TO FIGURE 66)
WHILE PRACTICING S TURNS, A CONSISTENTLY SMALLER HALF CIRCLE IS MADE ON ONE SIDE OF THE ROAD THAN THE OTHER, AND THIS TURN IS NOT COMPLETED BEFORE CROSSING THE ROAD OR REFERENCE LINE. THIS WOULD MOST LIKELY OCCUR IN TURN

A

4-5-6 BECAUSE THE BANK IS INCREASED TOO RAPIDLY DURING THE EARLY PART OF THE TURN.