ATPL 33 FLIGHT PLANNING AND MONITORING
33.01 VFR NAVIGATION PLAN, FUEL PLAN, FUEL CALCULATION
1 (for this question use annex 033-9562a or flight planning manual mrjt 1 figure 4.5.3.1) the aeroplane gross mass at top of climb is 61500 kg. the distance to be flown is 385 nm at fl 350 and oat - 54.3 ° c. the wind component is 40 kt tailwind.using long range cruise procedure what fuel is required?

2150 kg
2 Find the distance to the point of safe return (psr). given: maximum useable fuel 15000 kg, minimum reserve fuel 3500 kg, outbound: tas 425 kt, head wind component 30 kt, fuel flow 2150 kg/h, return: tas 430 kt, tailwind component 20 kt, fuel flow 2150 kg/h

1125 nm
3 (for this question use annex 033-9558a) finish the endurance/fuel calculation and determine atc endurance for a twin jet aeroplane, with the help of the table provided. contingency is 5% of the planned trip fuel and fuel flow for extra fuel is 2400 kg/h.

Atc endurance: 04:07
4 A jet aeroplane is to fly from a to b. the minimum final reserve fuel must allow for :

30 minutes hold at 1500 ft above destination aerodrome elevation, when no alternate is required.
5 On an atc flight plan, to indicate that you will overfly the way-point tango at 350 kts at flight level 280, you write:

Tango / n0350 f280
6 The quantity of fuel which is calculated to be necessary for a jet aeroplane to fly ifr from departure aerodrome to the destination aerodrome is 5352 kg. fuel consumption in holding mode is 6 000 kg/h. alternate fuel is 4380 kg. contingency should be 5% of trip fuel. what is the minimum required quantity of fuel which should be on board at take-off?

13000 kg.
7 The following fuel consumption figures are given for a jet aeroplane: -standard taxi fuel: 600 kg. -average cruise consumption: 10 000 kg/h. -holding fuel consumption at 1500 ft above alternate airfield elevation: 8000 kg/h. -flight time from departure to destination: 6 hours -fuel for diversion to alternate: 10 200 kg. the minimum ramp fuel load is:

77 800 kg
8 On an atc flight plan, the letter "y" is used to indicate that the flight is carried out under the following flight rules.

Ifr followed by vfr
9 A jet aeroplane has a cruising fuel consumption of 4060 kg/h, and 3690 kg/h during holding. if the destination is an isolated airfield, the aeroplane must carry, in addition to contingency reserves, additionnal fuel of :

8120 kg.
10 (for this question use annex 033-3318a or flight planning manual mrjt 1 figure 4.5.3.1) given: long range cruise. outside air temperature (oat) -45 ° c in fl 350. mass at the beginning of the leg 40 000 kg. mass at the end of the leg 39 000 kg. find: true airspeed (tas) at the end of the leg and the distance (nam).

Tas 431 kt. 227 nam
11 (for this question use annex 033-9719a, aeronautical chart icao 1:500 000 stuttgart (no 47/6) or route manual vfr+gps chart ed-6) an aeroplane is flying vfr and approaching position tango vortac (48° 37"n, 009° 16"e) at fl 055 and magnetic course 090° , distance from vortac tango 20 nm. name the frequency of the tango vortac.

112.50 mhz
12 Find the distance from waypoint 3 (wp 3) to the critical point. given: distance from w p 3 to wp 4 = 750 nm, tas out 430 kt, tas return 425 kt, tailwind component out 30 kt, head wind component return 40 kt

342 nm
13 (for this question use annex 033-11717a) the planned flight is over a distance of 440 nm based on the wind charts at altitude the following components are found. fl50: -30kt. fl100: - 50kt. fl180: -70kt the operations manual in appendix details the aircraft"s performances which of the following flight levels (fl) gives the best range performance:

Fl 180
14 (for this question use annex 033-3324a or flight planning manual mrjt 1 figure 4.4) given: dry operating mass 35 500 kg. estimated load 12 000 kg, contingency approach and landing fuel 2 500 kg. elevation at departure aerodrome 500 ft. elevation at alternate aerodrome 30 ft. find: final reserve fuel for a jet aeroplane (holding) and give the elevation which is relevant. 1 eaaps (for this question use 11 400 kg. 04h 12 min 12 400 kg. 04h 12 min 11 400 kg. 03h 55 min 12 400 kg. 03h 55 min 0 0 0 -1 annex 033-3323a or flight planning manual mrjt 1 figure 4.3.3c) given: ground distance to destination aerodrome 1 600 nm. headwind component 50 kt. fl 330. cruise 0.78 mach. isa + 20 ° c. estimated landing weight 55000 kg . find: simplified flight planning to determine estimated trip fuel and trip time. 1 eaaps (for this question use 800 kg. 40 min 1 100 kg. 25 min 1 100 kg. 44 min 800 kg. 24 min 0 -1 0 0 annex 033-3322a or flight planning manual mrjt 1 figure 4.3.6) given: estimated dry operation mass 35 500 kg. estimated load 14 500 kg. final reserve fuel 1200 kg. distance to alternate 95 nm. average true track 219° . head wind component 10 kt find : fuel and time to alternate. 1 eaaps (for this question use 4 800 kg. 01 : 45 4 400 kg. 02 : 05 4 750 kg. 02 : 00 4 600 kg. 02 : 05 -1 0 0 0 annex 033-3321a or flight planning manual mrjt 1 figure 4.3.1.b) given : estimated zero fuel mass 50 t. estimated landing mass at alternate 52 t. final reserve fuel 2 t. alternate fuel 1 t. flight to destination, distance 720 nm, true course (tc) 030, w/v 340/30. cruise: long range fl 330, outside air temperature -30 ° c. find : estimated trip fuel and time

1 180 kg. alternate elevation
15 (for this question use annexes 033-3320a, 033-3320b and 033- 3320c or flight planning manual mrjt 1 figures 4.2.1, 4.2.2 and 4.5.3.2) given: estimated take- off mass 57 000 kg. still air distance 150 nam. outside air temperature (oat) isa -10k. cruise at 0.74 mach. find : cruise altitude and expected true airspeed

25 000 ft. 435 kt
16 To carry out a vfr flight to an off-shore platform, the minimum fuel quantity on board is:

Identical to that defined for vfr flights over land
17 Flight planning chart for an aeroplane states, that the time to reach the cruising level at a given gross mass is 36 minutes and the distance travelled is 157 nm (zero-wind). what will be the distance travelled with an average tailwind component of 60kt ?

193 nm
18 You are flying a constant compass heading of 252° . variation is 22° e, deviation is 3° w and your ins is showing a drift of 9° right. true track is ?

280°
19 The purpose of the decision point procedure is ?

To reduce the minimum required fuel and therefore be able to increase the traffic load.
20 (for this question use annex 033-9722a, aeronautical chart icao 1:500 000 stuttgart (no 47/6) or route manual vfr+gps chart ed-6) flying from saulgau airport (48° 02"n, 009° 31"e) to altenstadt airport (47° 50"n, 010° 53"e). find magnetic course and the distance.

Magnetic course 102°, distance 56 nm
21 (for this question use annex 033-9724a, aeronautical chart icao 1:500 000 stuttgart (no 47/6) or route manual vfr+gps chart ed-6) flying from position sigmaringen (48° 05"n, 009° 13"e) to biberach airport (48° 07"n, 009° 46"e). find magnetic course and the distance.

Magnetic course 086°, distance 22 nm
22 (for this question use annex 033-9723a, aeronautical chart icao 1:500 000 stuttgart (no 47/6) or route manual vfr+gps chart ed-6) flying from erbach airport (48° 21"n, 009° 55"e) to poltringen airport (48° 33"n, 008° 57"e). find magnetic course and the distance.

Magnetic course 287°, distance 41 nm
23 If cas is 190 kts, altitude 9000 ft. temp. isa - 10° c, true course (tc) 350° , w/v 320/40, distance from departure to destination is 350 nm, endurance 3 hours and actual time of departure is 1105 utc. the distance from departure to point of equal time (pet) is :

203 nm
24 When using decision point procedure, you reduce the

Contingency fuel by adding contingency only from the burnoff between decision point and destination.
25 (for this question use annex 033 11702 a) the measured course 042° t. the variation in the area is 6° w and the wind is calm. the deviation card is reproduced in the annex. in order to follow this course, the pilot must fly a compass heading of:

052°
26 When calculating the fuel required to carry out a given flight, one must take into account : 1 - the wind 2 - foreseeable airborne delays 3 - other weather forecasts 4 - any foreseeable conditions which may delay landing the combination which provides the correct statement is :

1 - 2 - 3 - 4
27 For a flight to an off- shore platform, an alternate aerodrome is compulsory, except if : 1 - flight duration does not exceed two hours 2 - during the period from two hours before to two hours after the estimated landing time, the forecast conditions of ceiling and visibility are not less than one and a half times the applicable minima 3 - the platform is available and no other flight either from or to the platform is expected between the estimated time of departure and one half hour after the estimated landing time the combination which regroups all of the correct statements is :

01/02/2003
28 If cas is 190 kts, altitude 9000 ft. temp. isa - 10° c, true course (tc) 350° , w/v 320/40, distance from departure to destination is 350 nm, endurance 3 hours, and actual time of departure is 1105 utc. the point of equal time (pet) is reached at :

1213 utc
29 Given the following: d = flight distance x = distance to point of equal time gso = groundspeed out gsr = groundspeed return the correct formula to find distance to point of equal time is :

X = d x gsr / (gso + gsr)
30 On a atc flight plan, to indicate that you will overfly the way-point romeo at 120 kt at flight level 085, you will write :

Romeo / n0120 f085
31 (for this question use annex 033-3305a or flight planning manual mrjt 1 figure 4.5.3.1) given: long range cruise: temp. -63° c at fl 330 initial gross mass enroute 54 100 kg. leg flight time 29 min find: fuel consumption for this leg

1 020 kg
32 (for this question use annex 033-9556a or flight planning manual mrjt 1 figure 4.14) find the specific range for the twin jet aeroplane flying below the optimum altitude (range loss = 6%) and using the following data. given: mach .74 cruise, flight level = 310, gross mass = 50000 kg, isa conditions

176 nam/1000 kg
33 Which of the following statements is relevant for forming route portions in integrated range flight planning?

The distance from take- off up to the top of climb has to be known.
34 (for this question use annex 033-9550a or flight planning manual mrjt 1 figure 4.2.2) find the short distance cruise altitude for the twin jet aeroplane. given: brake release mass=45000 kg, temperature=isa + 20° c, trip distance=50 nautical air miles (nam)

10000 ft
35 (for this question use annex 033-9551a or flight planning manual mrjt 1 figure 4.2.2) find the short distance cruise altitude for the twin jet aeroplane. given: brake release mass=40000 kg, temperature=isa + 20° c, trip distance=150 nautical air miles (nam)

30000 ft
36 (for this question use annexes 033-11226a and 033-11226b) in standard atmosphere, assuming a mass of 197 000 kg, in order to fly at fl 370 and to be at the optimum altitude, your mach number should be:

0.82
37 (for this question use annex 033-11254a, 033-11254b, 033- 11254c and 033- 11254d) knowing that: . mass at brake release: 190 000 kg . selected cruise speed: 0.82 mach . flight leg distance: 1 500 nm . cruise level: optimum . air conditioning: standard . anti-icing: off . temperature: isa . cg: 37% assuming zero wind, the planned landing mass at destination will be:

171 200 kg
38 (for this question use annex 033-11253a, 033-11253b, 033- 11253c and 033- 11253d) knowing that: . mass at brake release: 190 000 kg . selected cruise speed: 0.82 mach . flight leg distance: 1 500 nm . cruise level: optimum . air conditioning: standard . anti-icing: off . temperature: isa . cg: 37% assuming zero wind, the planned flight time from take-off to landing needed to complete this flight will be: subject/sec aragraph wording domanda rispostaa rispostab rispostac rispostad ck1 ck2 ck3 ck4 1 france (for this question use 394 minutes 389 minutes 400 minutes 383 minutes 0 0 -1 0 annex 033-11252a,033- 11252b and 033- 11252c) knowing that: . mass at brake release: 210 000 kg . selected cruise speed: 0.82 mach . air distance: 3 000 nm . cruise level: optimum . air conditioning: standard . anti-icing: off . temperature: isa . cg: 37% assuming zero wind, the planned flight time from take-off to landing needed to complete this flight will be:

209 minutes
39 (for this question use annex 031-11231a) for a long distance flight at fl 370, "long range" regime, divided into four flight legs with the following specifications: - segment ab - ground distance: 2 000 nm. headwind component: 50 kt - segment bc - ground distance: 1 000 nm. headwind component: 30 kt - segment cd - ground distance: 500 nm. tailwind component: 70 kt - segment de - ground distance: 1 000 nm. headwind component: 20 kt the total air distance is approximately:

4 800 nm
40 (for this question use annex 031-11229a ) for a turbojet aeroplane flying with a mass of 190 000 kg, at mach 0.82, and knowing that the temperature at flight level fl 370 is - 35° c, the optimum flight altitude calculated using the annex is:

37400 ft
41 (for this question use annex 033-11261a) prior to an ifr flight, when filling in the icao flight plan, the time information which should be entered in box 13: "time" is:

Estimated off-block time.
42 (for this question use annex 033-11271a) the flight crew of a turbojet aeroplane prepares a flight using the following data: . take-off mass: 210 500 kg . flight leg ground distance: 2 500 nm . flight level fl 330. "long range" flight regime . tailwind component at this level: 70 kt . total anti-ice set on "on" . fixed taxi fuel: 500 kg. final reserve: 2 400 kg . ignore alternate fuel. the effects of climb and descent are not corrected for consumption. the quantity of fuel that must be loaded at the parking area is:

31 840 kg
43 (for this question use annex 033-11270a) a turbojet aeroplane flies using the following data: . flight level: fl 330, flight regime: "long range" (lr), mass: 156 500 kg . tailwind component at this level: 40 kt with a remaining flight time of 1 h 10 min the ground distance that can be covered by the aeroplane at cruising speed is:

539 nm
44 (for this question use annex 033-11262a) prior to an ifr flight, when filling in the icao flight plan, the time information which should be entered in box 16: "total estimated time" is the time elapsed from:

Take-off until reaching the iaf (initial approach fix) of the destination aerodrome.
45 For flight planning purposes the landing mass at alternate is taken as:

Zero fuel mass plus final reserve fuel.
46 The final reserve fuel for aeroplanes with turbine engines is

Fuel to fly for 30 minutes at holding speed at 1500 ft (450 m) above aerodrome elevation in standard conditions.
47 (for this question use annex 033-11260a and 033-11260b) the flight crew of a turbojet aeroplane prepares a flight using the following data: - flight leg air distance: 2 700 nm - flight level fl 310, true airspeed: 470 kt - tailwind component at this level: 35 kt - initially planned take- off mass (without extra fuel on board): 195 000 kg - fuel price: 0.28 euro/l at departure. 0.26 euro/l at destination to maximize savings, the commander chooses to carry extra fuel in addition to that which is necessary. the optimum quantity of fuel which should be carried in addition to the prescribed quantity is:

The fuel transport
48 (for this question use annex 033-11259a and 033-11259b) the flight crew of a turbojet aeroplane prepares a flight using the following data: - flight leg air distance: 2 700 nm - flight level fl 310, true airspeed: 470 kt - tailwind component at this level: 35 kt - initially planned take- off mass (without extra fuel on board): 180 000 kg - fuel price: 0.28 euro/l at departure. 0.26 euro/l at destination to maximize savings, the commander chooses to carry extra fuel in addition to that which is necessary. the optimum quantity of fuel which should be carried in addition to the prescribed quantity is:

The fuel transport
49 (for this question use annex 033-9579a, b,c,d or flight planning manual mrjt 1 figure 4.2.2 and figure 4.5.3.2) given: estimated take- off mass 57000 kg, ground distance 150 nm, temperature isa - 10° c, cruise at .74 mach find: cruise altitude and expected true air speed

25000 ft, 435 kt
50 (for this question use annex 033-4616a or flight planning manual mrjt 1 figure 4.3.6) in order to get alternate fuel and time, the twin - jet aeroplane operations manual graph shall be entered with:

Distance (nm), wind component, landing mass at alternate.
51 (for this question use annexes 033-11224a, 033-11224b and 033- 11224c) given: . take-off mass: 150 000 kg . planned cruise at fl . long range mach . standard atmosphere (isa) . cg: 37 % you have to cover an air distance of 2 000 nm. your flight time will be:

304 minutes
52 (for this question use annex 033-9546a or flight planning manual mrjt 1 figure 4.3.6) in order to find alternate fuel and time to alternate, the aeroplane operating manual shall be entered with:

Distance in nautical miles (nm), wind component, landing mass at alternate
53 (for this question use annex 033-11186a) which best describes be maximum intensity of icing, if any, at fl150 in the vicinity of bucharest (45° n 026° e) ?

Moderate
54 (for this question use annex 033-11194a) the wind direction and velocity (° /kt) at 40° n 040° e is

330/75
55 (for this question use annex 033-11192a) the approximate mean wind component (kt) at mach 0.78 along true course 270° at 50°n from 000° to 010° w is

40 kt headwind component
56 (for this question use annex 033-11191a) the wind direction and velocity (° /kt) at 60° n 015° w is

290/155
57 (for this question use annex 033-11190a) the wind direction and velocity (° /kt) at 50° n 040° e is:

020/70
58 (for this question use annex 033-11189a) the wind velocity over italy is

A maximum of 110 kt at fl380
59 (for this question use annex 033-11228a) for a long distance flight at fl 390, "long range" regime, divided into four flight legs with the following characteristics: - segment ab - ground distance: 2 000 nm. head wind component: 50 kt - segment bc - ground distance: 1 000 nm. head wind component: 30 kt - segment cd - ground distance: 500 nm. tail wind component: 100 kt - segment de - ground distance: 1 000 nm. head wind component: 70 kt the air distance of the entire flight is approximately:

4 900 nm
60 (for this question use annex 033-11187a) which best describes the maximum intensity of cat, if any, forecast for fl330 over benghazi (32° n 020° e) ?

Nil
61 (for this question use annex 033-11197a) which affects the visibility forecast for 0000 utc at lahore (opla) ?

Smoke
62 (for this question use annex 033-11185a) which best describes the significant cloud, if any, forecast for the area southwest of bodo (67° n 014° e)

5 to 7 oktas cu and cb base below fl100, tops fl180
63 (for this question use annex 033-11184a) which describes the maximum intensity of icing, if any, at fl180 in the vicinity of casablanca (33° n 008° w) ?

Severe
64 (for this question use annex 033-11183a) in the vicinity of paris (49° n 003° e) the tropopause is at about

Fl400
65 (for this question use annex 033-11182a) the surface weather system over england (53° n 002° w) is

An occluded front moving east
66 (for this question use annex 033-11181a) which describes the worst hazard, if any, that could be associated with the type of feature at 38°n 015° e ?

Engine flame out and windscreen damage
67 (for this question use annexes 033-11074a, 033-11074b, 033- 11074c and 033- 11074d) planning a mach 0,82 cruise at fl 390, the estimated landing mass is 160 000 kg. the ground distance is 2 800 nm and the mean wind is equal to zero. isa conditions. fuel consumption will be:

32 657 kg
68 (for this question use annexes 033-11073a, 033-11073b, 033- 11073c and 033- 11073d) planning a mach 0,82 cruise at fl 390, the estimated landing mass is 160 000 kg. the ground distance is 2 800 nm and the mean tailwind is 100 kt. isa conditions. fuel consumption will be:

26 950 kg
69 (for this question use annex 033-11188a) the maximum wind velocity (° /kt) shown in the vicinity of munich (48° n 012° e) is :

300/140
70 (for this question use annex 033-11208a) a turbojet aeroplane, weighing 200 000 kg, initiates its cruise at the optimum level at m 0.84 (isa, cg=37%, total anti ice on). a head wind of 30 kt is experienced and, after a distance of 500 nm, severe icing is encountered and this requires an immediate descent. the aeroplane mass at start of descent is:

192 500 kg
71 (for this question use annexes 033-11223a, 033-11223b and 033- 11223c) given: . take-off mass: 150 000 kg . planned cruise at fl . long range mach . standard atmosphere (isa) . cg: 37 % covering an air distance of 2 000 nm, your trip fuel from take- off to landing will be:

22 360 kg
72 (for this question use annex 033-11216a) a turbojet aeroplane is flying using the following data: . flight level fl 250, long range (lr) cruise, mass of 150 000 kg . temperature: isa . head wind component: 100 kt . remaining flight time: 1 h 40 min the ground distance that can be covered during the cruise flight is:

445 nm
73 (for this question use annex 033-11215a) a turbojet aeroplane is flying using the following data: . optimum flight level, mach 0.80, mass of 190 000 kg . temperature: isa . tailwind component: 100 kt the fuel mileage and the fuel consumption per hour are:

105 nm/1000 kg. 5330 kg/h
74 (for this question use annex 033-11214a) assuming the following data: . ground distance to be covered: 2 600 nm . cruise flight level: fl . cruising speed: mach 0.82 (true airspeed: 470 kt) . wind: zero wind during flight . planned destination landing mass: 140 000 kg . temperature: isa + 15° c . cg: 37 % . total anti-ice: on . air conditioning: normal fuel consumption for such a flight is:

31 500 kg
75 (for this question use annex 033-11213a and 033-11213b) assuming the following data: . ground distance to be covered: 2 500 nm . cruise flight level: fl . cruising speed: mach 0.82 (true airspeed: 470 kt) . tailwind component: 40 kt . planned destination landing mass: 150 000 kg . temperature: isa . cg: 37% . total anti-ice: off . air conditioning: normal fuel consumption for such a flight is:

27 800 kg
76 (for this question use annex 033-11212a and 033-11212b) assuming the following data: . ground distance to be covered: 1 500 nm . cruise flight level: fl . cruising speed: mach 0.82 (true airspeed: 470 kt) . head wind component: 40 kt . planned destination landing mass: 140 000 kg . temperature: isa + 15° c . cg: 37 % . total anti-ice: on . pack flow: hi fuel consumption for such a flight is:

23 500 kg
77 (for this question use annex 033-11211a and 033-11211b ) assuming the following data: . ground distance to be covered: 2 000 nm . cruise flight level: fl . cruising speed: mach 0.82 (true airspeed: 470 kt) . head wind component: 30 kt . planned destination landing mass: 160 000 kg . temperature: isa . cg: 37% . total anti-ice: on . pack flow: hi time needed to carry out such a flight is:

4 h 43 min
78 (for this question use annex 033-11195a) what lowest cloud conditions (oktas/ft) are forecast for 1900 utc at hamburg (eddh) ?

5 to 7 at 500
79 (for this question use annex 033-11209a and 033-11209b) assuming a departure/destination fuel price ratio of 0.91, the commander decides to optimize fuel tankering by using the following data: . cruise flight level: fl . air distance to be covered: 2 500 nm . planned take-off mass: 200 000 kg (with the minimum prescribed fuel quantity of 38 000 kg that includes a trip fuel of 29 000 kg) . maximum landing mass: 180 000 kg . maximum take-off mass: 205 000 kg . maximum tank capacity: 40 000 kg the additional fuel quantity will be:

0 kg
80 (for this question use annex 033-11196a) what minimum visibility (m) is forecast for 0600 utc at london lhr (egll) ?

1500
81 (for this question use annex 033-11207a and 033-11207b) a turbojet aeroplane is prepared for a 1300 nm flight at fl 350, with a true airspeed of 460 kt and a head wind of 160 kt. the take-off runway limitation is 174 000 kg, the planned departure mass is 160 000 kg. the departure fuel price is equal to 0.92 times the arrival fuel price (fuel price ratio = 0.92). in order for the airline to optimize its savings, the additional fuel quantity that must be loaded on board is:

14 000 kg
82 (for this question use annexes 033-11204a, 033-11204b and 033- 11204c) the flight crew of a turbojet aeroplane prepares a flight using the following data: flight leg ground distance: 4 000 nm flight level fl 370. "long range" flight regime effective wind at this level: head wind of 50 kt temperature: isa centre of gravity (cg): 37 % pack flow : low (lo) anti ice: off reference landing mass: 140 000 kg taxi fuel: 500 kg final reserve fuel: 2 400 kg the fuel quantity which must be loaded on board the aircraft is:

51 860 kg
83 (for this question use annex 033-11202a) which of the following flight levels, if any, is forecast to be clear of significant cloud, icing and cat along the marked route from shannon (53° n 10° w) to berlin (53° n 13° e) ?

Fl250
84 (for this question use annex 033-11201a) what mean temperature (° c) is likely on a course of 360° (t) from 40° n to 50° n at 040° e ?

-47
85 A metar reads : sa1430 35002ky 7000 skc 21/03 qi024 = which of the following information is contained in this metar ?

Temperature/dewpoint
86 (for this question use annex 033-11198a) what is the earliest time (utc), if any, that thunderstorms are forecast for doha (otbd) ?

1000
87 (for this question use annex 033-11210a and 033-11210b) assuming a departure/destination fuel price ratio of 0.92, the commander decides to optimize fuel tankering by using the following data: . cruise flight level: fl . air distance to be covered: 1 830 nm . planned take-off mass: 190 000 kg (with a minimum prescribed fuel quantity of 30 000 kg that includes a trip fuel of 22 000 kg) . maximum landing mass: 180 000 kg . maximum take-off mass: 205 000 kg . maximum tank capacity: 40 000 kg the additional fuel quantity will be:

10 000 kg
88 (for this question use annex 033-9576a or route manual chart e(hi)5 caa-edition) given: leg moulins(n46 24.4 e003 38.0)/dijon(n47 16.3 e005 05.9). find: route designator and total distance

Direct route, 69 nm
89 Given: true course (tc) 017° , w/v 340° /30 kt, true air speed (tas) 420 kt find: wind correction angle (wca) and ground speed (gs)

Wca -2° , gs 396 kt
90 (for this question use annex 033-9578a or flight planning manual mrjt 1 figure 4.5.3.1) given: long range cruise, oat -45° c at fl 350, gross mass at the beginning of the leg 40000 kg, gross mass at the end of the leg 39000 kg find: true air speed (tas) and cruise distance (nam) for a twin jet aeroplane

Tas 433 kt, 227 nam
91 (for this question use annex 033-9573a or flight planning manual mrjt 1 figure 4.5.1) given: brake release mass 57500 kg, initial fl 280, average temperature during climb isa -10° c, average head wind component 18 kt find: climb time for enroute climb 280/.74

13 min
92 (for this question use annexes 033-3911a and 033-3911b) or (route manual chart e(hi)4 caa-edition and flight planning manual figure 4.3.6) planning a flight from paris charles de gaulle (n49 00.9 e002 36.9) to london heathrow (n51 29.2 w 000 27.9) for a twin - jet aeroplane. the alternate airport is manchester (n53 21.4 w 002 15.7) preplanning: the wind from london to manchester is 250° /30 kt the distance from london to manchester is 160 nm. assume the estimated landing mass at alternate is about 50 000 kg. find the alternate fuel and the according time.

1 450 kg and 32 minutes.
93 On a vfr flight plan, the total estimated time is: 15 minutes

The estimated time from take-off the destination airport
94 A helicopter is on a 150 nm leg to an off-shore oil rig. its tas is 130 kt with a 20 kt tailwind, its endurance is 3h30min without reserve. upon reaching destination, it is asked to proceed outbound to locate a ship in distress, on a track which gives a 15 kt tailwind. maintaining zero reserve on return to the oil rig, the helicopter can fly outbound for distance of:

160.3 nm
95 On an atc flight plan, an aircraft indicated as "h" for "heavy" certified take-off mass

Is of the highest wake turbulence category
96 (for this question use annex 033-9575a or flight planning manual mrjt 1 figure 4.5.1) given: brake release mass 57500 kg, temperature isa - 10° c, average headwind component 16 kt, initial fl 280 find: climb fuel for enroute climb 280/.74

1138 kg
97 (for this question use annex 033-3910a or flight planning manual mrjt 1 figure 4.4) planning a flight from paris charles de gaulle to london heathrow for a twin - jet aeroplane. preplanning: dry operating mass (dom): 34 000 kg traffic load: 13 000 kg the holding is planned at 1 500 ft above alternate elevation. the alternate elevation is 256 ft. the holding is planned for 30 minutes with no reductions. determine the estimated landing mass at alternate manchester.

48 125 kg.
98 (for this question use annex 033-9574a or flight planning manual mrjt 1 figure 4.5.1) given: brake release mass 57500 kg, temperature isa - 10° c, headwind component 16 kt, initial fl 280 find: still air distance (nam) and ground distance (nm) for the enroute climb 280/.74

62 nam, 59 nm
99 (for this question use annexes 033-3912a and 033-3912b or route manual chart e(hi)4 caa-edition and flight planning manual figure 4.3.2a) planning a flight from paris charles de gaulle (n49 00.9 e002 36.9) to london heathrow (n51 29.2 w000 27.9) for a twin - jet aeroplane. preplanning: powersetting: mach= 0.74 planned flight level fl the landing mass in the fuel graph is 50 000 kg the trip distance used for calculation is 200 nm the wind from paris to london is 280° /40 kt find the estimated trip fuel.

1 740 kg.
100 Planning a flight from paris (charles de gaulle) to london (heathrow) for a twin - jet aeroplane. preplanning: maximum take-off mass: 62 800 kg maximum zero fuel mass: 51 250 kg maximum landing mass: 54 900 kg maximum taxi mass: 63 050 kg assume the following preplanning results: trip fuel: 1 800 kg alternate fuel: 1 400 kg holding fuel (final reserve): 1 225 kg dry operating mass: 34 000 kg traffic load: 13 000 kg catering: 750 kg baggage: 3 500 kg find the take-off mass (tom):

51 515 kg.
101 (for this question use annex 033-9564a or flight planning manual mrjt 1 figure 4.5.1) find: time, fuel, still air distance and tas for an enroute climb 280/.74 to fl 350. given: brake release mass 64000 kg, isa +10° c, airport elevation 3000 ft

26 min, 1975 kg, 157 nautical air miles (nam), 399 kt
102 Find the time to the point of safe return (psr). given: maximum useable fuel 15000 kg, minimum reserve fuel 3500 kg, tas out 425 kt, head wind component out 30 kt, tas return 430 kt, tailwind component return 20 kt, average fuel flow 2150 kg/h

2 h 51 min
103 (for this question use annex 033-9571a or flight planning manual mrjt 1 figure 4.5.3.1) find: final fuel consumption for this leg given: long range cruise, temperature - 63° c, fl 330, initial gross mass enroute 54100 kg, leg flight time 29 min

1093 kg
104 (for this question use annex 033-9572a or flight planning manual mrjt 1 figure 4.5.3.1) find: air distance in nautical air miles (nam) for this leg and fuel consumption given: flight time from top of climb at fl 280 to the enroute point is 48 minutes. cruise procedure is long range cruise. temperature is isa -5° c. the take-off mass is 56000 kg and climb fuel 1100 kg.

345 nam. 1994 kg
105 Given : distance a to b 3060 nm mean groundspeed "out" 440 kt mean groundspeed "back" 540 kt safe endurance 10 hours the time to the point of safe return (psr) is:

5 hours 30 minutes
106 (for this question use annex 033-9543a flight planning manual mrjt 1 figure 4.4) the final reserve fuel taken from the holding planning table for the twin jet aeroplane is based on the following parameters:

Pressure altitude, aeroplane mass and flaps up with minimum drag airspeed
107 Integrated range curves or tables are presented in the aeroplane operations manuals. their purpose is

To determine the fuel consumption for a certain still air distance considering the decreasing fuel flow aeroplane.
108 Given : distance a to b 2050 nm mean groundspeed 440 kt mean groundspeed "back" 540 kt the distance to the point of equal time (pet) between a and b is :

1130 nm
109 Given : distance x to y 2700 nm mach number 0.75 temperature -45° c mean wind component 10 kt tailwind mean wind compontent "back" 35 kt tailwind the distance from x to the point of equal time (pet) between x and y is : 3 united ki (for this question use (i) 2000 ft (ii) 160° (i) 200 ft (ii) 223° (i) 3000 ft (ii) 160° (i) 3000 ft (ii) 223° -1 0 0 0 annex 033- 11059a or route manual chart amsterdam schiphol ils dme rwy 22 (11-6)) the missed approach procedure is to climb to an alitude of (i)------------ on a track of (ii) ----------

1386 nm
110 Given : x = distance a to point of equal time (pet) between a and b e = endurance d = distance a to b o = groundspeed "on" h = groundspeed "back" the formula for calculating the distance x to point of equal time (pet) is:

D x h x = _____ o + h
111 Given : course a to b 088° (t) distance 1250 nm mean tas 330 kt mean w/v 340° /60 kt the time from a to the pet between a and b is :

1 hour 42 minutes
112 For a repetitive flight plan (rpl) to be used, flights must take place on a regular basis on at least :

10 occasions
113 In the ats flight plan item 15 (cruising speed), when not expressed as a mach number, cruising speed is expressed as :

Tas
114 In the ats flight plan item 13, in a flight plan submitted before departure, the departure time entered is the :

Estimated off-block time
115 In the ats flight plan item 15, a cruising speed of 470 knots will be entered as :

N0470
116 When an ats flight plan is submitted for a flight outside designated ats routes, points included in item 15 (route) should not normally be at intervals of more than :

30 minutes flying time or 370 km
117 In an ats flight plan, item 15 (route), a cruising pressure altitude of 32000 feet would be entered as :

F320
118 In an ats flight plan item 15 (route), in terms of latitude and longitude, a significant point at 41° 35" north 4° 15" east should be entered as :

4135n00415e
119 An aircraft plans to depart london at 1000 utc and arrive at munich (eddm) at 1215 utc. in the ats flight plan item 16 (destination/eet) should be entered with :

Eddm 0215
120 In the ats flight plan item 19, if the number of passengers to be carried is not when the plan is ready for filing :

Tbn (to be notified) may be entered in the relevant box known
121 (for this question use annex 033-12289a) in the ats flight plan item 19, emergency and survival equipment carried on the flight should be indicated by :

Crossing out the box relevant to any equipment not carried
122 According to the chart the minimum obstruction clearance altitude (moca) is 8500 ft. the meteorological data gives an outside air temperature of -20°c at fl 85. the qnh, given by a met. station at an elevation of 4000ft, is 1003 hpa. what is the minimum pressure altitude which should be flown according to the given moca?

8800 ft.
123 A "current flight plan" is a :

Filed flight plan with amendments and clearance included.
124 In an ats flight plan item 15, in order to define a position as a bearing and distance from a vor, the group of figures should consist of :

Vor ident, magnetic bearing and distance in nautical miles
125 (for this question use annex 033-12372a or route manual chart nap) the distance (nm) from a (64° n006° e) to c (62° n020° w) is

720
126 (for this question use annex 033-12374a or route manual chart nap) the average true course from a (64° n006° e) to c (62° n020° w) is

259°
127 (for this question use annex 033-12376a or route manual chart nap) the initial true course from a (64° n006° e) to c (62° n020° w) is

271°
128 (for this question use annex 033-12377a or route manual chart nap) the distance (nm) from c (62° n020° w) to b (58° n004° e) is

760
129 When completing an ats flight plan, an elapsed time (item 16) of 1 hour 55 minutes should be entered as :

155
130 Which of the following statements filing a flight plan is correct? time of departure.

In case of flow control repetitive flight plan for filed at least three hours in advance of the
131 (for this question use annex 033-3311a or flight planning manual mrjt 1 figure 4.5.3.1) given :fl 330. long range cruise. oat - 63° c. gross mass 50 500 kg. find: true airspeed (tas)

420 kt
132 In the ats flight plan item 15, when entering a route for which standard departure (sid) and standard arrival (star) procedures exist :

Both should be entered in the ats plan where appropriate
133 In the ats flight plan item 15, it is necessary to enter any point at which a change of cruising speed takes place. for this purpose a "change of speed" is defined as :

5% tas or 0.01 mach or more
134 (for this question use annex 033-12285a) in the ats flight plan item 7, for a radio equipped aircraft, the identifier must always :

Be the rtf callsign to be used
135 (for this question use annex 033-3309a or flight planning manual mrjt 1 figure 4.5.1) given : mass at brake release 57 500 kg. temperature isa -10° c. average head wind component 16 kt initial cruise fl 280 find: climb fuel

1138 kg
136 When completing an ats flight plan for a european destination, clock times are to be expressed in :

Utc
137 (for this question use annexes 033-3308a or flight planning manual mrjt 1 figure 4.5.1) given : brake release mass 57 500 kg temperature isa -10° c. head wind component 16 kt initial fl 280 find: still air distance (nam) and ground distance (nm) for the climb

62 nam. 59 nm
138 (for this question use annex 033-12364a or flight planning manual mrjt 1 figure 4.7.2) for the purpose of planning an extended range flight it is required that with a start of diversion mass of 55000kg a diversion of 600 nautical miles should be achieved in 90 minutes. using the above table, the only listed cruise technique to meet that requirement is :

M/kias .74/330
139 (for this question use annex 033-12281a) item 9 of the ats flight plan includes "number and type of aircraft". in this case "number" means :

The number of aircraft flying in a group
140 (for this question use annex 033-12280a) when completing item 9 of the ats flight plan, if there is no appropriate aircraft designator, the following should be entered :

Zzzz followed by an entry in item 18
141 For the purposes of item 9 (wake turbulence category) of the ats flight plan, an aircraft with a maximum certificated take-off mass of 62000 kg is :

Medium "m"
142 An aircraft has a maximum certificated take-off mass of 137000 kg but is operating at take-off mass 135000 kg. in item 9 of the ats flight plan its wake turbulence category is :

Heavy "h"
143 (for this question use annex 033-12277a) in the event that selcal, is prescribed by an appropriate authority, in which section of the ats flight plan will the selcal code be entered ?

Other
144 (for this question use annex 033-12276a) in the ats flight plan item 15, for a flight along a designated route, where the departure aerodrome is not on or connected to that route :

The letters "dct" should be followed by the point of joining the ats route
145 An operator (turbojet engine) shall ensure that calculation up of usable fuel for a flight for which no destination alternate is required includes, taxi fuel, trip fuel, contingency fuel and fuel to fly for:

30 minutes at holding speed at 450 m above aerodrome elevation in standard conditions
146 (for this question use annex 033-9739a, aeronautical chart icao 1:500 000 stuttgart (no 47/6) or route manual vfr+gps chart ed-6) flying vfr from peiting (47° 48.0"n, 010° 55.5"e) to immenstadt (47° 33.5"n, 010° 13.0"e).determine the minimum altitude within a corridor 5nm left and 5 nm right of the courseline in order to stay 1000 ft clear of obstacles.

6900 ft
147 (for this question use annex 033-9738a, aeronautical chart icao 1:500 000 stuttgart (no 47/6) or route manual vfr+gps chart ed-6) flying vfr from peiting (47° 48.0"n, 010° 55.5"e) to immenstadt (47° 33.5"n, 010° 13.0"e) determine the distance.

32 nm
148 (for this question use annex 033-12373a or route manual chart nap) the average magnetic course from a (64° n006° e) to c (62° n020° w) is

271°
149 Mark the correct statement: if a decision point procedure is applied for flight planning,

The trip fuel to the destination aerodrome is to be calculated via the decision point.
150 (for this question use annex 033-3306a or flight planning manual mrjt 1 figure 4.5.3.1) given: flight time from top of climb to the enroute point in fl280 is 48 min. cruise procedure is long range cruise (lrc). temp. isa -5° c take-off mass 56 000 kg climb fuel 1 100 kg find: distance in nautical air miles (nam) for this leg and fuel consumption:

345 nam. 2000 kg
151 (for this question use annex 033-3307a or flight planning manual mrjt 1 figure 4.5.1) given: estimated take- off mass 57 500 kg. initial cruise fl 280. average temperature during climb isa -10° c. average head wind component 18 kt find: climb time

13 min
152 (for this question use annex 033-9708a or flight planning manual mrjt 1 figure 4.5.3.2) planning an ifr-flight from paris to london for the twin jet aeroplane. given: gross mass 50000 kg, fl 280, isa deviation -10° c, cruise procedure mach 0.74 determine the tas

430 kt
153 Given : true track 017. w /v 340/30. tas 420 kt find : wind correction angle (wca) and ground speed (gs)

Wca -2° . gs 396 kt
154 (for this question use annex 033-9701a or flight planning manual mrjt 1 figure 4.5.1) planning an ifr-flight from paris to london for the twin jet aeroplane. given: estimated take- off mass (tom) 52000 kg, airport elevation 387 ft, fl 280, w/v 280° /40 kt, isa deviation -10° c, average true course 340° find: fuel to the top of climb (toc)

1000 kg
155 (for this question use annex 033-9700a or flight planning manual mrjt 1 figure 4.5.1) planning an ifr-flight from paris (charles de gaulle) to london (heathrow) for the twin jet aeroplane. given: estimated take- off mass (tom) 52000 kg, airport elevation 387 ft, fl 280, w/v 280° /40 kt, isa deviation -10° c, average true course 340° find: time to the top of climb (toc)

11 min
156 (for this question use annex 033-9699a and 033-9699b or flight planning manual mrjt 1 paragraph 5.1 and figure 4.5.1) planning an ifr-flight from paris to london for a twin jet aeroplane. given: estimated take- off mass (tom) 52000 kg, airport elevation 387 ft, fl 280, w/v 280° /40 kt, isa- deviation -10° c, average true course 340° find: ground distance to the top of climb (toc)

50 nm
157 (for this question use annex 033-9698a or flight planning manual mrjt 1 figure 4.4) given: twin jet aeroplane, estimated mass on arrival at the alternate 50000 kg, elevation at destination aerodrome 3500 ft, elevation at alternate aerodrome 30 ft find: final reserve fuel

1180 kg
158 (for this question use annex 033-9697a or flight planning manual mrjt 1 figure 4.4) given: twin jet aeroplane, estimated mass on arrival at the alternate 50000 kg, estimated mass on arrival at the destination 52525 kg, alternate elevation msl, destination elevation 1500 ft find: final reserve fuel and corresponding time

1180 kg, 30 min
159 (for this question use annex 033-9696a or flight planning manual mrjt 1 figure 4.3.6) given: twin jet aeroplane, dry operating mass 35500 kg, traffic load 14500 kg, final reserve fuel 1200 kg, distance to alternate 95 nm, tailwind component 10 kt find: fuel required and trip time to alternate with simplified flight planning (alternate planning)

1000 kg, 24 min
160 (for this question use annex 033-9695a or flight planning manual mrjt 1 figure 4.3.3c) given: twin jet aeroplane, ground distance to destination aerodrome is 1600 nm, headwind component 50 kt, fl 330, cruise .78 mach, isa deviation +20° c and landing mass 55000 kg find: fuel required and trip time with simplified flight planning

12400 kg, 04 h 00 min
161 (for this question use annexes 033-9494a and 033-9694b or flight planning manual mrjt 1 figure 4.5.3.1 and figure 4.3.1b) given: twin jet aeroplane, zero fuel mass 50000 kg, landing mass at alternate 52000 kg, final reserve fuel 2000 kg, alternate fuel 1000 kg, flight to destination: distance 720 nm, true course 030° , w/v 340° /30 kt, long range cruise, fl 330, outside air temperature -30° c find: estimated trip fuel and time with simplified flight planning

4800 kg, 01 h 51 min
162 Given: maximum allowable take-off mass 64400 kg, maximum landing mass 56200 kg, maximum zero fuel mass 53000 kg, dry operating mass 35500 kg, traffic load 14500 kg, trip fuel 4900 kg, take-off fuel 7400 kg find: maximum additional load

3000 kg
163 Given: maximum allowable take-off mass 64400 kg, maximum landing mass 56200 kg, maximum zero fuel mass 53000 kg, dry operating mass 35500 kg, traffic load 14500 kg, trip fuel 4900 kg, minimum take-off fuel 7400 kg find: maximum allowable take-off fuel

11100 kg
164 (for this question use annex 033-9691a or flight planning manual mrjt 1 figure 4.5.3.1) given: twin jet aeroplane, fl 330, long range cruise, outside air temperature -63° c, gross mass 50500 kg find: true air speed (tas)

420 kt
165 (for this question use annex 033-12367a or flight planning manual mrjt 1 figure 4.5.4) a descent is planned at .74/250kias from 35000ft to 5000ft. how much fuel will be consumed during this descent?

150kg
166 A repetitive flight plan (rpl) is filed for a scheduled flight: paris- orly to angouleme, paris orly as alternate. following heavy snow falls, angouleme airport will be closed at the expected time of arrival. the airline decides before departure to plan a re-routing of that flight to limoges.

The rpl must be cancelled for that day and a specific flight plan has to be filed.
167 An aeroplane flies at an airspeed of 380 kt. lt flies from a to b and back to a. distance ab = 480 nm. when going from a to b, it experiences a headwind component = 60 kt. the wind remains constant. the duration of the flight will be:

2h 35min
168 (for this question use annex 033-12366a or flight planning manual mrjt 1 figure 4.7.2) an aircraft on an extended range operation is required never to be more than 120 minutes from an alternate, based on 1 engine inoperative lrc conditions in isa. using the above table and a given mass of 40000 kg at the most critical point, the maximum air distance to the relevant alternate is :

735 nm
169 (for this question use annex 033-12368a or route manual chart nap) the average magnetic course from c (62° n020° w) to b (58° n004° e) is

119°
170 (for this question use annex 033-12369a or route manual chart nap) the average true course from c (62° n020° w) to b (58° n004° e) is

109°
171 (for this question use annex 033-12370a or route manual chart nap) the initial magnetic course from c (62° n020° w) to b (58° n004° e) is

116°
172 (for this question use annex 033-12371a or route manual chart nap) the initial true course from c (62° n020° w) to b (58° n004° e) is

098°
173 (for this question use annex 033-12375a or route manual chart nap) the initial magnetic course from a (64° n006° e) to c (62° n020° w) is

275°
174 (for this question use annex 033-12365a or flight planning manual mrjt 1 figure 4.7.2) using the above table, in isa conditions and at a speed of m.70/280kias, in an elapsed time of 90 minutes an aircraft with mass at point of diversion 48000 kg could divert a distance of :

584 nm
175 (for this question use annex 033-12356a or route manual chart 5 at(hi)) the initial great circle course from position a (80° 00"n 170° 00"e) to position b (75° 00"n 011° e) is 177° (g). the final grid course at position b will be :

177° (g)
176 (for this question use annex 033-9734a, aeronautical chart icao 1:500 000 stuttgart (no 47/6) or route manual vfr+gps chart ed-6) flying vfr from villingen (48° 03.5"n, 008° 27.0"e) to freudenstadt (48° 28.0"n, 008° 24.0"e) determine the magnetic course.

356°
177 (for this question use annex 033-9735a, aeronautical chart icao 1:500 000 stuttgart (no 47/6) or route manual vfr+gps chart ed-6) flying vfr from villingen (48° 03.5"n, 008° 27.0"e) to freudenstadt (48° 28.0"n, 008° 24.0"e) determine the distance.

24 nm
178 (for this question use annex 033-9736a, aeronautical chart icao 1:500 000 stuttgart (no 47/6) or route manual vfr+gps chart ed-6) flying vfr from villingen (48° 03.5"n, 008° 27.0"e) to freudenstadt (48° 28.0"n, 008° 24.0"e).determine the minimum altitude within a corridor 5nm left and 5 nm right of the courseline in order to stay 1000 ft clear of obstacles.

3900 ft
179 Given: dry operating mass (dom)= 33500 kg load= 7600 kg maximum allowable take-off mass= 66200 kg standard taxi fuel= 200 kg tank capacity= 16 100 kg the maximum possible take-off fuel is:

15 900 kg
180 The required time for final reserve fuel for turbojet aeroplane is:

30 min.
181 How many feet you have to climb to reach fl 75? given: fl 75. departure aerodrome elevation 1500 ft. qnh = 1023 hpa. temperature = isa. 1 hpa = 30 ft

6300 ft.
182 Vfr flights shall not be flown over the congested areas of cities at a height less than

1000 ft above the heighest obstacle within a radius of 600 m from the aircraft.
183 (for this question use annex 033-12361a or flight planning manual mrjt 1 figure 4.7.3) given: distance to alternate 950 nm head wind component 20 kt mass at point of diversion 50000kg diversion fuel available 5800kg the minimum pressure altitude at which the above conditions may be met is :

22000ft
184 (for this question use annex 033-12360a or flight planning manual mrjt 1 figure 4.7.3) given: diversion distance 650 nm diversion pressure altitude 16 000 ft mass at point of diversion 57 000 kg head wind component 20 kt temperature isa + 15° c the diversion (a) fuel required and (b) time, are approximately :

(a) 4800kg (b) 2h 03min
185 (for this question use annex 033-12358a or flight planning manual mrjt 1 figure 4.7.3) given: diversion fuel available 8500kg diversion cruise altitude 10000ft mass at point of diversion 62500kg head wind component 50kt temperature isa -5° c the (a) maximum diversion distance, and (b) elapsed time alternate, are approximately :

(a) 860 nm (b) 3h 20 min
186 (for this question use annex 033-12355a or route manual chart 5 at(hi)) the initial great circle true course from keflavik (64° 00"n 022° 36" w) to vigra (62° 33"n 006° 02"e) measures 084° . on a polar enroute chart where the grid is aligned with the 000° meridian the initial grid course will be :

106°
187 (for this question use annex 033-12354a or route manual chart nap) on a direct great circle course from shannon (52° 43" n 008° 53"w) to gander (48° 54"n054° 32"w), the (a) average true course, and (b) distance, are :

(a) 262° (b) 1720 nm
188 (for this question use annex 033-12353a or route manual chart 5 at(hi)) on airway pts p from vigra (62° 334n 006° 02"e), the initial great circle grid course is :

344
189 An aircraft is flying at mach 0.84 at fl 330. the static air temperature is -48° c and the headwind component 52 kt. at 1338 utc the controller requests the pilot to cross the meridian of 030w at 1500 utc. given the distance to go is 570 nm, the reduced mach no. should be:

0.80
190 On a given path, it is possible to chose between four flight levels (fl), each associated with a mandatory flight mach number (m). the flight conditions, static air temperature (sat) and headwind component (hwc) are given below: fl 370 - m = 0.80 ts = -60° c hwc = - 15 kt fl 330 - m = 0.78 ts = -60° c hwc= - 5 kt fl 290 - m = 0.80 ts = -55° c hwc = - 15 kt fl 270 - m = 0.76 ts = -43° c hwc = the flight level allowing the highest ground speed is:

Fl270
191 A twin-jet aeroplane carries out the w ashington- paris flight. when it reaches point k (35° n - 048° w) a non- mechanical event makes the captain consider rerouting to one of the three following fields. the flight conditions are: - from k to bermudas (distance 847nm, headwind component=18 kt) - from k to santa maria (distance 1112 nm, tailwind component=120 kt) - from k to gander (distance 883 nm, wind component=0). with an aeroplane true airspeed of 460 kt, the field selected will be that more rapidly reached:

Bermudas or gander, or santa maria
192 (for this question use annex 033-9557a or flight planning manual mrjt 1 figure 4.5.3.2) find the fuel flow for the twin jet aeroplane with regard to the following data. given: mach .74 cruise, flight level 310, gross mass 50000 kg, isa conditions

2300 kg/h
193 (for this question use annex 033-12359a or flight planning manual mrjt 1 figure 4.7.3) given: diversion distance 720nm tail wind component 25kt mass at point of diversion 55000kg temperature isa diversion fuel available 4250kg what is the minimum pressure altitude at which the above conditions may be met ?

20000ft
194 (for this question use annex 033-12316a ) the w/v (° /kt) at 40° n 020° w is

310/40
195 (for this question use annex 033-12315a) what mean temperature (° c) is likely on a true course of 270° from 025° e to 010° e at 45° n ?

-50
196 (for this question use annex 033-12314a ) the w/v (° /kt) at 50° n015° w is:

290/75
197 (for this question use annex 033-12318a) the w/v (° /kt) at 60° n015° w is

300/60
198 (for this question use annex 033-11245a and 033-11245b) the flight crew of a turbojet aeroplane prepares a flight using the following data: - flight leg distance: 3 500 nm - flight level fl 310, true airspeed: 450 kt - headwind component at this level: 5 kt - initially planned take- off mass (without extra fuel on board): 180 000 kg - fuel price: 0.35 $/l at departure. 0.315 $/l at destination to maximize savings, the commander chooses to carry extra fuel in addition to that which is necessary. using the appended annex, the optimum quantity of fuel which should be carried in addition to the prescribed quantity is:

The fuel transport
199 (for this question use annex 033-11244a and 033-11244b) the flight crew of a turbojet aeroplane prepares a flight using the following data: - flight leg distance: 4 000 nm - flight level fl 310, true airspeed: 450 kt - headwind component at this level: 50 kt - initially planned take- off mass (without extra fuel on board): 170 000 kg - fuel price: 0.27 euro/l at departure. 0.30 euro/l at destination to maximize savings, the commander chooses to carry extra fuel in addition to that which is necessary. using the appended annex, the optimum quantity of fuel which should be carried in addition to the prescribed quantity is:

8 000 kg
200 (for this question use annex 033-11243a and 033-11243b) the flight crew of a turbojet aeroplane prepares a flight using the following data: - flight leg distance: 3 500 nm - flight level fl 310, true airspeed: 450 kt - headwind component at this level: - 55 kt - initially planned take- off mass (without extra fuel on board): 180 000 kg - fuel price: 0.30 euro/l at departure. 0.27 euro/l at destination to maximize savings, the commander decides to carry extra fuel in addition to that which is necessary. using the appended annex, the optimum quantity of fuel which should be carried in addition to the prescribed quantity is:

The fuel transport
201 (for this question use annex 033-11241a) the flight crew of a turbojet aeroplane prepares a flight using the following data: - flight level fl 370 at "long range" (lr) cruise regime - mass at brake release: 212 800 kg - flight leg ground distance: 2 500 nm - temperatures: isa - cg: 37% - headwind component: 30 kt - "total anti-ice" set on "on" for the entire flight - no requested climb and descent correction of the fuel consumption the fuel consumption (from take-off to landing) is: 1 france (for this question use 0.29 $/l 0.30 $/l 0.24 $/l 0.28 $/l 0 -1 0 0 annex 033-11240a and 033-11240b) the flight crew of a turbojet aeroplane prepares a flight using the following data: - flight leg distance: 3 500 nm - flight level fl 310, true airspeed: 450 kt - headwind component at this level: 55 kt - initially planned take- off mass (without extra fuel on board): 180 000 kg - fuel price: 0.27 $/l at destination the commander may carry on board 8 000 kg more fuel than that which is necessary. for this fuel transport operation to be cost effective, the maximum fuel price at departure must be: 1 france (for this question use 0.27 $/l 0.26 $/l 0.28 $/l 0.33 $/l -1 0 0 0 annex 033-11239a and 031-11239b) the flight crew of a turbojet aeroplane prepares a flight using the following data: - flight leg distance: 3 500 nm - flight level fl 310, true airspeed: 450 kt - headwind component at this level: 55 kt - initially planned take- off mass (without extra fuel on board): 180 000 kg - fuel price: 0.30 $/l at departure the commander may carry a fuel quantity of 8 000 kg in addition to that which is necessary. for this fuel transport operation to be cost effective, the maximum fuel price at arrival must be:

34 430 kg
202 (for this question use annex 033-11238a) the flight crew of a turbojet aeroplane prepares a flight using the following data: - flight level fl 370 at "long range" (lr) cruise regime - (prescribed) mass at brake release: 204 500 kg - flight leg ground distance: 2 000 nm - temperatures: isa - headwind component: 70 kt - "total anti-ice" set on "on" for the entire flight - no requested climb and descent correction of the fuel consumption the fuel required from take-off to landing is:

29 440 kg
203 (for this question use annex 033-12334a ) what is the earliest time (utc), if any, that thunderstorms are forecast for tunis/carthage ?

1800
204 (for this question use annex 033-12333a ) which best describes the weather, if any, at lyon/satolas at 1330 utc ?

Light rain associated
205 (for this question use annex 033-12332a) the surface wind velocity (° /kt) at paris/charles-de- gaulle at 1330 utc was

270/04
206 (for this question use annex 033-12331a ) the lowest cloud conditions (oktas/ft) at bordeaux/merigna c at 1330 utc were

1 to 2 at 3000
207 (for this question use annex 033-12335a ) which is the heaviest type of precipitation, if any, forecast for bordeaux/merigna c at 1000 utc ?

Light rain
208 (for this question use annex 033-12319a) the approximate mean wind component (kt) along true course 180° from 50° n to 40° n at 005° w is

Tail wind
209 (for this question use annex 033-12337a ) what minimum visibility is forecast for paris/charles-de- gaulle at 2100 utc ?

6000m
210 (for this question use annex 033-12329a ) what lowest cloud conditions (oktas/ft) are forecast for johannesburg/ja n smuts at 0300 utc?

5 to 7 at 400
211 (for this question use annex 033-9737a, aeronautical chart icao 1:500 000 stuttgart (no 47/6) or route manual vfr+gps chart ed-6) flying vfr from peiting (47° 48.0"n, 010° 55.5"e) to immenstadt (47° 33.5"n, 010° 13.0"e) determine the magnetic course.

243°
212 (for this question use annex 033-12338a ) which best describes the weather, if any, forecast for johannesburg/ja n smuts at 0400 utc?

Patches of fog
213 (for this question use annex 033-12328a ) over london (51° n000° e/w), the lowest fl listed which is unaffected by cat is:

230
214 (for this question use annex 033-12327a ) the maximum wind velocity (° /kt) immediately north of tunis (36° n010° e) is

190/95
215 (for this question use annex 033-12326a ) which describes the maximum intensity of turbulence, if any, forecast for fl260 over toulouse (44° n001° e) ?

Severe
216 (for this question use annex 033-12325a ) which best describes the significant cloud forecast over toulouse (44° n001° e) ?

Broken ac/cu base below fl100 tops fl150, embedded isolated cb base below fl100 tops fl270
217 (for this question use annex 033-12324a ) in the vicinity of shannon (52° n009° w) the tropopause is at about fl

360
218 (for this question use annex 033-12323a ) the surface system over vienna (48° n016° e) is a

Cold front moving east
219 (for this question use annex 033-12322a ) which describes the intensity of icing, if any, at fl 150 in the vicinity of toulouse (44° n 01° e) ?

Moderate or severe
220 (for this question use annex.033-12321a ) which best describes the maximum intensity of icing, if any, at fl160 in the vicinity of berlin (53° n013° e) ?

Moderate


PREGUNTAS TEMAS PNB PER.

Tecnología Naval
Maniobra
Seguridad
Navegación
Navegación (carta)
Meterología
Comunicaciones
Propulsión Mecáni.
Reglamento
Balizamiento
Legislación

Examenes 2021

Alicante ABR 21 (1)
Andalucía MAY 21
Asturias MAR 21
Asturias MAY 21
Madrid ABR 21 (1)
Madrid ABR 21 (2)
Madrid FEB 21 (1)
Madrid FEB 21 (2)
Murcia ABR 21 (1)
Murcia ENE 21 (1)
Murcia ABR 21 (2)
Murcia ENE 21 (2)
País vasco MAR 21 (1)
País vasco MAR 21 (3)
Tenerife MAY 21

Examenes 2019

2019-09 PER Canarias 02
2019-03 PER Baleares 01
2019-06 PER Andalucía
2019-12 PER Madrid
2019-01 PER Valencia
2019-01 PER Asturias
2019-10 PER Murcia
2019-04 PER Valencia
2019-10 PER Madrid
2019-12 PER Canarias 02
2019-03 PER País vasco
2019-06 PER Canarias 02
2019-09 PER Canarias 01
2019-03 PER Madrid
2019-06 PER País vasco
2019-09 PER Baleares 02
2019-06 PER Madrid 01
2019-10 PER Valencia
2019-04 PER Madrid
2019-06 PER Madrid 02
2019-12 PER Canarias 01
2019-03 PER Andalucía
2019-06 PER Canarias 01
2019-12 PER Baleares 02
2019-03 PER Mallorca 02
2019-06 PER Baleares 02
2019-03 PER Baleares 02
2019-09 PER Baleares 01
2019-06 PER Cartagena
2019-10 PER Andalucía
2019-01 PER País vasco
2019-05 PER Asturias
2019-10 PER País vasco
2019-03 PER Murcia
2019-09 PER Castellón
2019-12 PER Baleares 01
2019-03 PER Mallorca 01
2019-06 PER Baleares 01

Examenes 2018

MAR 2018 - Murcia
ABR 2018 - Canarias (4)
SEP 2018 - Baleares (1)
ABR 2018 - Valencia
JUN 2018 - Canarias (3)
DIC 2018 - Baleares (1)
JUN 2018 - Cartagena
JUN 2018 - Baleares (1)
NOV 2018 - Valencia
JUN 2018 - Madrid (2)
SEP 2018 - Andalucía
OCT 2018 - Madrid (3)
MAR 2018 - Andalucía
MAR 2018 - Madrid (2)
ABR 2018 - Canarias (3)
SEP 2018 - Canarias (2)
ABR 2018 - País vasco
JUN 2018 - Baleares (2)
DIC 2018 - Baleares (1)
JUN 2018 - Andalucía
JUN 2018 - Canarias (5)
SEP 2018 - Castellón
JUN 2018 - Madrid (1)
OCT 2018 - Madrid (2)
OCT 2018 - Madrid (1)
MAR 2018 - Madrid (1)
ABR 2018 - Baleares (2)
SEP 2018 - Canarias (1)
ENE 2018 - País vasco
ABR 2018 - Canarias (5)
SEP 2018 - Baleares (2)
JUN 2018 - Alicante
JUN 2018 - Canarias (4)
DIC 2018 - Baleares (2)
JUN 2018 - País vasco
NOV 2018 - País vasco
OCT 2018 - Madrid (1)
NOV 2018 - Andalucía
FEB 2018 - Alicante
ABR 2018 - Baleares (1)
NOV 2018 - Murcia

Examenes 2017

JUN 2017 - Cartagena
NOV 2017 - Andalucía
ABR 17 - Madrid (3)
MAY 2017 - País vasco
OCT 17 - Madrid (1)
DIC 2017 - Valencia
MAY 2017 - Valencia
DIC 2017 - Madrid (1)
ABR 2016 - Murcia
JUN 2017 - Andalucía
ABR 2017 - País vasco
ABR 17 - Madrid (1)
JUN 17 - Madrid (3)
NOV 2017 - Murcia
MAR 2017 - Alicante
MAY 2017 - Asturias
OCT 2017 - Castellón
ABR 2017 - Andalucía
ENE 2017 - País vasco
JUN 17 - Madrid (1)
NOV 2017 - País vasco
OCT 17 - Madrid (3)
ENE 2017 - Asturias
JUN 2016 - Alicante
DIC 2017 - Madrid (3)

Examenes 2016

JUN 2016 - País vasco
JUN 16 - Madrid (1)
NOV 16 - Madrid (3)
ENE 2016 - Asturias
JUN 2016 - Alicante
ABR 2016 - Murcia
ABR 2016 - Andalucía
ABR 2016 - País vasco
ABR 16 - Madrid (2)
NOV 16 - Madrid (1)
FEB 2016 - País vasco
ABR 16 - Valencia
NOV 2016 - Valencia
NOV 2016 - Murcia
ABR 16 - Madrid (1)
NOV 2016 - Andalucía
JUN 16 - Madrid (4)
NOV 2016 - País vasco
FEB 16 - Alicante
MAY 2016 - Asturias
OCT 2016 - Castellón
JUN 2016 -Cartagena
JUN 2016 -Andalucía

Examenes 2015

ABR 2015 - Murcia
ABR 2015 - Andalucía
ABR 15 - MadriD (2)
FEB 2015 - País vasco
JUN 15 - Madrid (3)
MAY 2015 - Asturias
ABR 15 - Valencia
NOV 15 - Valencia
NOV 2015 - Murcia
ABR 15 - Madrid (1)
NOV 2015 - Andalucía
JUN 15 - Madrid (2)
OCT 2015 - País vasco
NOV 15 - Madrid (1)
OCT 15 - Castellón
JUN 2015 - Cartagena
JUN 2015 - Andalucía
JUN 15 - Madrid (1)
MAY 2015 - País vasco
JUN 15 - Madrid (4)
JUN 15 - Alicante

Examenes

Examen 1
Examen 2
Examen 3
Examen 4
Examen 5
Examen 6
Examen 7
Examen 8
Examen 9
Examen 10
Examen 11
Examen 12
Examen 13
Examen 14
Examen 15
Examen 16
Examen 17
Examen 18
Examen 19
Examen 20
Examen 21
Examen 22
Examen 23
Examen 24
Examen 25
Examen 26

Examenes 2020

ENE 2020 - Asturias
ENE 2020 - País vasco
FEB 2020 - Alicante
JUL 2020 - Andalucía
JUL 2020 - Murcia
JUL 2020 - País vasco
JUL 2020 - Valencia
OCT 2020 - Castellón
OCT 2020 - Ibiza (1)
OCT 2020 - Ibiza (2)
OCT 2020 - La Palma
OCT 2020 - Mallorca
OCT 2020 - Menorca
DIC 2020 - Madrid (1)
NOV 2020 - País vasco
DIC 2020 - Madrid (4)
DIC 2020 - Madrid (5)
DIC 2020 - Madrid (6)
DIC 2020 - Valencia
DIC 2020 - Valencia (1)

Preguntas Repetidas

Preguntas encontradas
Preguntas más Repetidas

CAPITÁN/A DE YATE

2022-12 CY Test 01
2022-06 CY Test 01
2021-07 CY Test 03
2021-13 CY Test 03
2021-07 CY Test 02
2022-12 CY Test 02
2021-12 CY Test 01
2022-06 CY Test02

PATRÓN/A DE YATE

2021-12 PY Test 03
2021-07 PY Test 01
2022-12 PY Test 02
2021-12 PY Test 01
2022-06 PY Test 01
2022-12 PY Test 01
2022-06 PY Test 02
2021-07 PY Test 02

PATRÓN/A DE EMBARCACIONES DE RECREO

2022-06 PER Test 02
2022-06 PER Test 04
2021-07 PER Test 03
2022-12 PER Test 01
2022-12 PER Test 04
2021-12 PER Test 01
2021-12 PER Test 06
2022-06 PER Test 03
2021-07 PER Test 02
2022-10 PER Test 01
2021-12 PER Test 03
2022-12 PER Test 03
2021-12 PER Test 05
2022-06 PER Test 01
2021-07 PER Test 01
2021-07 PER Test 04
2021-12 PER Test 04
2022-12 PER Test 02
2021-12 PER Test 02

PATRÓN/A DE EMBARCACIONES DE RECREO (PNB LIBERADO)

2021-12 PERL Test 06
2022-10 PERL Test 01
2021-12 PERL Test 02
2021-07 PERL Test 04
2021-10 PERL Test 04
2021-07 PERL Test 02
2021-10 PERL Test 02

PATRÓN/A PARA NAVEGACIÓN BÁSICA

EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 02 - Madrid diciembre 2021
EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 02 - Madrid Junio 2022
EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 01 - Madrid octubre 2022
EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 04 - Madrid octubre 2021
EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 04 - Madrid junio 2022
EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 04 - Madrid julio 2021
EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 02 - Madrid octubre 2021
EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 06 - Madrid diciembre 2021
EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 02 - Madrid julio 2021
EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 02 - Madrid diciembre de 2022

Andalucía

2021-05 PER AND. 01
2020-06 PER AND. 01
2019-10 PER AND. 01
2019-06 PER AND. 01
2019-03 PER AND. 01
2018-09 PER AND. 01
2018-10 PER AND. 01
2018-03 PER AND. 01
2018-06 PER AND. 01
2017-10 PER AND. 01
2017-06 PER AND. 01
2017-03 PER AND. 01
2016-10 PER AND. 01
2016-06 PER AND. 01
2016-04 PER AND. 01
2015-10 PER AND. 01
2015-06 PER AND. 01
2015-03 PER AND. 01

Asturias

2021-03 PER ASTU. 01
2021-05 PER ASTU. 01
2020-01 PER ASTU. 01
2019-05 PER ASTU. 01
2019-01 PER ASTU. 01
2017-05 PER ASTU. 01
2017-01 PER ASTU. 01
2016-05 PER ASTU. 01
2016-01 PER ASTU. 01
2015-05 PER ASTU. 01

Baleares

2019 SEP PER(2)
2019 SEP PER(1)
2019 JUN PER(2)
2019 JUN PER(1)
2019 DIC PER(2)
2019 DIC PER(1)
2019 ABR PER(2)
2018 SEP PER(2)
2018 SEP PER(1)
2018 JUN PER(2)
2018 JUN PER(1)
2018 DIC PER(2)
2018 DIC PER(1)
2018 DIC PER(1)
2018 ABR PER(2)
2018 ABR PER(1)
2019 ABR PER(1)

Canarias

2019 JUN PER (1)
2019 JUN PER (2)
2019 SEP PER (1)
2019 SEP PER (2)
2019 DIC PER (1)
2019 DIC PER (3)
2018 ABR PER (3)
2018 ABR PER (4)
2018 ABR PER (5)
2018 JUN PER (3)
2018 JUN PER (4)
2018 JUN PER (5)
2018 SEP PER (1)
2018 SEP PER (2)

Cataluña

2022-10 Patró/ona de navegació bàsica
2022-07 Patró/ona de iot
2022-10 Patró/ona d'embarcació d'esbarjo 2er
2022-10 Patró/ona d'embarcació d'esbarjo 1er
2022-7 Capità/ana de iot

Murcia

2021 ENE PER (1)
2021 ENE PER (2)
2021 ABR PER (1)
2021 ABR PER (2)
2020 JUL PER
2019 MAR PER
2019 NOV PER
2018 MAR PER
2018 NOV PER
2016 ABR PER
2017 NOV PER
2016 ABR PER
2016 NOV PER
2015 ABR PER
2015 NOV PER

Pais Vasco

2021 MAR PER
2021 MAR PER
2019 ENE PER
2019 ABR PER
2019 JUN PER
2019 NOV PER
2018 ENE PER
2018 ABR PER
2018 JUN PER
2018 NOV PER
2017 ENE PER
2017 ABR PER
2017 MAY PER
2017 NOV PER
2016 ABR PER
2016 JUN PER
2016 NOV PER
2016 FEB PER
2015 FEB PER
2015 MAY PER
2015 OCT PER
2020 ENE PER
2020 JUL PER
2020 NOV PER

Valencia

2015-03 - Valencia PER
2015-10 - Valencia PER
2016-10 - Valencia PER
2016-03 - Valencia PER
2017-12 - Valencia PER
2017-05 - Valencia PER
2018-10 - Valencia PER
2018-03 - Valencia PER
2019-10 - Valencia PER
2019-03 - Valencia PER
2019-02 - Valencia PER
2020-06 - Valencia PER
2020-12 - Valencia PER
2020-12 - Valencia PER

Madrid

2015-03 PER MADR. 01
2015-06 PER MADR. 01
2015-06 PER MADR. 02
2015-06 PER MADR. 03
2015-06 PER MADR. 04
2015-10 PER MADR. 01
2016-03 PER MADR. 01
2016-03 PER MADR. 02
2016-06 PER MADR. 01
2016-06 PER MADR. 02
2016-10 PER MADR. 01
2016-10 PER MADR. 02
2017-03 PER MADR. 01
2017-03 PER MADR. 02
2017-12 PER MADR. 01
2017-12 PER MADR. 02
2017-06 PER MADR. 01
2017-06 PER MADR. 02
2017-10 PER MADR. 01
2017-10 PER MADR. 02
2018-10 PER MADR. 01
2018-10 PER MADR. 02
2018-03 PER MADR. 01
2018-03 PER MADR. 02
2018-10 PER MADR. 01
2018-10 PER MADR. 02
2018-10 PER MADR. 03
2018-10 PER MADR. 04
2019-03 PER MADR. 01
2019-03 PER MADR. 02
2019-12 PER MADR. 01
2019-06 PER MADR. 01
2019-06 PER MADR. 02
2019-10 PER MADR. 01
2020-12 PER MADR. 05
2020-12 PER MADR. 02
2020-12 PER MADR. 03
2020-12 PER MADR. 04
2021-03 PER MADR. 01
2021-03 PER MADR. 02
2021-02 PER MADR. 02
2021-02 PER MADR. 01
2021-12 CY MADR. 01
2021-12 CY MADR. 02
2022-06 CY MADR. 01
2022-06 CY MADR. 02
2021-07 CY MADR. 01
2021-07 CY MADR. 02
2021-12 PY MADR. 01
2021-12 PY MADR. 02
2022-06 PY MADR. 01
2022-06 PY MADR. 02
2021-07 PY MADR. 01
2021-07 PY MADR. 02
2021-10 PER MADR. 01
2021-10 PER MADR. 02
2021-12 PER MADR. 01
2021-12 PER MADR. 02
2021-12 PER MADR. 03
2021-12 PER MADR. 04
2022-06 PER MADR. 01
2022-06 PER MADR. 02
2022-06 PER MADR. 03
2022-06 PER MADR. 04
2021-07 PER MADR. 01
2021-07 PER MADR. 02
2021-06 PER MADR. 01
2021-07 PER MADR. 03
2021-10 PERL MADR. 01
2021-10 PERL MADR. 02
2021-12 PERL MADR. 01
2021-12 PERL MADR. 02
2021-07 PERL MADR. 01
2021-07 PERL MADR. 02
2021-10 PNB MADR. 01
2021-10 PNB MADR. 02
2021-12 PNB MADR. 01
2022-06 PNB MADR. 01
2021-07 PNB MADR. 01

ATPL 10 AIR LAW AND ATC PROCEDURES

10.05 - ICAI Annex 2: Rules of the air
10.00 - AIR LAW AND ATC PROCEDURES
10.01 - International law: conventions, agreements and
10.04 - ICAO Annex 1: Personnel licensing
10.07 - Air Traffic Services and Air Traffic Management
10.03 - ICAO Annex 7: Aircraft nationality and registration
10.06 - Air Navigation Services – Aircraft operations
10.02 - ICAO Annex 8: Airworthiness of aircraft

ATPL 21 AIRCRAFT GENERAL KNOWLEDGE – AIRFRAME AND SYSTEMS

21.03 HYDROMECHANICS: BASIC PRINCIPLES
21.06 FLIGHT CONTROLS
21.09 PISTON ENGINES
21.02 AIRFRAME
21.05 HELICOPTER EQUIPMENT
21.08 ELECTRICS
21.11 PROTECTION & DETECTION SMOKE/FIRE
21.01 LOADS / STRESSES / FATIGUE / CORROSION / MAINTENANCE
21.04 LANDING GEAR, WHEELS, TYRES & BRAKES
21.07 FUEL SYSTEMS
21.10 TURBINE ENGINES

ATPL 22 AIRCRAFT GENERAL KNOWLEDGE – INSTRUMENTATION

22.02 MEASUREMENT OF AERODYNAMIC PARAMETERS
22.05 COMMUNICATION SYSTEMS
22.08 TRIMS ? YAW DAMPER ? FLIGHT ENVELOPE PROTECTION
22.01 INSTRUMENT AND INDICATION SYSTEMS
22.04 GYROSCOPIC INSTRUMENTS
22.07 INTEGRATED INSTRUMENTS: ELECTRONIC DISPLAYS
22.03 EARTH MAGNETIC FIELD
22.06 ALERTING SYSTEMS AND PROXIMITY SYSTEMS

ATPL 31 MASS AND BALANCE — AEROPLANES/HELICOPTERS

31.03 MASS AND BALANCE DETAILS OF AIRCRAFT
31.02 LOADING
31.01 PURPOSE OF MASS AND BALANCE
31.04 DETERMINATION OF CG POSITION

ATPL 33 FLIGHT PLANNING AND MONITORING

33.05 JET AEROPLANES FLIGHT PLANNING (ADDITIONAL CONSIDERATIONS)
33.01 VFR NAVIGATION PLAN, FUEL PLAN, FUEL CALCULATION
33.04 FLIGHT MONITORING AND IN-FLIGHT REPLANNING
33.01 AIRCRAFT FLIGHT PLANNING AND FLIGHT MONITORING
33.03 FUEL PLANNING
33.06 PRACTICAL COMPLETION OF A FLIGHT PLAN
33.02 PRE-FLIGHT PREPARATION

ATPL 50 METEOROLOGY

50.09 FLIGHT HAZARDS
50.02 WIND
50.08 CLIMATOLOGY
50.04 CLOUDS AND FOG
50.06 AIR MASSES AND FRONTS
50.05 PRECIPITATION
50.01 THE ATMOSPHERE
50.03 THERMODYNAMICS
50.07 PRESSURE SYSTEMS

Convocatoria Madrid Junio 2024

EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 02
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO Código de Test 02
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO (Con PNB LIBERADO)
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO Código de Test 01
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO Código de Test 04
EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 04
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO Código de Test 03

Convocatoria Madrid Abril 2024

EXAMEN DE CAPITÁN DE YATE Código de Test 02
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO Código de Test 01
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO Código de Test 04
EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 04
EXAMEN DE CAPITÁN DE YATE Código de Test 01
EXAMEN DE PATRÓN DE YATE Código de Test 02
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO Código de Test 03
EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 02
EXAMEN DE PATRÓN DE YATE Código de Test 01
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO Código de Test 02
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO (Con PNB Liberado)

Andalucia 1ª convocatoria 2024

EXAMEN TEÓRICO PARA LA OBTENCIÓN DEL TÍTULO PATRÓN DE YATE. MÓDULO NAVEGACIÓN 1ª Convocatoria: 6 de abril de 2024
EXAMEN TEÓRICO PARA LA OBTENCIÓN DEL TÍTULO P.E.R. MODELO A (Patrón de Embarcaciones de Recreo) 1ª Convocatoria: 6 de abril de 2024
EXAMEN TEÓRICO PARA LA OBTENCIÓN DEL TÍTULO PATRÓN DE YATE. MÓDULO GENÉRICO 1ª Convocatoria: 6 de abril de 2024
EXAMEN TEÓRICO PARA LA OBTENCIÓN DEL TÍTULO CAPITÁN DE YATE. MÓDULO NAVEGACIÓN 1ª Convocatoria: 6 de abril de 2024
EXAMEN TEÓRICO PARA LA OBTENCIÓN DEL TÍTULO P.N.B. MODELO B (Patrón de Navegación Básica) 1ª Convocatoria: 6 de abril de 2024
EXAMEN TEÓRICO PARA LA OBTENCIÓN DEL TÍTULO CAPITÁN DE YATE. MÓDULO GENÉRICO 1ª Convocatoria: 6 de abril de 2024
EXAMEN TEÓRICO PARA LA OBTENCIÓN DEL TÍTULO P.E.R. MODELO B (Patrón de Embarcaciones de Recreo) 1ª Convocatoria: 6 de abril de 2024
EXAMEN TEÓRICO PARA LA OBTENCIÓN DEL TÍTULO P.N.B. MODELO A (Patrón de Navegación Básica) 1ª Convocatoria: 6 de abril de 2024

Convocatoria Madrid Noviembre 2023

EXAMEN DE CAPITÁN DE YATE Código de Test 02
EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 04
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO Código de Test 03
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO (CON PNB LIBERADO) Código de Test 04
EXAMEN DE CAPITÁN DE YATE Código de Test 01
EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 02
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO Código de Test 02
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO (CON PNB LIBERADO) Código de Test 02
EXAMEN DE PATRÓN DE YATE Código de Test 02
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO Código de Test 01
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO Código de Test 04
EXAMEN DE PATRÓN DE YATE Código de Test 01

Convocatoria Madrid Junio 2023

EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO (Con PNB LIBERADO) Código de Test 02
EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 04
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO Código de Test 03
EXAMEN DE PATRÓN PARA NAVEGACIÓN BÁSICA Código de Test 02
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO Código de Test 01
EXAMEN DE PATRÓN DE EMBARCACIONES DE RECREO (Con PNB LIBERADO) Código de Test 04