EASA IRE Examiner will ask you questions about flight planing and monitoring
During the instrument rating skill test, the EASA examiner will ask you several IFR-related questions. The following elements may be used by the EASA IRE examiner for the Exam candidate’s verbal demonstration of theoretical knowledge.
IFR Flight planning and IFR Flight monitoring
- (1) select the preferred airway(s) or route(s) considering:
- altitudes and FLs,
- standard routes,
- ATC restrictions,
- the shortest distance,
- obstacles, and
- any other relevant data;
- (2) determine courses and distances from en route charts;
- (3) determine bearings and distances of waypoints based on radio navigation aids on en route charts;
- (4) define the following altitudes:
- (i) minimum en route altitude (MEA),
- (ii) minimum obstacle clearance altitude (MOCA),
- (iii) minimum off-route altitude (MORA),
- (iv) grid minimum off-route altitude (Grid MORA),
- (v) maximum authorised altitude (MAA),
- (vi) minimum crossing altitude (MCA), and
- (vii) minimum holding altitude (MHA);
- (5) extract the following altitudes from the chart(s):
- (i) MEA,
- (ii) MOCA,
- (iii) MORA,
- (iv) Grid MORA,
- (v) MAA,
- (vi) MCA, and
- (vii) MHA;
- (6) explain the reasons for studying standard instrument departure (SID) and standard ARR (STAR) charts;
- (7) state the reasons why the SID and STAR charts show procedures only in a pictorial presentation style which is not to scale;
- (8) interpret all data and information represented on SID and STAR charts, particularly:
- (i) routings,
- (ii) distances,
- (iii) courses,
- (iv) radials,
- (v) altitudes/levels,
- (vi) frequencies, and
- (vii) restrictions;
- (9) identify SIDs and STARs which may be relevant to a planned flight;
- (10) state the reasons why it is imperative to be familiar with instrument approach procedures and appropriate data for departure, destination, and alternate airfields prior to departure;
- (11) select instrument approach procedures appropriate for departure, destination, and alternate airfields;
- (12) interpret all procedures, data and information represented on instrument approach charts, particularly:
- (i) courses and radials,
- (ii) distances,
- (iii) altitudes, levels or heights,
- (iv) restrictions,
- (v) obstructions,
- (vi) frequencies,
- (vii) speeds and times,
- (viii) DA/Hs and MDA/H,
- (ix) visibility and runway visual ranges (RVRs), and
- (x) approach light systems;
- (13) find communications (COM) frequencies and call signs for the following:
- (i) control agencies, service facilities, and flight information services (FISs),
- (ii) weather information stations, and
- (iii) automatic terminal information service (ATIS);
- (14) find the frequency and/or identifiers of radio navigation aids;
- (15) complete the navigation plan with the courses, distances, and frequencies taken from charts;
- (16) find standard instrument departure and ARR routes to be flown or to be expected;
- (17) determine the position of top of climb (TOC) and top of descent (TOD), considering appropriate data;
- (18) determine variation and calculate magnetic/true courses;
- (19) calculate true airspeed (TAS) according to given aircraft performance data, altitude, and outside air temperature (OAT);
- (20) calculate wind correction angles (WCA)/drift and ground speeds (GSs);
- (21) determine all relevant altitudes/levels, particularly MEA, MOCA, MORA, MAA, MCA, MRA, and MSA;
- (22) calculate individual and accumulated times for each leg until destination and alternate airfields;
- (23) convert between volume, mass, and density given in different units commonly used in aviation;
- (24) determine relevant data from the flight manual, such as fuel capacity, fuel flow/consumption at different power/thrust settings, altitudes, and atmospheric conditions;
- (25) calculate attainable flight time/range considering fuel flow/consumption and available amount of fuel;
- (26) calculate the required fuel considering fuel flow/consumption and required time/range to be flown;
- (27) calculate the required fuel for an IFR flight considering expected meteorological conditions and expected delays under defined conditions;
- (28) find and analyse the latest state at the departure, destination, and alternate aerodromes, in particular with regard to:
- (i) opening hours,
- (ii) work in progress (WIP),
- (iii) special procedures due to WIP,
- (iv) obstructions, and
- (v) changes of frequencies for COM, navigation aids, and facilities;
- (29) find and analyse the latest en route state with regard to:
- (i) airway(s) or route(s),
- (ii) restricted, dangerous, and prohibited areas, and
- (iii) changes of frequencies for COM, navigation aids, and facilities;
- (30) state the reasons for a fixed format of an International Civil Aviation Organization (ICAO) air traffic services flight plan (ATS FPL);
- (31) determine the correct entries to complete an FPL, as well as decode and interpret the entries in a completed FPL, particularly as regards the following:
- (i) aircraft identification (Item 7),
- (ii) flight rules and type of flight (Item 8),
- (iii) number and type of aircraft and wake turbulence category (Item 9),
- (iv) equipment (Item 10),
- (v) departure aerodrome and time (Item 13),
- (vi) route (Item 15),
- (vii) destination aerodrome, total estimated elapsed time, and alternate aerodrome (Item 16),
- (viii) other information (Item 18), and
- (ix) supplementary information (Item 19);
- (32) complete the FPL using information from the following:
- (i) navigation plan,
- (ii) fuel plan, and
- (iii) operator’s records on basic aircraft information;
- (33) explain the requirements for the submission of an ATS FPL;
- (34) explain the action to be taken in case of FPL changes;
- 35) state the action to be taken in case of inadvertent changes to track, TAS, and time estimate, affecting the current FPL; and
- (36) explain the procedures for closing an FPL;