Skip to content

A gradual release of Avioverse begins in October 2026. Request early access →

FCL.210 Training course

ANNEX I (Part-FCL) · Regulation (EU) No 1178/2011 · EAR revision 25 Nov 2025

IRImplementing rule

FCL.210Training course

(a)Applicants for a PPL shall complete a training course at an ATO or a DTO.

(b)The course shall include theoretical knowledge and flight instruction appropriate to the privileges of the PPL applied for.

(c)Theoretical knowledge instruction and flight instruction may be completed at a DTO or at an ATO different from the one where applicants have commenced their training. [applicable until 17 February 2026 - Regulation (EU) 2020/359]

(a)Applicants for a PPL or a GPL shall complete a training course at an ATO or a DTO.

(b)The course shall include theoretical knowledge and flight instruction appropriate to the privileges of the PPL or GPL applied for.

(c)Theoretical knowledge instruction and flight instruction may be completed at a DTO or at an ATO different from the one where applicants have commenced their training. [applicable from 18 February 2026 - Regulation (EU) 2025/134]

IR · FCL.210 — Regulation (EU) No 1178/2011 · Regulation (EU) 2025/134 · Aircrew Easy Access Rules · EAR revision 25 Nov 2025

AMCAcceptable means of compliance

AMC1 FCL.210PPL(A) Training course

Show the text

FLIGHT INSTRUCTION FOR THE PPL(A)

(a)Entry to training Before being accepted for training an applicant should be informed that the appropriate medical certificate must be obtained before solo flying is permitted.

(b)Flight instruction

(1)The PPL(A) flight instruction syllabus takes into account the principles of threat and error management and also covers:

(i)pre-flight operations, including mass and balance determination, aircraft inspection and servicing;

(ii)aerodrome and traffic pattern operations, collision avoidance precautions and procedures;

(iii)control of the aircraft by external visual reference;

(iv)flight at critically low air speeds, recognition of, and recovery from, incipient and full stalls;

(v)flight at critically high air speeds, recognition of, and recovery from, spiral dive;

(vi)normal and crosswind take-offs and landings;

(vii)maximum performance (short field and obstacle clearance) takeoffs, short-field landings;

(viii)flight by reference solely to instruments, including the completion of a level 180 ° turn;

(ix)cross-country flying using visual reference, dead reckoning and radio navigation aids;

(x)emergency operations, including simulated aeroplane equipment malfunctions;

(xi)operations to, from and transiting controlled aerodromes, compliance with air traffic services procedures, communication procedures and phraseology.

(2)Before allowing applicants for a PPL(A) to undertake their first solo flight, the FI should ensure that the applicants can use R/T communication and can operate the required systems and equipment.

(c)Syllabus of flight instruction

(1)The numbering of exercises should be used primarily as an exercise reference list and as a broad instructional sequencing guide; therefore the demonstrations and practices need not necessarily be given in the order listed. The actual order and content will depend upon the following interrelated factors:

(i)the applicant’s progress and ability;

(ii)the weather conditions affecting the flight;

(iii)the flight time available;

(iv)instructional technique considerations;

(v)the local operating environment;

(vi)applicability of the exercises to the aeroplane.

(2)Each of the exercises involves the need for the applicant to be aware of the needs of good airmanship and look-out, which should be emphasised at all times.

(i)Exercise 1a: Familiarisation with the aeroplane:

(A)characteristics of the aeroplane;

(B)cockpit layout;

(C)systems;

(D)checklists, drills and controls.

(ii)Exercise 1b: Emergency drills:

(A)action if fire on the ground and in the air;

(B)engine cabin and electrical system fire;

(C)systems failure;

(D)escape drills, location and use of emergency equipment and exits.

(iii)Exercise 2: Preparation for and action after flight:

(A)flight authorisation and aeroplane acceptance;

(B)serviceability documents;

(C)equipment required, maps, etc.;

(D)external checks;

(E)internal checks;

(F)harness, seat or rudder panel adjustments;

(G)starting and warm-up checks;

(H)power checks;

(I)running down system checks and switching off the engine;

(J)parking, security and picketing (for example tie down);

(K)completion of authorisation sheet and serviceability documents.

(iv)Exercise 3: Air experience: flight exercise.

(v)Exercise 4: Effects of controls:

(A)primary effects when laterally level and when banked;

(B)further effects of aileron and rudder;

(C)effects of:

(a)air speed;

(b)slipstream;

(c)power;

(d)trimming controls;

(e)flaps;

(f)other controls, as applicable.

(D)operation of:

(a)mixture control;

(b)carburettor heat;

(c)cabin heating or ventilation.

(vi)Exercise 5a: Taxiing:

(A)pre-taxi checks;

(B)starting, control of speed and stopping;

(C)engine handling;

(D)control of direction and turning;

(E)turning in confined spaces;

(F)parking area procedure and precautions;

(G)effects of wind and use of flying controls;

(H)effects of ground surface;

(I)freedom of rudder movement;

(J)marshalling signals;

(K)instrument checks;

(L)air traffic control procedures.

(vii)Exercise 5b: Emergencies: brake and steering failure.

(viii)Exercise 6: Straight and level:

(A)at normal cruising power, attaining and maintaining straight and level flight;

(B)flight at critically high air speeds;

(C)demonstration of inherent stability;

(D)control in pitch, including use of trim;

(E)lateral level, direction and balance and trim;

(F)at selected air speeds (use of power);

(G)during speed and configuration changes;

(H)use of instruments for precision.

(ix)Exercise 7: Climbing:

(A)entry, maintaining the normal and max rate climb and levelling off;

(B)levelling off at selected altitudes;

(C)en-route climb (cruise climb);

(D)climbing with flap down;

(E)recovery to normal climb;

(F)maximum angle of climb;

(G)use of instruments for precision.

(x)Exercise 8: Descending:

(A)entry, maintaining and levelling off;

(B)levelling off at selected altitudes;

(C)glide, powered and cruise descent (including effect of power and air speed);

(D)side slipping (on suitable types);

(E)use of instruments for precision flight.

(xi)Exercise 9: Turning:

(A)entry and maintaining medium level turns;

(B)resuming straight flight;

(C)faults in the turn (for example in correct pitch, bank and balance);

(D)climbing turns;

(E)descending turns;

(F)faults in the turns (slipping and skidding on suitable types);

(G)turns onto selected headings, use of gyro heading indicator and compass;

(H)use of instruments for precision.

(xii)Exercise 10a: Slow flight: Note: the objective is to improve the student’s ability to recognise inadvertent flight at critically low speeds and provide practice in maintaining the aeroplane in balance while returning to normal air speed.

(A)safety checks;

(B)introduction to slow flight;

(C)controlled flight down to critically slow air speed;

(D)application of full power with correct attitude and balance to achieve normal climb speed.

(xiii)Exercise 10b: Stalling:

(A)safety checks;

(B)symptoms;

(C)recognition;

(D)clean stall and recovery without power and with power;

(E)recovery when a wing drops;

(F)approach to stall in the approach and in the landing configurations, with and without power and recovery at the incipient stage.

(xiv)Exercise 11: Spin avoidance: Note: The limitations of the training aircraft as set out in the AFM (manoeuvre limitations, mass and balance calculations) need to be carefully considered.

(A)safety checks;

(B)stalling and approaching the incipient spin stage (stall with asymmetric condition, with not-centred slip indicator);

(C)instructor - induced distractions during the stall.

(xv)Exercise 12: Take-off and climb to downwind position:

(A)pre-take-off checks;

(B)into wind take-off;

(C)safeguarding the nose wheel;

(D)crosswind take-off;

(E)drills during and after take-off;

(F)short take-off and soft field procedure/techniques including performance calculations;

(G)noise abatement procedures.

(xvi)Exercise 13: Circuit, approach and landing:

(A)circuit procedures, downwind and base leg;

(B)powered approach and landing;

(C)safeguarding the nose wheel;

(D)effect of wind on approach and touchdown speeds and use of flaps;

(E)crosswind approach and landing;

(F)glide approach and landing;

(G)short landing and soft field procedures or techniques;

(H)flapless approach and landing;

(I)wheel landing (tail wheel aeroplanes);

(J)missed approach and go-around;

(K)noise abatement procedures.

(xvii)Exercise 12/13: Emergencies:

(A)abandoned take-off;

(B)simulated engine failure after take-off;

(C)rejected and go-around;

(D)missed approach;

(E)simulated engine failure and restart procedures in-flight. Note: In the interests of safety it will be necessary for pilots that are trained on nose-wheel aeroplanes to undergo dual conversion training before flying tail-wheel aeroplanes, and vice-versa. (xviii) Exercise 14: First solo:

(A)instructor’s briefing

(B)use of required equipment;

(C)observation of flight and debriefing by instructor; Note: During flights immediately following the solo circuit consolidation, the following should be revised:

(1)procedures for leaving and rejoining the circuit;

(2)the local area, restrictions, map reading;

(3)use of radio aids for homing;

(4)turns using magnetic compass, compass errors.

(xix)Exercise 15: Advanced turning:

(A)steep turns (45°), level and descending;

(B)stalling in the turn and recovery;

(C)recoveries from unusual attitudes, including spiral dives.

(xx)Exercise 16: Forced landing without power:

(A)forced landing procedure;

(B)choice of landing area, provision for change of plan;

(C)gliding distance;

(D)descent plan;

(E)key positions;

(F)engine cooling;

(G)engine failure checks;

(H)use of radio;

(I)base leg;

(J)final approach;

(K)landing;

(L)actions after landing.

(xxi)Exercise 17: Precautionary landing:

(A)full procedure away from aerodrome to break-off height;

(B)occasions necessitating;

(C)in-flight conditions;

(D)landing area selection:

(a)normal aerodrome;

(b)disused aerodrome;

(c)ordinary field.

(E)circuit and approach;

(F)actions after landing.

(xxii)Exercise 18a: Navigation:

(A)flight planning:

(a)weather forecast and actuals;

(b)map selection and preparation:

(1)choice of route;

(2)controlled airspace;

(3)danger, prohibited and restricted areas;

(4)safety altitudes.

(c)calculations:

(1)magnetic heading(s) and time(s) en-route;

(2)fuel consumption;

(3)mass and balance;

(4)mass and performance.

(d)flight information:

(1)NOTAMs etc.;

(2)radio frequencies;

(3)selection of alternate aerodromes.

(e)aeroplane documentation;

(f)notification of the flight:

(1)pre-flight administrative procedures;

(2)flight plan form.

(B)departure:

(a)organisation of cockpit workload;

(b)departure procedures:

(1)altimeter settings;

(2)ATC liaison in controlled or regulated airspace;

(3)setting heading procedure;

(4)noting of ETAs.

(c)maintenance of altitude and heading;

(d)revisions of ETA and heading;

(e)log keeping;

(f)use of radio;

(g)use of navaids;

(h)minimum weather conditions for continuation of flight;

(i)in-flight decisions;

(j)transiting controlled or regulated airspace;

(k)diversion procedures;

(l)uncertainty of position procedure;

(m)lost procedure.

(C)arrival and aerodrome joining procedure:

(a)ATC liaison in controlled or regulated airspace;

(b)altimeter setting;

(c)entering the traffic pattern;

(d)circuit procedures;

(e)parking;

(f)security of aeroplane;

(g)refuelling;

(h)closing of flight plan, if appropriate;

(i)post-flight administrative procedures. (xxiii) Exercise 18b: Navigation problems at lower levels and in reduced visibility:

(A)actions before descending;

(B)hazards (for example obstacles and terrain);

(C)difficulties of map reading;

(D)effects of wind and turbulence;

(E)vertical situational awareness (avoidance of controlled flight into terrain);

(F)avoidance of noise sensitive areas;

(G)joining the circuit;

(H)bad weather circuit and landing.

(xxiv)Exercise 18c: Radio navigation:

(A)use of GNSS:

(a)selection of waypoints;

(b)to or from indications and orientation;

(c)error messages.

(B)use of VHF omni range:

(a)availability, AIP and frequencies;

(b)selection and identification;

(c)OBS;

(d)to or from indications and orientation;

(e)CDI;

(f)determination of radial;

(g)intercepting and maintaining a radial;

(h)VOR passage;

(i)obtaining a fix from two VORs.

(C)use of ADF equipment: NDBs:

(a)availability, AIP and frequencies;

(b)selection and identification;

(c)orientation relative to the beacon;

(d)homing.

(D)use of VHF/DF:

(a)availability, AIP, frequencies;

(b)R/T procedures and ATC liaison;

(c)obtaining a QDM and homing.

(E)use of en-route or terminal radar:

(a)availability and AIP;

(b)procedures and ATC liaison;

(c)pilot’s responsibilities;

(d)secondary surveillance radar:

(1)transponders;

(2)code selection;

(3)interrogation and reply.

(F)use of DME:

(a)station selection and identification;

(b)modes of operation: distance, groundspeed and time to run.

(xxv)Exercise 19: Basic instrument flight:

(A)physiological sensations;

(B)instrument appreciation; attitude instrument flight;

(C)instrument limitations;

(D)basic manoeuvres:

(a)straight and level at various air speeds and configurations;

(b)climbing and descending;

(c)standard rate turns, climbing and descending, onto selected headings;

(d)recoveries from climbing and descending turns.

(d)BITD

(1)A BITD may be used for flight training for:

(i)flight by reference solely to instruments;

(ii)navigation using radio navigation aids;

(iii)basic instrument flight.

(2)The use of the BITD should be subject to the following:

(i)the training should be complemented by exercises on an aeroplane;

(ii)the record of the parameters of the flight must be available;

(iii)A FI(A) or STI(A) should conduct the instruction.

AMC · AMC1 FCL.210 — Regulation (EU) No 1178/2011 · ED Decision 2025/002/R · Aircrew Easy Access Rules · EAR revision 25 Nov 2025

AMCAcceptable means of compliance

AMC2 FCL.210PPL(H) – Training course

Show the text

FLIGHT INSTRUCTION FOR THE PPL(H)

(a)Entry to training Before being accepted for training an applicant should be informed that the appropriate medical certificate must be obtained before solo flying is permitted.

(b)Ground instruction Enhanced ground instruction in weather interpretation, planning and route assessment, decision making on encountering DVE including reversing course or conducting a precautionary landing.

(c)Flight instruction

(1)The PPL(H) flight instruction syllabus should take into account the principles of threat and error management and cover:

(i)pre-flight operations, including mass and balance determination, helicopter inspection and servicing;

(ii)aerodrome and traffic pattern operations, collision avoidance precautions and procedures;

(iii)control of the helicopter by external visual reference;

(iv)take-offs, landings, hovering, look-out turns and normal transitions from and to the hover;

(v)emergency procedures, basic autorotations, simulated engine failure, ground resonance recovery if relevant to type;

(vi)sideways and backwards flight, turns on the spot;

(vii)recognition of and recovery from the incipient vortex ring state;

(viii)touchdown autorotations, simulated engine-off landings, practice forced landings. Simulated equipment malfunctions and emergency procedures relating to malfunctions of engines, controls, electrical and hydraulic circuits;

(ix)steep turns;

(x)transitions, quick stops, out of wind manoeuvres, sloping ground landings and take-offs;

(xi)limited power and confined area operations, including selection of and operations to and from unprepared sites;

(xii)flight by sole reference to basic flight instruments, including completion of a level 180° turn and recovery from unusual attitudes to simulate inadvertent entry into cloud (this training may be conducted by an FI(H));

(xiii)cross-country flying by using visual reference, DR, GNNS and, where available, radio navigation aids; simulation of deteriorating weather conditions and actions to divert or conduct precautionary landing;

(xiv)operations to, from and transiting controlled aerodromes; compliance with air traffic services procedures, communication procedures and phraseology.

(2)Before allowing applicants for a PPL(H) to undertake their first solo flight, the FI should ensure that the applicants can use R/T communication and can operate the required systems and equipment.

(3)Wherever possible, flight simulation should be used to demonstrate to student pilots the effects of flight into DVE and to enhance their understanding and need for avoidance of this potentially fatal flight regime.

(d)Syllabus of flight instruction

(1)The numbering of exercises should be used primarily as an exercise reference list and as a broad instructional sequencing guide; therefore the demonstrations and practices need not necessarily be given in the order listed. The actual order and content will depend upon the following interrelated factors:

(i)the applicant’s progress and ability;

(ii)the weather conditions affecting the flight;

(iii)the flight time available;

(iv)instructional technique considerations;

(v)the local operating environment;

(vi)applicability of the exercises to the helicopter.

(2)Each of the exercises involves the need for the applicant to be aware of the needs of good airmanship and look-out, which should be emphasised at all times.

(i)Exercise 1a: Familiarisation with the helicopter:

(A)characteristics of the helicopter, external features;

(B)cockpit layout;

(C)systems;

(D)checklists, procedures and controls.

(ii)Exercise 1b: Emergency procedures:

(A)action if fire on the ground and in the air;

(B)engine, cabin and electrical system fire;

(C)systems failures;

(D)escape drills, location and use of emergency equipment and exits.

(iii)Exercise 2: Preparation for and action after flight:

(A)flight authorisation and helicopter acceptance;

(B)serviceability documents;

(C)equipment required, maps, etc.;

(D)external checks;

(E)internal checks;

(F)seat, harness and flight controls adjustments;

(G)starting and warm-up checks clutch engagement and starting rotors;

(H)power checks;

(I)running down system checks and switching off the engine;

(J)parking, security and picketing;

(K)completion of authorisation sheet and serviceability documents.

(iv)Exercise 3: Air experience:

(A)to introduce the student to rotary wing flight;

(B)flight exercise.

(v)Exercise 4: Effects of controls:

(A)function of flight controls, primary and secondary effect;

(B)effects of:

(a)air speed;

(b)power changes (torque);

(c)yaw (sideslip);

(d)disc loading (bank and flare);

(e)controls of selecting hydraulics on/off

(f)control friction.

(C)instruments;

(D)use of carburettor heat or anti-icing control.

(vi)Exercise 5: Power and attitude changes:

(A)relationship between cyclic control position, disc attitude, fuselage attitude and air speed;

(B)flapback;

(C)power required diagram in relation to air speed;

(D)power and air speed changes in level flight;

(E)use of instruments for precision;

(F)engine and air speed limitations.

(vii)Exercise 6: Straight and level:

(A)at normal cruising power, attaining and maintaining straight and level flight;

(B)control in pitch, including use of control friction or trim;

(C)maintaining direction and balance, (ball or yawstring use);

(D)setting power for selected air speeds and speed changes;

(E)use of instruments for precision.

(viii)Exercise 7: Climbing:

(A)optimum climb speed, best angle or rate of climb from power required diagram;

(B)initiation, maintaining the normal and maximum rate of climb, levelling off;

(C)levelling off at selected altitudes or heights

(D)use of instruments for precision.

(ix)Exercise 8: Descending:

(A)optimum descent speed, best angle or rate of descent from power required diagram;

(B)initiation, maintaining and levelling off;

(C)levelling off at selected altitudes or heights;

(D)descent (including effect of power and air speed);

(E)use of instruments for precision.

(x)Exercise 9: Turning:

(A)initiation and maintaining medium level turns;

(B)resuming straight flight;

(C)altitude, bank and co-ordination;

(D)climbing and descending turns and effect on rate of climb or descent;

(E)turns onto selected headings, use of gyro heading indicator and compass;

(F)use of instruments for precision.

(xi)Exercise 10: Basic autorotation:

(A)safety checks, verbal warning and look-out;

(B)entry, development and characteristics;

(C)control of air speed and RRPM, rotor and engine limitations;

(D)effect of AUM, IAS, disc loading, G forces and density altitude;

(E)re-engagement and go-around procedures (throttle over-ride or ERPM control);

(F)awareness of increased risk of vortex condition during power recovery;

(G)gentle and medium turns in autorotation;

(H)demonstration of variable flare simulated engine off landing.

(xii)Exercise 11a: Hovering:

(A)demonstrate hover IGE, importance of wind effect and attitude, ground cushion, stability in the hover and effects of over controlling;

(B)student holding cyclic stick only;

(C)student handling collective lever (and throttle) only;

(D)student handling collective lever, (throttle) and pedals;

(E)student handling all controls;

(F)demonstration of ground effect;

(G)demonstration of wind effect;

(H)demonstrate gentle forward running touchdown;

(I)specific hazards for example snow, dust and litter.

(xiii)Exercise 11b: Hover taxiing and spot turns:

(A)revise hovering;

(B)precise ground speed and height control;

(C)effect of wind direction on helicopter attitude and control margin;

(D)control and co-ordination during spot turns;

(E)carefully introduce gentle forward running touchdown.

(xiv)Exercise 11c: Hovering and taxiing emergencies:

(A)revise hovering and gentle forward running touchdown, explain (demonstrate where applicable) effect of hydraulics failure in the hover;

(B)demonstrate simulated engine failure in the hover and hover taxi;

(C)demonstrate dangers of mishandling and over-pitching.

(xv)Exercise 12: Take-off and landing:

(A)pre-take-off checks or drills;

(B)look-out;

(C)lifting to hover;

(D)after take-off checks;

(E)danger of horizontal movement near ground;

(F)danger of mishandling and overpitching;

(G)landing (without sideways or backwards movement);

(H)after landing checks or drills;

(I)take-off and landing crosswind and downwind.

(xvi)Exercise 13: Transitions from hover to climb and approach to hover:

(A)look-out;

(B)revise take-off and landing;

(C)ground effect, translational lift and its effects;

(D)flapback and its effects;

(E)effect of wind speed and direction during transitions from or to the hover;

(F)the constant angle approach;

(G)demonstration of variable flare simulated engine off landing.

(xvii)Exercise 14a: Circuit, approach and landing:

(A)revise transitions from hover to climb and approach to hover;

(B)circuit procedures, downwind and base leg;

(C)approach and landing with power;

(D)pre-landing checks;

(E)effect of wind on approach and IGE hover;

(F)crosswind approach and landing;

(G)go-around;

(H)noise abatement procedures. (xviii) Exercise 14b: Steep and limited power approaches and landings:

(A)revise the constant angle approach;

(B)the steep approach (explain danger of high sink rate and low air speed)

(C)limited power approach (explain danger of high speed at touch down);

(D)use of the ground effect;

(E)variable flare simulated engine off landing.

(xix)Exercise 14c: Emergency procedures:

(A)abandoned take-off;

(B)missed approach and go-around;

(C)hydraulic off landing (if applicable);

(D)tail rotor control or tail rotor drive failure (briefing only)

(E)simulated emergencies in the circuit to include:

(a)hydraulics failure;

(b)simulated engine failure on take-off, crosswind, downwind and base leg;

(c)governor failure.

(xx)Exercise 15: First solo:

(A)instructor’s briefing, observation of flight and debriefing;

(B)warn of change of attitude from reduced and laterally displaced weight;

(C)warn of low tail, low skid or wheel during hover, landing;

(D)warn of dangers of loss of RRPM and overpitching;

(E)pre-take-off checks;

(F)into wind take-off;

(G)procedures during and after take-off;

(H)normal circuit, approaches and landings;

(I)action if an emergency.

(xxi)Exercise 16: Sideways and backwards hover manoeuvring:

(A)manoeuvring sideways flight heading into wind;

(B)manoeuvring backwards flight heading into wind;

(C)combination of sideways and backwards manoeuvring;

(D)manoeuvring sideways and backwards and heading out of wind;

(E)stability and weather cocking;

(F)recovery from backwards manoeuvring (pitch nose down);

(G)limitations for sideways and backwards manoeuvring.

(xxii)Exercise 17: Spot turns:

(A)revise hovering into wind and downwind;

(B)turn on spot through 360°:

(a)around pilots position;

(b)around tail rotor;

(c)around helicopter geometric centre;

(d)square and safe visibility clearing turn.

(C)rotor RPM control, torque effect, cyclic limiting stops due to CG position and wind speed and direction. (xxiii) Exercise 18: Hover OGE – Vortex ring — unanticipated yaw (LTE):

(A)establishing hover OGE;

(B)drift, height or power control;

(C)demonstration of incipient stage of vortex ring, recognition and recovery (from a safe altitude);

(D)Demonstration of unanticipated yaw which could lead to a perceived loss of tail rotor effectiveness (LTE).

(xxiv)Exercise 19: Simulated EOL:

(A)the effect of weight, disc loading, density attitude and RRPM decay;

(B)revise basic autorotation entry;

(C)optimum use of cyclic and collective to control speed or RRPM;

(D)variable flare simulated EOL;

(E)demonstrate constant attitude simulated EOL;

(F)demonstrate simulated EOL from hover or hover taxi;

(G)demonstrate simulated EOL from transition and low level.

(xxv)Exercise 20: Advanced autorotation:

(A)over a selected point at various height and speed;

(B)revise basic autorotation: note ground distance covered;

(C)range autorotation;

(D)low speed autorotation;

(E)constant attitude autorotation (terminate at safe altitude);

(F)‘S’ turns;

(G)turns through 180° and 360°;

(H)effects on angles of descent, IAS, RRPM and effect of AUM.

(xxvi)Exercise 21: Practice forced landings:

(A)procedure and choice of the forced landing area;

(B)forced landing checks and crash action;

(C)re-engagement and go-around procedures. (xxvii) Exercise 22: Steep turns:

(A)steep (level) turns (30° bank);

(B)maximum rate turns (45° bank if possible);

(C)steep autorotative turns;

(D)faults in the turn: balance, attitude, bank and co-ordination;

(E)RRPM control and disc loading;

(F)vibration and control feedback;

(G)effect of wind at low level. (xxviii) Exercise 23: Transitions:

(A)revise ground effect, translational lift and flapback;

(B)maintaining constant height, (20-30 ft AGL);

(C)transition from hover to minimum 50 knots IAS and back to hover;

(D)demonstrate effect of wind.

(xxix)Exercise 24: Quick stops:

(A)use of power and controls;

(B)effect of wind;

(C)quick stops into wind;

(D)quick stops from crosswind and downwind terminating into wind;

(E)awareness of the danger of vortex ring;

(F)danger of high disc loading.

(xxx)Exercise 25a: Navigation:

(A)flight planning:

(a)weather forecast and actuals;

(b)map selection and preparation and use;

(1)choice of route:

(2)controlled airspace, danger and prohibited areas;

(3)safety altitudes and noise abatement considerations.

(c)calculations:

(1)magnetic heading(s) and time(s) en-route;

(2)fuel consumption;

(3)mass and balance.

(d)flight information:

(1)NOTAMs, etc.;

(2)radio frequencies;

(e)helicopter documentation;

(f)notification of the flight:

(1)pre-flight administrative procedures;

(2)flight plan form (where appropriate).

(B)departure:

(a)organisation of cockpit workload;

(b)departure procedures:

(1)altimeter settings;

(2)ATC liaison in controlled or regulated airspace;

(3)setting heading procedure;

(4)noting of ETAs.

(c)maintenance of height or altitude and heading;

(d)revisions of ETA and heading:

(1)10° line, double track and track error and closing angle;

(2)1 in 60 rule;

(3)amending an ETA.

(e)log keeping;

(f)use of radio;

(g)use of navaids (if fitted);

(h)minimum weather conditions for continuation of flight;

(i)in-flight decisions;

(j)transiting controlled or regulated airspace;

(k)uncertainty of position procedure;

(l)lost procedure.

(C)arrival and aerodrome joining procedure:

(a)ATC liaison in controlled or regulated airspace;

(b)altimeter setting;

(c)entering the traffic pattern;

(d)circuit procedures.

(e)parking;

(f)security of helicopter;

(g)refuelling;

(h)closing of flight plan (if appropriate);

(i)post-flight administrative procedures.

(xxxi)Exercise 25b: Navigation problems at low heights and in reduced visibility:

(A)actions before descending;

(B)hazards (for example obstacles and other aircraft);

(C)difficulties of map reading;

(D)effects of wind and turbulence;

(E)avoidance of noise sensitive areas;

(F)actions in the event of encountering DVE;

(G)decision to divert or conduct precautionary landing;

(H)bad weather circuit and landing;

(I)appropriate procedures and choice of landing area;

(J)precautionary landing. (xxxii) Exercise 25c: Radio navigation:

(A)use of GNSS:

(a)selection of waypoints;

(b)to or from indications and orientation;

(c)error messages;

(d)hazards of over-reliance on the use of GNSS in the continuation of flight in DVE.

(B)use of VHF omni range:

(a)availability, AIP and frequencies;

(b)selection and identification;

(c)OBS;

(d)to or from indications and orientation;

(e)CDI;

(f)determination of radial;

(g)intercepting and maintaining a radial;

(h)VOR passage;

(i)obtaining a fix from two VORs.

(C)use of ADF equipment: NDBs:

(a)availability, AIP and frequencies;

(b)selection and identification;

(c)orientation relative to the beacon;

(d)homing.

(D)use of VHF/DF:

(a)availability, AIP and frequencies;

(b)RTF procedures and ATC liaison;

(c)obtaining a QDM and homing.

(E)use of en-route or terminal radar:

(a)availability and AIP;

(b)procedures and ATC liaison;

(c)pilots responsibilities;

(d)secondary surveillance radar (if transponder fitted):

(1)transponders;

(2)code selection;

(3)interrogation and reply.

(F)use of DME:

(a)station selection and identification;

(b)modes of operation: distance, groundspeed and time to run. (xxxiii) Exercise 26: Advanced take-off, landings and transitions:

(A)landing and take-off out of wind (performance reduction);

(B)ground effect, translational lift and directional stability variation when out of wind;

(C)downwind transitions;

(D)vertical take-off over obstacles;

(E)running take-off;

(F)cushion creep take-off;

(G)reconnaissance of landing site;

(H)running landing;

(I)zero speed landing;

(J)crosswind and downwind landings;

(K)steep approach;

(L)go-around. (xxxiv) Exercise 27: Sloping ground:

(A)limitations and assessing slope angle;

(B)wind and slope relationship: blade and control stops;

(C)effect of CG when on slope;

(D)ground effect on slope and power required;

(E)right skid up slope;

(F)left skid up slope;

(G)nose up slope;

(H)avoidance of dynamic roll over, dangers of soft ground and sideways movement on touchdown;

(I)danger of striking main or tail rotor by harsh control movement near ground.

(xxxv)Exercise 28: Limited power:

(A)take-off power check;

(B)vertical take-off over obstacles;

(C)in-flight power check;

(D)running landing;

(E)zero speed landing;

(F)approach to low hover;

(G)approach to hover;

(H)approach to hover OGE;

(I)steep approach;

(J)go-around. (xxxvi) Exercise 29: Confined areas:

(A)landing capability and performance assessment;

(B)locating landing site and assessing wind speed and direction;

(C)reconnaissance of landing site;

(D)select markers;

(E)select direction and type of approach;

(F)circuit;

(G)approach to committed point and go-around;

(H)approach;

(I)clearing turn;

(J)landing;

(K)power check and performance assessment in and out of ground effect;

(L)normal take-off to best angle of climb speed;

(M)vertical take-off from hover. (xxxvii) Exercise 30: Basic instrument flight:

(A)physiological sensations;

(B)instrument appreciation:

(a)attitude instrument flight;

(b)instrument scan.

(C)instrument limitations;

(D)basic manoeuvres:

(a)straight and level at various air speeds and configurations;

(b)climbing and descending;

(c)standard rate turns, climbing and descending, onto selected headings.

(E)recoveries from climbing and descending turns;

(F)recoveries from unusual attitudes.

AMC · AMC2 FCL.210 — Regulation (EU) No 1178/2011 · ED Decision 2025/002/R · Aircrew Easy Access Rules · EAR revision 25 Nov 2025

AMCAcceptable means of compliance

AMC1 FCL.210(c)Training course

Show the text

CHANGE OF TRAINING ORGANISATION In cases where the applicant completes the training course (theoretical knowledge instruction or flight instruction) at a different DTO or ATO (‘completing training organisation’) from the one where they have started the training course (‘starting training organisation’), the applicant should request from the starting training organisation a copy of the records kept in accordance with point DTO.GEN.220 or point ORA.ATO.120

AMC · AMC1 FCL.210(c) — Regulation (EU) No 1178/2011 · ED Decision 2018/009/R · Aircrew Easy Access Rules · EAR revision 25 Nov 2025

AMCAcceptable means of compliance

AMC1 FCL.210; FCL.215 Training course and theoretical knowledge examination

Show the text

SYLLABUS OF THEORETICAL KNOWLEDGE FOR THE PPL(A) AND PPL(H) The following tables contain the syllabi for the courses of theoretical knowledge, as well as for the theoretical knowledge examinations for the PPL(A) and PPL(H). The training and examination should cover aspects related to non-technical skills in an integrated manner, taking into account the particular risks associated to the licence and the activity. The DTO or the ATO responsible for the training should check if all the appropriate elements of the training course of theoretical knowledge instruction have been completed to a satisfactory standard before recommending the applicant for the examination. The applicable items for each licence are marked with ‘x’. An ‘x’ on the main title of a subject means that all the sub-divisions are applicable.

AeroplaneHelicopter
PPLBridge coursePPLBridge course
1.AIR LAW AND ATC PROCEDURES
International law: conventions, agreements and organisations
The Convention on international civil aviation (Chicago) Doc. 7300/6
Part I Air Navigation: relevant parts of the following chapters: (a) general principles and application of the convention; (b) flight over territory of Contracting States; (c) nationality of aircraft; (d) measures to facilitate air navigation; (e) conditions to be fulfilled on aircraft; (f) international standards and recommended practices; (g) validity of endorsed certificates and licences; (h) notification of differences.xx
Part II The International Civil Aviation Organisation (ICAO): objectives and compositionxx
Annex 8: Airworthiness of aircraft
Foreword and definitionsxx
Certificate of airworthinessxx
Annex 7: Aircraft nationality and registration marks
Foreword and definitionsxx
Commonand registration marksxx
Certificate of registration and aircraft nationalityxx
Annex 1: Personnel licensing
Definitionsxx
Relevant parts of Annex 1 connected to Part-FCL and Part-Medicalxx
Annex 2: Rules of the air
Essential definitions, applicability of the rules of the air, general rules (except water operations), visual flight rules, signals and interception of civil aircraftxx
Procedures for air navigation: aircraft operations doc. 8168-ops/611, volume 1
Altimeter setting procedures (including IACO doc. 7030 – regional supplementary procedures)
Basic requirements (except tables), procedures applicable to operators and pilots (except tables)xx
Secondary surveillance radar transponder operating procedures (including ICAO Doc. 7030 – regional supplementary procedures)
Operation of transpondersxx
Phraseologyxx
Annex 11: Doc. 4444 air traffic management
Definitionsxx
General provisions for air traffic servicesxx
Visual separation in the vicinity of aerodromesxx
Procedures for aerodrome control servicesxx
Radar servicesxx
Flight information service and alerting servicexx
Phraseologiesxx
Procedures related to emergencies, communication failure and contingenciesxx
Annex 15: Aeronautical information service
Introduction, essential definitionsxx
AIP, NOTAM, AIRAC and AICxx
Annex 14, volume 1 and 2: Aerodromes
Definitionsxx
Aerodrome data: conditions of the movement area and related facilitiesxx
Visual aids for navigation: (a) indicators and signalling devices; (b) markings; (c) lights; (d) signs; (e) markers.xx
Visual aids for denoting obstacles: (a) marking of objects; (b) lighting of objects.xx
Visual aids for denoting restricted use of areasxx
Emergency and other services: (a) rescue and fire fighting; (b) apron management service.xx
Annex 12: Search and rescue
Essential definitionsxx
Operating procedures: (a) procedures for PIC at the scene of an accident; (b) procedures for PIC intercepting a distress transmission; (c) search and rescue signals.xx
Search and rescue signals: (a) signals with surface craft; (b) ground or air visual signal code; (c) air or ground signals.xx
Annex 17: Security
General: aims and objectivesxx
Annex 13: Aircraft accident investigation
Essential definitionsxx
Applicabilityxx
National law
National law and differences to relevant ICAO Annexes and relevant EU regulations.xx
2.HUMAN PERFORMANCE
Human factors: basic concepts
Human factors in aviation
Becoming a competent pilotxx
Basic aviation physiology and health maintenance
The atmosphere: (a) composition; (b) gas laws.xx
Respiratory and circulatory systems: (a) oxygen requirement of tissues; (b) functional anatomy; (c) main forms of hypoxia (hypoxic and anaemic): (1) sources, effects and countermeasures of carbon monoxide; (2) counter measures and hypoxia; (3) symptoms of hypoxia. (d) hyperventilation; (e) the effects of accelerations on the circulatory system; (f) hypertension and coronary heart disease.xx
Man and environment
Central, peripheral and autonomic nervous systemsxx
Vision: (a) functional anatomy; (b) visual field, foveal and peripheral vision; (c) binocular and monocular vision; (d) monocular vision cues; (e) night vision; (f) visual scanning and detection techniques and importance of ‘look-out’; (g) defective vision.xx
Hearing: (a) descriptive and functional anatomy; (b) flight related hazards to hearing; (c) hearing loss.xx
Equilibrium: (a) functional anatomy; (b) motion and acceleration; (c) motion sickness.xx
Integration of sensory inputs: (a) spatial disorientation: forms, recognition and avoidance;xx
(b) illusions: forms, recognition and avoidance: (1) physical origin; (2) physiological origin; (3) psychological origin. (c) approach and landing problems.
Health and hygiene
Personal hygiene: personal fitnessxx
Body rhythm and sleep: (a) rhythm disturbances; (b) symptoms, effects and management.xx
Problem areas for pilots: (a) common minor ailments including cold, influenza and gastro-intestinal upset; (b) entrapped gases and barotrauma, (scuba diving); (c) obesity; (d) food hygiene; (e) infectious diseases; (f) nutrition; (g) various toxic gases and materials.xx
Intoxication:xx
(a) prescribed medication; (b) tobacco; (c) alcohol and drugs; (d) caffeine; (e) self-medication.
Basic aviation psychology
Human information processing
Attention and vigilance: (a) selectivity of attention; (b) divided attention.xx
Perception: (A) perceptual illusions; (B) subjectivity of perception; (C) processes of perception.xx
Memory: (a) sensory memory; (b) working or short term memory; (c) long term memory to include motor memory (skills).xx
Human error and reliability
Reliability of human behaviourxx
Error generation: social environment (group, organisation)xx
Decision making
Decision-making concepts:xx
(a) structure (phases);
(b) limits; (c) risk assessment; (d) practical application.
Avoiding and managing errors: cockpit management
Safety awareness: (a) risk area awareness; (b) situational awareness.xx
Communication: verbal and non-verbal communicationxx
Human behaviour
Personality and attitudes: (a) development; (b) environmental influences.xx
Identification of hazardous attitudes (error proneness)xx
Human overload and underload
Arousalxx
Stress: (a) definition(s); (b) anxiety and stress; (c) effects of stress.xx
Fatigue and stress management: (a) types, causes and symptoms of fatigue; (b) effects of fatigue; (c) coping strategies; (d) management techniques; (e) health and fitness programmes;xx
3.METEOROLOGY
The atmosphere
Composition, extent and vertical division
Structure of the atmosphere Tropospherexx
xx
Air temperature
Definition and units Vertical distribution of temperature Transfer of heat Lapse rates, stability and instability Development of inversions and types of inversionsxx
xx
xx
xx
xx
Temperature near the earth’s surface, surface effects, diurnal and seasonal variation, effect of clouds and effect of windxx
Atmospheric pressure
Barometric pressure and isobarsxx
Pressure variation with height Reduction of pressure to mean sea level Relationship between surface pressure centres and pressure centres aloftxx
xx
xx
Air density
Relationship between pressure, temperature and densityxx
ISA
ICAO standard atmospherexx
Altimetry
Terminology and definitions Altimeter and altimeter settings Calculations Effect of accelerated airflow due to topographyxx
xx
xx
xx
Wind
Definition and measurement of wind
Definition and measurementxx
Primary cause of wind
Primary cause of wind, pressure gradient, coriolis force and gradient windxx
Variation of wind in the friction layer Effects of convergence and divergencexx
xx
General global circulation
General circulation around the globexx
Local winds
Anabatic and katabatic winds, mountain and valley winds, Venturi effects, land and sea breezesxx
Mountain waves (standing waves, lee waves)
Origin and characteristicsxx
Turbulence
Description and types of turbulencexx
Formation and location of turbulencexx
THERMODYNAMICS
Humidity
Water vapour in the atmospherexx
Mixing ratioxx
Temperature/dew point, relative humidityxx
Change of state of aggregation
Condensation, evaporation, sublimation, freezing and melting, latent heatxx
Adiabatic processes
Adiabatic processes, stability of the atmospherexx
CLOUDS AND FOG
Cloud formation and description
Cooling by adiabatic expansion and by advectionxx
Cloud types and cloud classificationxx
Influence of inversions on cloud developmentxx
Fog, mist, haze
General aspectsxx
Radiation fogxx
Advection fogxx
Steaming fogxx
Frontal fogxx
Orographic fog (hill fog)xx
PRECIPITATION
Development of precipitation
Processes of development of precipitationxx
Types of precipitation
Types of precipitation, relationship with cloud typesxx
AIR MASSES AND FRONTS
Air masses
Description, classification and source regions of air massesxx
Modifications of air massesxx
Fronts
General aspectsxx
Warm front, associated clouds, and weatherxx
Cold front, associated clouds, and weatherxx
Warm sector, associated clouds, and weatherxx
Weather behind the cold frontxx
Occlusions, associated clouds, and weatherxx
Stationary front, associated clouds, and weatherxx
Movement of fronts and pressure systems, life cyclexx
Changes of meteorological elements at a frontal wavexx
PRESSURE SYSTEMS
Anticyclone
Anticyclones, types, general properties, cold and warm anticyclones, ridges and wedges, subsidencexx
Non-frontal depressions
Thermal, orographic and polar depressions, troughsxx
CLIMATOLOGY
Climatic zones
General seasonal circulation in the tropospherexx
Typical weather situations in the mid-latitudes
Westerly situationxx
High-pressure areaxx
Flat-pressure patternxx
Local winds and associated weather
e.g. Foehnxx
FLIGHT HAZARDS
Icing
Conditions for ice accretionxx
Types of ice accretionxx
Hazards of ice accretion, avoidancexx
Turbulence
Effects on flight, avoidancexx
Wind shear
Definition of wind shearxx
Weather conditions for wind shearxx
Effects on flight, avoidancexx
Thunderstorms
Conditions for, and process of, development, forecast, location, type specificationxx
Structure of thunderstorms, life cycle, squall lines, electricity in the atmosphere, static chargesxx
Electrical discharges
Development and effects of downburstsxx
Thunderstorm avoidancexx
Inversions
Influence on aircraft performancexx
Hazards in mountainous areas
Influence of terrain on clouds and precipitation, frontal passagexx
Vertical movements, mountain waves, wind shear, turbulence, ice accretionxx
Development and effect of valley inversionsxx
Visibility-reducing phenomena
Reduction of visibility caused by precipitation and obscurationxx
Reduction of visibility caused by other phenomenaxx
METEOROLOGICAL INFORMATION
Observation
Surface observationsxx
Radiosonde observationsxx
Satellite observationsxx
Weather radar observationsxx
Aircraft observations and reportingxx
Weather charts
Significant weather chartsxx
Surface chartsxx
Information for flight planning
Aviation weather messagesxx
Meteorological broadcasts for aviationxx
Use of meteorological documentsxx
Meteorological warningsxx
Meteorological services
World area forecast system (WAFS) and meteorological officesxx
4.COMMUNICATIONS
VFR COMMUNICATIONS
Definitions
Meanings and significance of associated termsxx
ATS abbreviationsxx
Q-code groups commonly used in RTF airground communicationsxx
Categories of messagesxx
General operating procedures
Transmission of lettersxx
Transmission of numbers (including level information)xx
Transmission of timexx
Transmission techniquexx
Standard words and phrases (relevant RTF phraseology included)xx
R/T call signs for aeronautical stations including use of abbreviated call signsxx
R/T call signs for aircraft including use of abbreviated call signsxx
Transfer of communicationxx
Test procedures including readability scalexx
Read back and acknowledgement requirementsxx
Relevant weather information terms (VFR)
Aerodrome weatherxx
Weather broadcastxx
Action required to be taken in case of communication failurexx
Distress and urgency procedures
Distress (definition, frequencies, watch of distress frequencies, distress signal and distress message)xx
Urgency (definition, frequencies, urgency signal and urgency message)xx
General principles of VHF propagation and allocation of frequenciesxx
5.PRINCIPLES OF FLIGHT
5.1.PRINCIPLES OF FLIGHT: AEROPLANE
Subsonic aerodynamics
Basics concepts, laws and definitions
Laws and definitions:xx
(a) conversion of units; (b) Newton´s laws; (c) Bernoulli’s equation and venture; (d) static pressure, dynamic pressure and total pressure; (e) density; (f) IAS and TAS.
Basics about airflow: (a) streamline; (b) two-dimensional airflow; (c) three-dimensional airflow.xx
Aerodynamic forces on surfaces: (a) resulting airforce; (b) lift; (c) drag; (d) angle of attack.xx
Shape of an aerofoil section: (a) thickness to chord ratio; (b) chord line; (c) camber line; (d) camber; (e) angle of attack.xx
The wing shape: (a) aspect ratio; (b) root chord; (c) tip chord; (d) tapered wings; (e) wing planform.xx
The two-dimensional airflow about an aerofoil
Streamline patternxx
Stagnation pointxx
Pressure distributionxx
Centre of pressurexx
Influence of angle of attackxx
Flow separation at high angles of attackxx
The lift – α graphxx
The coefficients
The lift coefficient Cl: the lift formulaxx
The drag coefficient Cd: the drag formulaxx
The three-dimensional airflow round a wing and a fuselage
Streamline pattern: (a) span-wise flow and causes; (b) tip vortices and angle of attack; (c) upwash and downwash due to tip vortices; (d) wake turbulence behind an aeroplane (causes, distribution and duration of the phenomenon).xx
Induced drag: (a) influence of tip vortices on the angle of attack; (b) the induced local α; (c) influence of induced angle of attack on the direction of the lift vector; (d) induced drag and angle of attack.xx
Drag
The parasite drag: (a) pressure drag; (b) interference drag; (c) friction drag.xx
The parasite drag and speedxx
The induced drag and speedxx
The total dragxx
The ground effect
Effect on take off and landing characteristics of an aeroplanexx
The stall
Flow separation at increasing angles of attack: (a) the boundary layer: (1) laminar layer; (2) turbulent layer; (3) transition. (b) separation point; (c) influence of angle of attack; (d) influence on: (1) pressure distribution; (2) location of centre of pressure; (3) CL; (4) CD; (5) pitch moments. (e) buffet; (f) use of controls.xx
The stall speed: (a) in the lift formula; (b) 1g stall speed; (c) influence of: (1) the centre of gravity; (2) power setting; (3) altitude (IAS); (4) wing loading; (5) load factor n: (i) definition; (ii) turns; (iii) forces.xx
The initial stall in span-wise direction: (a) influence of planform; (b) geometric twist (wash out); (c) use of ailerons.xx
Stall warning: (a) importance of stall warning; (b) speed margin; (c) buffet; (d) stall strip; (e) flapper switch; (f) recovery from stall.xx
Special phenomena of stall: (a) the power-on stall; (b) climbing and descending turns; (c) t-tailed aeroplane; (d) avoidance of spins: (1) spin development; (2) spin recognition; (3) spin recovery. (e) ice (in stagnation point and on surface): (1) absence of stall warning; (2) abnormal behaviour of the aircraft during stall.xx
CL augmentation
Trailing edge flaps and the reasons for use in take-off and landing: (a) influence on CL - α-graph; (b) different types of flaps; (c) flap asymmetry; (d) influence on pitch movement.xx
Leading edge devices and the reasons for use in take-off and landingxx
The boundary layer
Different types: (a) laminar; (b) turbulent.xx
Special circumstances
Ice and other contamination: (a) ice in stagnation point; (b) ice on the surface (frost, snow and clear ice); (c) rain; (d) contamination of the leading edge; (e) effects on stall; (f) effects on loss of controllability; (g) effects on control surface moment; (h) influence on high lift devices during takeoff, landing and low speeds.xx
Stability
Condition of equilibrium in steady horizontal flight
Precondition for static stabilityxx
Equilibrium: (a) lift and weight; (b) drag and thrust.xx
Methods of achieving balance
Wing and empennage (tail and canard)xx
Control surfacesxx
Ballast or weight trimxx
Static and dynamic longitudinal stability
Basics and definitions: (a) static stability, positive, neutral and negative; (b) precondition for dynamic stability; (c) dynamic stability, positive, neutral and negative.xx
Location of centre of gravity: (a) aft limit and minimum stability margin; (b) forward position; (c) effects on static and dynamic stability.xx
Dynamic lateral or directional stability
Spiral dive and corrective actionsxx
Control
General
Basics, the three planes and three axisxx
Angle of attack changexx
Pitch control
Elevatorxx
Downwash effectsxx
Location of centre of gravityxx
Yaw control
Pedal or rudderxx
Roll control
Ailerons: function in different phases of flightxx
Adverse yawxx
Means to avoid adverse yaw: (a) frise ailerons; (b) differential ailerons deflection.xx
Means to reduce control forces
Aerodynamic balance: (a) balance tab and anti-balance tab; (b) servo tab.xx
Mass balance
Reasons to balance: meansxx
Trimming
Reasons to trimxx
Trim tabsxx
Limitations
Operating limitations
Flutterxx
vfexx
vno, vnexx
Manoeuvring envelope
Manoeuvring load diagram: (a) load factor; (b) accelerated stall speed; (c) va; (d) manoeuvring limit load factor or certification category.xx
Contribution of massxx
Gust envelope
Gust load diagramxx
Factors contributing to gust loadsxx
Propellers
Conversion of engine torque to thrust
Meaning of pitchxx
Blade twistxx
Effects of ice on propellerxx
Engine failure or engine stop
Windmilling dragxx
Moments due to propeller operation
Torque reactionxx
Asymmetric slipstream effectxx
Asymmetric blade effectxx
Flight mechanics
Forces acting on an aeroplane
Straight horizontal steady flightxx
Straight steady climbxx
Straight steady descentxx
Straight steady glidexx
Steady coordinated turn: (a) bank angle; (b) load factor; (c) turn radius; (d) rate one turn.xx
5.2.PRINCIPLES OF FLIGHT: HELICOPTER
Subsonic aerodynamics
Basic concepts, laws and definitionsxx
Conversion of unitsxx
Definitions and basic concepts about air:xx
(a) the atmosphere and International Standard Atmosphere; (b) density; (c) influence of pressure and temperature on density.
Newton’s laws: (a) Newton’s second law: Momentum equation; (b) Newton’s third law: action and reaction.xx
Basic concepts about airflow: (a) steady airflow and unsteady airflow; (b) Bernoulli’s equation; (c) static pressure, dynamic pressure, total pressure and stagnation point; (d) TAS and IAS; (e) two-dimensional airflow and three-dimensional airflow; (f) viscosity and boundary layer.xx
Two-dimensional airflowxx
Aerofoil section geometry: (a) aerofoil section; (b) chord line, thickness and thickness to chord ratio of a section; (c) camber line and camber; (d) symmetrical and asymmetrical aerofoils sections.xx
Aerodynamic forces on aerofoil elements: (a) angle of attack; (b) pressure distribution; (c) lift and lift coefficient (d) relation lift coefficient: angle of attack; (e) profile drag and drag coefficient; (f) relation drag coefficient: angle of attack; (g) resulting force, centre of pressure and pitching moment.xx
Stall: (a) boundary layer and reasons for stalling; (b) variation of lift and drag as a function of angle of attack; (c) displacement of the centre of pressure and pitching moment.xx
Disturbances due to profile contamination: (a) ice contamination; (b) ice on the surface (frost, snow and clear ice).xx
The three-dimensional airflow round a wing and a fuselagexx
The wing:xx
(a) planform, rectangular and tapered wings;
(b) wing twist.
Airflow pattern and influence on lift:xx
(a) span wise flow on upper and lower surface; (b) tip vortices; (c) span-wise lift distribution.
Induced drag: causes and vorticesxx
The airflow round a fuselage: (a) components of a fuselage; (b) parasite drag; (c) variation with speed.xx
Transonic aerodynamics and compressibility effects
Airflow velocitiesxx
Airflow speeds: (a) speed of sound; (b) subsonic, high subsonic and supersonic flows.xx
Shock waves: (a) compressibility and shock waves; (b) the reasons for their formation at upstream high subsonic airflow; (c) their effect on lift and drag.xx
Influence of wing planform: sweep-anglexx
Rotorcraft typesxx
Rotorcraftxx
Rotorcraft types: (a) autogyro; (b) helicopter.xx
Helicoptersxx
Helicopters configurations: the single main rotor helicopterxx
The helicopter, characteristics and associated terminology: (a) general lay-out, fuselage, engine and gearbox; (b) tail rotor, fenestron and NOTAR;xx
(c) engines (reciprocating and turbo shaft engines); (d) power transmission;
(e) rotor shaft axis, rotor hub and rotor blades; (f) rotor disc and rotor disc area; (g) teetering rotor (two blades) and rotors with more than two blades;
(h) skids and wheels; (i) helicopter axes and fuselage centre line;
(j) roll axis, pitch axis and normal or yaw axis; (k) gross mass, gross weight and disc loading.
Main rotor aerodynamicsxx
Hover flight outside ground effectxx
Airflow through the rotor discs and round the blades: (a) circumferential velocity of the blade sections; (b) induced airflow, through the disc and downstream; (c) downward fuselage drag; (d) equilibrium of rotor thrust, weight and fuselage drag; (e) rotor disc induced power; (f) relative airflow to the blade; (g) pitch angle and angle of attack of a blade section; (h) lift and profile drag on the blade element; (i) resulting lift and thrust on the blade and rotor thrust; (j) collective pitch angle changes and necessity of blade feathering; (k) required total main rotor-torque and rotor-power; (l) influence of the air density.xx
Anti-torque force and tail rotor: (a) force of tail rotor as a function of main rotor-torque; (b) anti-torque rotor power; (c) necessity of blade feathering of tail rotor blades and yaw pedals.xx
Maximum hover altitude OGE: (a) total power required and power available; (b) maximum hover altitude as a function of pressure altitude and OAT.xx
Vertical climbxx
Relative airflow and angles of attack:xx
(a) climb velocity VC, induced and relative velocity and angle of attack; (b) collective pitch angle and blade feathering.
Power and vertical speed: (a) induced power, climb power and profile power;xx
(b) total main rotor power and main rotor torque;
(c) tail rotor power;
(d) total power requirement in vertical flight.
Forward flightxx
Airflow and forces in uniform inflow distribution: (a) assumption of uniform inflow distribution on rotor disc; (b) advancing blade (90°) and retreating blade (270°); (c) airflow velocity relative to the blade sections, area of reverse flow; (d) lift on the advancing and retreating blades at constant pitch angles; (e) necessity of cyclic pitch changes; (f) compressibility effects on the advancing blade tip and speed limitations; (g) high angle of attack on the retreating blade, blade stall and speed limitations; (h) thrust on rotor disc and tilt of thrust vector; (i) vertical component of the thrust vector and gross weight equilibrium; (j) horizontal component of the thrust vector and drag equilibrium.xx
The flare (power flight):xx
(a) thrust reversal and increase in rotor thrust; (b) increase of rotor RPM on non governed rotor.
Power and maximum speed: (a) induced power as a function of helicopter speed; (b) rotor profile power as a function of helicopter speed; (c) fuselage drag and parasite power as a function of forward speed; (d) tail rotor power and power ancillary equipment; (e) total power requirement as a function of forward speed; (f) influence of helicopter mass, air density and drag of additional external equipment;xx
(g) translational lift and influence on power required.
Hover and forward flight in ground effectxx
Airflow in ground effect and downwash: rotor power decrease as a function of rotor height above the ground at constant helicopter massxx
Vertical descentxx
Vertical descent, power on:xx
(a) airflow through the rotor, low and moderate descent speeds; (b) vortex ring state, settling with power and consequences.
Autorotation: (a) collective lever position after failure; (b) up flow through the rotor, auto-rotation and anti-autorotation rings; (c) tail rotor thrust and yaw control; (d) control of rotor RPM with collective lever; (e) landing after increase of rotor thrust by pulling collective and reduction in vertical speed.xx
Forward flight: Autorotationxx
Airflow through the rotor disc: (a) descent speed and up flow through the disc; (b) the flare, increase in rotor thrust, reduction of vertical speed and ground speed.xx
Flight and landing:xx
(a) turning; (b) flare; (c) autorotative landing; (d) height or velocity avoidance graph and dead man’s curve.
Main rotor mechanicsxx
Flapping of the blade in hoverxx
Forces and stresses on the blade: (a) centrifugal force on the blade and attachments; (b) limits of rotor RPM; (c) lift on the blade and bending stresses on a rigid attachment; (d) the flapping hinge of the articulated rotor and flapping hinge offset; (e) the flapping of the hinge less rotor and flexible element.xx
Coning angle in hover:xx
(a) lift and centrifugal force in hover and blade weight negligible (b) flapping, tip path plane and disc area.
Flapping angles of the blade in forward flightxx
Forces on the blade in forward flight without cyclic feathering: (a) aerodynamic forces on the advancing and retreating blades without cyclic feathering; (b) periodic forces and stresses, fatigue and flapping hinge; (c) phase lag between the force and the flapping angle (about 90°); (d) flapping motion of the hinged blades and tilting of the cone and flap back of rotor; (e) rotor disc attitude and thrust vector tilt.xx
Cyclic pitch (feathering) in helicopter mode, forward flight: (a) necessity of forward rotor disc tilt and thrust vector tilt; (b) flapping and tip path plane, virtual rotation axis or no flapping axis and plane of rotation; (c) shaft axis and hub plane; (d) cyclic pitch change (feathering) and rotor thrust vector tilt; (e) collective pitch change, collective lever, swash plate, pitch link and pitch horn; (f) cyclic stick, rotating swash plate and pitch link movement and phase angle.xx
Blade lag motionxx
Forces on the blade in the disc plane (tip path plane) in forward flight: (a) forces due to the Coriolis effect because of the flapping; (b) alternating stresses and the need of the drag or lag hinge.xx
The drag or lag hinge: (a) the drag hinge in the fully articulated rotor; (b) the lag flexure in the hinge less rotor; (c) drag dampers.xx
Ground resonance: (a) blade lag motion and movement of the centre of gravity of the blades and the rotor; (b) oscillating force on the fuselage; (c) fuselage, undercarriage and resonance.xx
Rotor systemsxx
See-saw or teetering rotorxx
Fully articulated rotor: (a) three hinges arrangement; (b) bearings and elastomeric hinges.xx
Hinge less rotor and bearing less rotorxx
Blade sailing: (a) low rotor RPM and effect of adverse wind; (b) minimising the danger;xx
(c) droop stops.
Vibrations due to main rotor: (a) origins of the vibrations: in plane and vertical; (b) blade tracking and balancing.xx
Tail rotorsxx
Conventional tail rotorxx
Rotor description: (a) two-blades tail rotors with teetering hinge; (b) rotors with more than two blades; (c) feathering bearings and flapping hinges; (d) dangers to people and to the tail rotor, rotor height and safety.xx
Aerodynamics: (a) induced airflow and tail rotor thrust; (b) thrust control by feathering, tail rotor drift and roll; (c) effect of tail rotor failure and vortex ring.xx
The fenestron: technical lay-outxx
The NOTAR: technical lay-outxx
Vibrations: high frequency vibrations due to the tail rotorsxx
Equilibrium, stability and controlxx
Equilibrium and helicopter attitudesxx
Hover: (a) forces and equilibrium conditions; (b) helicopter pitching moment and pitch angle; (c) helicopter rolling moment and roll angle.xx
Forward flight: (a) forces and equilibrium conditions; (b) helicopter moments and angles; (c) effect of speed on fuselage attitude.xx
Controlxx
Control powerxx
(a) fully articulated rotor; (b) hinge less rotor; (c) teetering rotor.
Static and dynamic roll overxx
Helicopter performances Engine performancesxx
Piston engines:xx
(a) power available; (b) effects of density altitude.
Turbine engines: (a) power available; (b) effects of ambient pressure and temperature.xx
Helicopter performancesxx
Hover and vertical flight: (a) power required and power available; (b) OGE and IGE maximum hover height; (c) influence of AUM, pressure, temperature and density.xx
Forward flight: (a) maximum speed; (b) maximum rate of climb speed; (c) maximum angle of climb speed; (d) range and endurance; (e) influence of AUM, pressure, temperature and density.xx
Manoeuvring: (a) load factor; (b) bank angle and number of g’s; (c) manoeuvring limit load factor.xx
Special conditions: (a) operating with limited power; (b) over pitch and over torque.xx
6.OPERATIONAL PROCEDURES
General
Operation of aircraft: ICAO Annex 6, General requirements
Definitionsxxxx
Applicabilityxxxx
Special operational procedures and hazards (general aspects)xxxx
Noise abatement
Noise abatement proceduresxxxx
Influence of the flight procedure (departure, cruise and approach)xxxx
Runway incursion awareness (meaning of surface markings and signals)xxxx
Fire or smoke
Carburettor firexxxx
Engine firexxxx
Fire in the cabin and cockpit, (choice of extinguishing agents according to fire classification and use of the extinguishers)xxxx
Smoke in the cockpit and (effects and action to be taken) and smoke in the cockpit and cabin (effects and actions taken)xxxx
Windshear and microburst
Effects and recognition during departure and approachxxxx
Actions to avoid and actions taken during encounterxxxx
Wake turbulence
Causexxxx
List of relevant parametersxxxx
Actions taken when crossing traffic, during take-off and landingxxxx
Emergency and precautionary landings
Definitionxxxx
Causexxxx
Passenger informationxxxx
Evacuationxxxx
Action after landingxxxx
Contaminated runways
Kinds of contaminationxx
Estimated surface friction and friction coefficientxx
Rotor downwashxx
Operation influence by meteorological conditions (helicopter)
White out, sand or dustxx
Strong windsxx
Mountain environmentxx
Emergency procedures
Influence by technical problems
Engine failurexx
Fire in cabin, cockpit or enginexx
Tail, rotor or directional control failurexx
Ground resonancexx
Blade stallxx
Settling with power (vortex ring)xx
Overpitchxx
Overspeed: rotor or enginexx
Dynamic rolloverxx
Mast bumpingxx
7.FLIGHT PERFORMANCE AND PLANNING
7.1.MASS AND BALANCE: AEROPLANES OR HELICOPTERS
Purpose of mass and balance considerations
Mass limitations
Importance in regard to structural limitationsxxxx
Importance in regard to performance limitationsxxxx
CG limitations
Importance in regard to stability and controllabilityxxxx
Importance in regard to performancexxxx
Loading
Terminology
Mass termsxxxx
Load terms (including fuel terms)xxxx
Mass limits
Structural limitationsxxxx
Performance limitationsxxxx
Baggage compartment limitationsxxxx
Mass calculations
Maximum masses for take-off and landingxxxx
Use of standard masses for passengers, baggage and crewxxxx
Fundamentals of CG calculations
Definition of centre of gravityxxxx
Conditions of equilibrium (balance of forces and balance of moments)xxxx
Basic calculations of CGxxxx
Mass and balance details of aircraft
Contents of mass and balance documentation
Datum and moment armxxxx
CG position as distance from datumxxxx
Extraction of basic mass and balance data from aircraft documentation
BEMxxxx
CG position or moment at BEMxxxx
Deviations from standard configurationxxxx
Determination of CG position
Methods
Arithmetic methodxxxx
Graphic methodxxxx
Load and trim sheet
General considerationsxxxx
Load sheet and CG envelope for light aeroplanes and for helicoptersxxxx
7.2.PERFORMANCE: AEROPLANES
Introduction
Performance classesxx
Stages of flightxx
Effect of aeroplane mass, wind, altitude, runway slope and runway conditionsxx
Gradientsxx
SE aeroplanes
Definitions of terms and speedsxx
Take-off and landing performance
Use of aeroplane flight manual dataxx
Climb and cruise performance
Use of aeroplane flight dataxx
Effect of density altitude and aeroplane massxx
Endurance and the effects of the different recommended power or thrust settingsxx
Still air range with various power or thrust settingsxx
7.3.FLIGHT PLANNING AND FLIGHT MONITORING
Flight planning for VFR flights
VFR navigation plan
Routes, airfields, heights and altitudes from VFR chartsxxxx
Courses and distances from VFR chartsxxxx
Aerodrome charts and aerodrome directoryxxxx
Communications and radio navigation planning dataxxxx
Completion of navigation planxxxx
Fuel planning
General knowledgexxxx
Pre-flight calculation of fuel required
Calculation of extra fuelxxxx
Completion of the fuel section of the navigation plan (fuel log) and calculation of total fuelxxxx
Pre-flight preparation
AIP and NOTAM briefing
Ground facilities and servicesxxxx
Departure, destination and alternate aerodromesxxxx
Airway routings and airspace structurexxxx
Meteorological briefing
Extraction and analysis of relevant data from meteorological documentsxxxx
ICAO flight plan (ATS flight plan)
Individual flight plan
Format of flight planxxxx
Completion of the flight planxxxx
Submission of the flight planxxxx
Flight monitoring and in-flight replanning
Flight monitoring
Monitoring of track and timexxxx
In-flight fuel managementxxxx
In-flight re-planning in case of deviation from planned dataxxxx
7.4.PERFORMANCE: HELICOPTERS
General
Introduction
Stages of flightxx
Effect on performance of atmospheric, airport or heliport and helicopter conditionsxx
Applicability of airworthiness requirementsxx
Definitions and terminologyxx
Performance: SE helicopters
Definitions of terms (a) masses; (b) velocities: vx, vy;xx
(c) velocity of best range and of maximum endurance; (d) power limitations; (e) altitudes.
Take-off, cruise and landing performance Use and interpretation of diagrams and tables: (a) Take-off: (1) take-off run and distance available; (2) take-off and initial climb; (3) effects of mass, wind and density altitude; (4) effects of ground surface and gradient. (b) Landing: (1) effects of mass, wind, density altitude and approach speed; (2) effects of ground surface and gradient. (c) In-flight: (1) relationship between power required and power available; (2) performance diagram; (3) effects of configuration, mass, temperature and altitude; (4) reduction of performance during climbing turns; (5) autorotation; (6) adverse effects (icing, rain and condition of the airframe).xx
8.AIRCRAFT GENERAL KNOWLEDGE
8.1.AIRFRAME AND SYSTEMS, ELECTRICS, POWERPLANT AND EMERGENCY EQUIPMENT
System design, loads, stresses, maintenance
Loads and combination loadings applied to an aircraft’s structurexxxx
Airframe
Wings, tail surfaces and control surfaces
Design and constructionsxx
Structural components and materialsxx
Stressesxx
Structural limitationsxx
Fuselage, doors, floor, wind-screen and windows
Design and constructionsxxxx
Structural components and materialsxxxx
Stressesxxxx
Structural limitationsxxxx
Flight and control surfaces
Design and constructionsxx
Structural components and materialsxx
Stresses and aero elastic vibrationsxx
Structural limitationsxx
Hydraulics
Hydromechanics: basic principlesxxxx
Hydraulic systemsxxxx
Hydraulic fluids: types and characteristics, limitationsxxxx
System components: design, operation, degraded modes of operation, indications and warningsxxxx
Landing gear, wheels, tyres and brakes
Landing gear
Types and materialsxxxx
Nose wheel steering: design and operationxx
Brakes
Types and materialsxxxx
System components: design, operation, indications and warningsxxxx
Wheels and tyres
Types and operational limitationsxxxx
Helicopter equipmentsxx
Flight controls
Mechanical or poweredxxxx
Control systems and mechanicalxxxx
System components: design, operation, indications and warnings, degraded modes of operation and jammingxxxx
Secondary flight controls
System components: design, operation, degraded modes of operation, indications and warningsxx
Anti-icing systems
Types and operation (pitot and windshield)xxxx
Fuel system
Piston engine
System components: design, operation, degraded modes of operation, indications and warningsxxxx
Turbine engine
System components: design, operation, degraded modes of operation, indications and warningsxx
Electrics
Electrics: general and definitions
Direct current: voltage, current, resistance, conductivity, Ohm’s law, power and workxxxx
Alternating current: voltage, current, amplitude, phase, frequency and resistancexxxx
Circuits: series and parallelxxxx
Magnetic field: effects in an electrical circuitxxxx
Batteries
Types, characteristics and limitationsxxxx
Battery chargers, characteristics and limitationsxxxx
Static electricity: general
Basic principlesxxxx
Static dischargersxxxx
Protection against interferencexxxx
Lightning effectsxxxx
Generation: production, distribution and use
DC generation: types, design, operation, degraded modes of operation, indications and warningsxxxx
AC generation: types, design, operation, degraded modes of operation, indications and warningsxxxx
Electric components
Basic elements: basic principles of switches, circuit-breakers and relaysxxxx
Distribution
General: (a) bus bar, common earth and priority; (b) AC and DC comparison.xxxx
Piston engines
General
Types of internal combustion engine: basic principles and definitionsxxxx
Engine: design, operation, components and materialsxxxx
Fuel
Types, grades, characteristics and limitationsxxxx
Alternate fuel: characteristics and limitationsxxxx
Carburettor or injection system
Carburettor: design, operation, degraded modes of operation, indications and warningsxxxx
Injection: design, operation, degraded modes of operation, indications and warningsxxxx
Icingxxxx
Air cooling systems
Design, operation, degraded modes of operation, indications and warningsxxxx
Lubrication systems
Lubricants: types, characteristics and limitationsxxxx
Design, operation, degraded modes of operation, indications and warningsxxxx
Ignition circuits
Design, operation, degraded modes of operationxxxx
Mixture
Definition, characteristic mixtures, control instruments, associated control levers and indicationsxxxx
Propellers
Definitions and general: (a) aerodynamic parameters; (b) types; (c) operating modes.xx
Constant speed propeller: design, operation and system componentsxx
Propeller handling: associated control levers, degraded modes of operation, indications and warningsxx
Performance and engine handling
Performance: influence of engine parameters, influence of atmospheric conditions, limitations and power augmentation systemsxxxx
Engine handling: power and mixture settings during various flight phases and operational limitationsxxxx
Turbine engines
Definitionsxx
Coupled turbine engine: design, operation, components and materialsxx
Free turbine engine: design, operation, components and materialsxx
Fuel
Types, characteristics and limitationsxx
Main engine components
Compressor: (a) types, design, operation, components and materials; (b) stresses and limitations; (c) stall, surge and means of prevention.xx
Combustion chamber: (a) types, design, operation, components and materials; (b) stresses and limitations; (c) emission problems.xx
Turbine: (a) types, design, operation, components and materials; (b) stresses, creep and limitations.xx
Exhaust: (a) design, operation and materials; (b) noise reduction.xx
Fuel control units: types, operation and sensorsxx
Helicopter air intake: different types, design, operation, materials and optional equipmentsxx
Additional components and systems
Helicopter additional components and systems: lubrication system, ignition circuit, starter, accessory gearbox, free wheel units: design, operation and componentsxx
Performance aspects
Torque, performance aspects, engine handling and limitations: (a) engine ratings; (b) engine performance and limitations; (c) engine handling.xx
Protection and detection systems
Fire detection systems
Operation and indicationsxX
Miscellaneous systems
Rotor designxx
Rotor heads
Main rotor
Typesxx
Structural components and materials, stresses and structural limitationsxx
Design and constructionxx
Adjustmentxx
Tail rotor
Typesxx
Structural components and materials, stresses and structural limitationsxx
Design and constructionxx
Adjustmentxx
Transmission
Main gear box
Different types, design, operation and limitationsxx
Rotor brake
Different types, design, operation and limitationsxx
Auxiliary systemsxx
Drive shaft and associated installationxx
Intermediate and tail gear box
Different types, design, operation and limitationsxx
Blades
Main rotor blade
Design and constructionxx
Structural components and materialsxx
Stressesxx
Structural limitationsxx
Adjustmentxx
Tip shapexx
Tail rotor blade
Design and constructionxx
Structural components and materialsxx
Stressesxx
Structural limitationsxx
Adjustmentxx
8.2.INSTRUMENTATION
Instrument and indication systems
Pressure gauge
Different types, design, operation, characteristics and accuracyxxxx
Temperature sensing
Different types, design, operation, characteristics and accuracyxxxx
Fuel gauge
Different types, design, operation, characteristics and accuracyxxxx
Flow meter
Different types, design, operation, characteristics and accuracyxxxx
Position transmitter
Different types, design, operation, characteristics and accuracyxxxx
Torque meter
Design, operation, characteristics and accuracyxx
Tachometer
Design, operation, characteristics and accuracyxxxx
Measurement of aerodynamic parameters
Pressure measurement
Static pressure, dynamic pressure, density and definitionsxxxx
Design, operation, errors and accuracyxxxx
Temperature measurement: aeroplane
Design, operation, errors and accuracyxx
Displaysxx
Temperature measurement: helicopter
Design, operation, errors and accuracyxx
Displaysxx
Altimeter
Standard atmospherexxxx
The different barometric references (QNH, QFE and 1013.25)xxxx
Height, indicated altitude, true altitude, pressure altitude and density altitudexxxx
Design, operation, errors and accuracyxxxx
Displaysxxxx
Vertical speed indicator
Design, operation, errors and accuracyxxxx
Displaysxxxx
Air speed indicator
The different speeds IAS, CAS, TAS: definition, usage and relationshipsxxxx
Design, operation, errors and accuracyxxxx
Displaysxxxx
Magnetism: direct reading compass
Earth magnetic fieldxxxx
Direct reading compass
Design, operation, data processing, accuracy and deviationxxxx
Turning and acceleration errorsxxxx
Gyroscopic instruments
Gyroscope: basic principles
Definitions and designxxxx
Fundamental propertiesxxxx
Driftsxxxx
Turn and bank indicator
Design, operation and errorsxxxx
Attitude indicator
Design, operation, errors and accuracyxxxx
Directional gyroscope
Design, operation, errors and accuracyxxxx
Communication systems
Transmission modes: VHF, HF and SATCOM
Principles, bandwidth, operational limitations and usexxxx
Voice communication
Definitions, general and applicationsxxxx
Alerting systems and proximity systems
Flight warning systems
Design, operation, indications and alarmsxxxx
Stall warning
Design, operation, indications and alarmsxx
Radio-altimeter
Design, operation, errors, accuracy and indicationsxx
Rotor or engine over speed alert system
Design, operation, displays and alarmsxx
Integrated instruments: electronic displays
Display units
Design, different technologies and limitationsxxxx
9.NAVIGATION
9.1.GENERAL NAVIGATION
Basics of navigation
The solar system
Seasonal and apparent movements of the sunxx
The earth
Great circle, small circle and rhumb linexx
Latitude and difference of latitudexx
Longitude and difference of longitudexx
Use of latitude and longitude co-ordinates to locate any specific positionxx
Time and time conversions
Apparent timexx
UTCxx
LMTxx
Standard timesxx
Datelinexx
Definition of sunrise, sunset and civil twilightxx
Directions
True north, magnetic north and compass northxx
Compass deviationxx
Magnetic poles, isogonals, relationship between true and magneticxx
Distance
Units of distance and height used in navigation: nautical miles, statute miles, kilometres, metres and ftxx
Conversion from one unit to anotherxx
Relationship between nautical miles and minutes of latitude and minutes of longitudexx
Magnetism and compasses
General principles
Terrestrial magnetismxx
Resolution of the earth’s total magnetic force into vertical and horizontal componentsxx
Variation-annual changexx
Aircraft magnetism
The resulting magnetic fieldsxx
Keeping magnetic materials clear of the compassxx
Charts
General properties of miscellaneous types of projections
Direct Mercatorxx
Lambert conformal conicxx
The representation of meridians, parallels, great circles and rhumb lines
Direct Mercatorxx
Lambert conformal conicxx
The use of current aeronautical charts
Plotting positionsxx
Methods of indicating scale and relief (ICAO topographical chart)xx
Conventional signsxx
Measuring tracks and distancesxx
Plotting bearings and distancesxx
DR navigation
Basis of DR
Trackxx
Heading (compass, magnetic and true)xx
Wind velocityxx
Air speed (IAS, CAS and TAS)xx
Groundspeedxx
ETAxx
Drift and wind correction anglexx
DR position fixxx
Use of the navigational computer
Speedxx
Timexx
Distancexx
Fuel consumptionxx
Conversionsxx
Air speedxx
Wind velocityxx
True altitudexx
The triangle of velocities
Headingxx
Ground speedxx
Wind velocityxx
Track and drift anglexx
Measurement of DR elements
Calculation of altitudexx
Determination of appropriate speedxx
In-flight navigation
Use of visual observations and application to in-flight navigationxx
Navigation in cruising flight, use of fixes to revise navigation data
Ground speed revisionxx
Off-track correctionsxx
Calculation of wind speed and directionxx
ETA revisionsxx
Flight logxx
9.2.RADIO NAVIGATION
Basic radio propagation theory
Antennas
Characteristicsxx
Wave propagation
Propagation with the frequency bandsxx
Radio aids
Ground DF
Principlesxx
Presentation and interpretationxx
Coveragexx
Rangexx
Errors and accuracyxx
Factors affecting range and accuracyxx
NDB/ADF
Principlesxx
Presentation and interpretationxx
Coveragexx
Rangexx
Errors and accuracyxx
Factors affecting range and accuracyxx
VOR
Principlesxx
Presentation and interpretationxx
Coveragexx
Rangexx
Errors and accuracyxx
Factors affecting range and accuracyxx
DME
Principlesxx
Presentation and interpretationxx
Coveragexx
Rangexx
Errors and accuracyxx
Factors affecting range and accuracyxx
Radar
Ground radar
Principlesxx
Presentation and interpretationxx
Coveragexx
Rangexx
Errors and accuracyxx
Factors affecting range and accuracyxx
Secondary surveillance radar and transponder
Principlesxx
Presentation and interpretationxx
Modes and codesxx
GNSS
GPS, GLONASS OR GALILEO
Principlesxx
Operationxx
Errors and accuracyxx
Factors affecting accuracyxx

AMC · AMC1 FCL.210 — Regulation (EU) No 1178/2011 · ED Decision 2020/005/R · Aircrew Easy Access Rules · EAR revision 25 Nov 2025

AMCAcceptable means of compliance

AMC2 FCL.210; FCL.215

Show the text

SYLLABUS OF THEORETICAL KNOWLEDGE FOR THE PPL(AS) The following table contains the syllabi for the courses of theoretical knowledge, as well as for the theoretical knowledge examinations for the PPL(As). The training and examination should cover aspects related to non-technical skills in an integrated manner, taking into account the particular risks associated to the licence and the activity.

PPL
1.AIR LAW AND ATC PROCEDURES
International law: conventions, agreements and organisationsx
Airworthiness of aircraftx
Aircraft nationality and registration marksx
Personnel licensingx
Rules of the airx
Procedures for air navigation services: aircraft operationsx
Air traffic services and air traffic managementx
Aeronautical information servicex
Aerodromesx
Search and rescuex
Securityx
Aircraft accident and incident investigationx
National lawx
PPL
2.HUMAN PERFORMANCE
Human factors: basic conceptsx
Basic aviation physiology and health maintenancex
Basic aviation psychologyx
PPL
3.METEOROLOGY
The atmospherex
Windx
Thermodynamicsx
Clouds and fogx
Precipitationx
Air masses and frontsx
Pressure systemsx
Climatologyx
Flight hazardsx
Meteorological informationx
PPL
4.COMMUNICATIONS
VFR COMMUNICATIONS
Definitionsx
General operating proceduresx
Relevant weather information terms (VFR)x
Action required to be taken in case of communication failurex
Distress and urgency proceduresx
General principles of VHF propagation and allocation of frequenciesx
PPL
5.PRINCIPLES OF FLIGHT
Basics of aerostaticsx
Basics of subsonic aerodynamicsx
Aerodynamics of airshipsx
Stabilityx
Controllabilityx
Limitationsx
Propellersx
Basics of airship flight mechanicsx
PPL
6.OPERATIONAL PROCEDURES
General requirementsx
Special operational procedures and hazards (general aspects)x
Emergency proceduresx
PPL
7.FLIGHT PERFORMANCE AND PLANNING
7.1MASS AND BALANCE
Purpose of mass and balance considerationsx
Loadingx
Fundamentals of CG calculationsx
Mass and balance details of aircraftx
Determination of CG positionx
Passenger, cargo and ballast handlingx
7.2PERFORMANCE
Airworthiness requirementsx
Basics of airship performancex
Definitions and termsx
Stages of flightx
Use of flight manualx
7.3FLIGHT PLANNING AND FLIGHT MONITORING
Flight planning for VFR flightsx
Fuel planningx
Pre-flight preparationx
ATS flight planx
Flight monitoring and in-flight re-planningx
PPL
8.AIRCRAFT GENERAL KNOWLEDGE
8.1ENVELOPE, AIRFRAME AND SYSTEMS, ELECTRICS, POWERPLANT AND EMERGENCY EQUIPMENT
Design, materials, loads and stressesx
Envelope and airbagsx
Frameworkx
Gondolax
Flight controlsx
Landing gearx
Hydraulics and pneumaticsx
Heating and air conditioningx
Fuel systemx
Piston engines (propellers)x
Turbine engines (basics)x
Electricsx
Fire protection and detection systemsx
Maintenancex
8.2INSTRUMENTATION
Sensors and instrumentsx
Measurement of air data and gas parametersx
Magnetism: direct reading compass and flux valvex
Gyroscopic instrumentsx
Communication systemsx
Alerting systemsx
Integrated instruments: electronic displaysx
Flight management system (general basics)x
Digital circuits and computersx
PPL
9.NAVIGATION
9.1.GENERAL NAVIGATION
Basics of navigationx
Magnetism and compassesx
Chartsx
DR navigationx
In-flight navigationx
9.2.RADIO NAVIGATION
Basic radio propagation theoryx
Radio aidsx
Radarx
GNSSx

AMC · AMC2 FCL.210 — Regulation (EU) No 1178/2011 · ED Decision 2011/016/R · Aircrew Easy Access Rules · EAR revision 25 Nov 2025

All rules in SUBPART C – PRIVATE PILOT LICENCE (PPL) AND GYROPLANE PILOT LICENCE (GPL)

Consolidated from the EASA Easy Access Rules (revision 25 Nov 2025, extracted 17 Aug 2026) for convenience. Not the official publication — verify against the Official Journal of the European Union and the EASA publications before operational use.

Ask Metis about FCL.210 →

Metis opens with Avioverse in October 2026 · request early access.