FCL.720.A Experience requirements and prerequisites for the issue of class or type ratings – aeroplanes

Regulation (EU) 2020/2193

Unless otherwise determined in the operational suitability data established in accordance with Annex I (Part-21) to Regulation (EU) No 748/2012 (OSD), applicants for the issue of a class or type rating shall comply with the following experience requirements and prerequisites for the issue of the relevant rating:

(a) Single-pilot aeroplanes

Applicants for the initial issue of privileges to operate a single-pilot aeroplane in multi-pilot operations, either when applying for the issue of a class or type rating or when extending the privileges of a class or type rating already held to multi-pilot operation, shall meet the requirements in point (b)(4) and, before starting the relevant training course, point (b)(5).

Additionally, for:

(1) Single-pilot multi-engine aeroplanes

Applicants for the issue of a first class or type rating on a single-pilot multi-engine aeroplane shall have completed at least 70 hours as PIC in aeroplanes.

(2) Single-pilot high-performance non-complex aeroplanes

Before starting flight training, applicants for the issue of a class or type rating for a single-pilot aeroplane classified as a high-performance aeroplane shall:

(i) have at least 200 hours of total flying experience, of which 70 hours as PIC in aeroplanes; and

(ii) comply with one of the following requirements:

(A) hold a certificate of satisfactory completion of a course for additional theoretical knowledge undertaken at an ATO; or

(B) have passed the ATPL(A) theoretical knowledge examinations in accordance with this Annex (Part-FCL); or

(C) hold, in addition to a licence issued in accordance with this Annex (Part-FCL), an ATPL(A) or CPL(A)/IR with theoretical knowledge credit for ATPL(A), issued in accordance with Annex 1 to the Chicago Convention.

(3) Single-pilot high-performance complex aeroplanes

Applicants for the issue of a type rating for a complex single-pilot aeroplane classified as a high-performance aeroplane shall, in addition to meeting the requirements in point (2), comply with all of the following:

(i) they shall hold or have held a single- or multi-engine IR(A), as appropriate and as established in Subpart G;

(ii) for the issue of the first type rating, they shall, before starting the type rating training course, meet the requirements in point (b)(5).

(b) Applicants for the issue of the first type rating for a multi-pilot aeroplane shall be student pilots currently undergoing training on an MPL training course or shall, before starting the type rating training course, comply with the following requirements:

(1) have at least 70 hours of flight experience as PIC in aeroplanes;

(2) hold or have held a multi-engine IR(A);

(3) have passed the ATPL(A) theoretical knowledge examinations in accordance with this Annex (Part-FCL);

(4) except when the type rating course is combined with an MCC course:

(i) hold a certificate of satisfactory completion of an MCC course in aeroplanes; or

(ii) hold a certificate of satisfactory completion of MCC in helicopters and have more than 100 hours of flight experience as pilots of multi-pilot helicopters; or

(iii) have at least 500 hours as pilots of multi-pilot helicopters; or

(iv) have at least 500 hours as pilots in multi-pilot operations on single-pilot multi-engine aeroplanes, in commercial air transport in accordance with the applicable air operations requirements; and

(5) have completed the training course specified in point FCL.745.A, unless they comply with any of the following:

(i) they completed, within the preceding 3 years, the training and checking in accordance with points ORO.FC.220 and ORO.FC.230 of Annex III (Part-ORO) to Regulation (EU) No 965/2012;

(ii) they have completed the training specified in point FCL.915(e)(1)(ii).

(c) Notwithstanding point (b), a Member State may issue a type rating with restricted privileges for a multi-pilot aeroplane that allows holders of such a rating to act as cruise relief co-pilots above Flight Level 200, provided that two other members of the crew have a type rating in accordance with point (b).

(d) When so determined in the OSD, the exercise of the privileges of a type rating may be initially limited to flight under the supervision of an instructor. The flight hours under supervision shall be entered in the pilots' logbook or equivalent record and signed by the instructor. The limitation shall be removed when pilots demonstrate that the hours of flight under supervision required in the OSD have been completed.

ADDITIONAL THEORETICAL KNOWLEDGE FOR A CLASS OR TYPE RATING FOR HIGH-PERFORMANCE SINGLE-PILOT (SP) AEROPLANES

(a) A number of aeroplanes certificated for SP operation have similar performances, systems and navigation capabilities to those more usually associated with MP types of aeroplanes, and regularly operate within the same airspace. The level of knowledge required to operate safely in this environment is not part of, or not included to the necessary depth of knowledge in the training syllabi for the PPL, CPL or IR(A) but these licence holders may fly as PIC of such aeroplanes. The additional theoretical knowledge required to operate such aeroplanes safely is obtained by completion of a course at an ATO.

(b) The aim of the theoretical knowledge course is to provide the applicant with sufficient knowledge of those aspects of the operation of aeroplanes capable of operating at high speeds and altitudes, and the aircraft systems necessary for such operation.

COURSE SYLLABUS

(c) The course will be divided in a VFR and an IFR part, and should cover at least the following items of the aeroplane syllabus to the ATPL(A) level:

FOR VFR OPERATIONS:

Subject ref.:

Syllabus content:

021 00 00 00

AIRCRAFT GENERAL KNOWLEGDE: AIRFRAME,

SYSTEMS, AND POWER PLANT

021 09 01 03

021 09 03 00

021 09 03 02

021 09 03 03

021 09 04 00

021 09 04 01

021 09 04 03

021 09 04 04

Alternating current

Generation

AC generation

Constant speed drive (CSD) and integrated drive generator (IDG) systems Distribution

General

AC distribution

Electrical load management and monitoring systems: automatic generators and bus switching during normal and failure operation, indications and warnings

021 06 01 01

Piston-engine air supply

021 06 01 02

Gas turbine engine: bleed-air supply

021 10 10 01

021 11 03 01

021 10 04 01

021 03 01 09

Performance

Engine fuel system

Carburettor: design, operation, degraded modes of operation, indications and warnings

Mixture

021 11 00 00 to

021 11 01 04

Turbine engines

021 13 00 00

Oxygen systems

032 03 00 00

Performance class B: ME aeroplanes

032 03 03 01

032 03 03 02

032 03 03 04

032 01 03 00

032 01 04 00

032 01 05 00

032 02 04 00

Take-off

Climb

Landing

Level flight, range and endurance

Climbing

Descending

Climb, cruise and descent

040 00 00 00

HUMAN PERFORMANCE

040 02 01 00 to

040 02 01 03

Basic human physiology and

High-altitude environment

050 00 00 00

METEOROLOGY 

050 02 07 00

050 02 05 00

Jet streams

Standing waves

050 09 01 00 to

050 09 04 05

Flight hazards

Icing and turbulence

Thunderstorms

062 03 00 00

Basic radar principles

062 03 00 01 to

062 03 04 00

Basic radar principles

Airborne radar

SSR

081 00 00 00

PRINCIPLES OF FLIGHT: AEROPLANES

081 02 01 00

081 02 02 00

081 02 03 00

Speeds
Shock waves

Effects of exceeding MCRIT

FOR IFR OPERATIONS

Subject ref.: 

Syllabus content:

010 00 00 00 

AIR LAW 

010 06 07 00 

Simultaneous operation on parallel or near-parallel instrument runways 

010 06 08 00 

Secondary surveillance radar (transponder) operating procedures 

022 00 00 00 

AIRCRAFT GENERAL KNOWLEDGE - INSTRUMENTATION

022 01 02 00 

Temperature sensing 

022 03 04 00 

Flux valve 

022 12 00 00 

ALERTING SYSTEMS, PROXIMITY SYSTEMS 

022 12 07 00 

Altitude alert system 

022 12 08 00 

Radio-altimeter 

022 12 10 00 

ACAS/TCAS principles and operation 

022 13 03 01 

Electronic flight instrument system (EFIS) — Design, operation 

050 00 00 00 

METEOROLOGY 

050 02 06 03 

Clear-air turbulence (CAT) - Description, cause and location 

050 10 02 03 

Upper-air charts 

062 00 00 00 

RADIO NAVIGATION 

062 02 05 04 

ILS — Errors and accuracy 

(d) Demonstration of acquisition of this knowledge is undertaken by passing an examination set by an ATO. A successful pass of this examination results in the issue of a certificate indicating that the course and examination have been completed.

(e) The certificate represents a ‘once only’ qualification and satisfies the requirement for the addition of all future high performance aeroplanes to the holder’s licence. The certificate is valid indefinitely and is to be submitted with the application for the first HPA type or class rating.

(f) A pass in any theoretical knowledge subjects as part of the HPA course will not be credited against meeting future theoretical examination requirements for issue of a CPL(A), IR(A) or ATPL(A).

(g) The applicant who has completed a competency-based modular IR(A) course according to Appendix 6 Aa needs to complete both VFR and IFR parts of this course.

(h) The applicant who has completed a modular IR(A) course according to Appendix 6 A only needs to complete the VFR part of this course.

ADDITIONAL THEORETICAL KNOWLEDGE FOR A CLASS OR TYPE RATING FOR HIGH-PERFORMANCE SINGLE-PILOT (SP) AEROPLANES

An applicant for an additional class or type rating for a single-pilot aeroplane classified as a high performance aeroplane (HPA), who:

(a) has held a single-pilot HPA class or type rating prior to the application of Commission Regulation (EU) No 245/2014; and

(b) has completed a competency-based modular IR(A) course according to Appendix 6 Aa; and

(c) does not fulfil the requirements of FCL.720.A (b)(2)(ii) or (iii); should pass the theoretical knowledge instruction and examination for the VFR and IFR parts of the course required in accordance with FCL.720.A.(b)(2)(i).

FCL.725.A Theoretical knowledge and flight instruction for the issue of class and type ratings – aeroplanes

Regulation (EU) 2018/1974

Unless otherwise determined in in the operational suitability data established in accordance with Annex I (Part-21) to Regulation (EU) No 748/2012:

(a)  for single-pilot multi-engine aeroplanes:

(1)  the theoretical knowledge course for a single-pilot multi-engine class rating shall include at least 7 hours of instruction in multi-engine aeroplane operations; and

(2)  the flight training course for a single-pilot multi-engine class or type rating shall include at least 2 hours and 30 minutes of dual flight instruction under normal conditions of multi-engine aeroplane operations, and not less than 3 hours 30 minutes of dual flight instruction in engine failure procedures and asymmetric flight techniques.

(b)  for single-pilot aeroplanes (sea):

(1)  the training course for single-pilot aeroplane (sea) ratings shall include theoretical knowledge and flight instruction; and

(2)  the flight training for a class or type rating (sea) for single-pilot aeroplanes (sea) shall include at least 8 hours of dual flight instruction if applicants hold the land version of the relevant class or type rating, or 10 hours if applicants do not hold such a rating; and

(c)  for single-pilot non-high-performance complex aeroplanes, single-pilot high-performance complex aeroplanes and multi-pilot aeroplanes, the training courses shall include UPRT theoretical knowledge and flight instruction related to the specificities of the relevant class or type.

CLASS RATING SEA

(a) The theoretical knowledge instruction should be conducted by an instructor having appropriate experience of class rating sea.

(b) Depending on the equipment and systems installed, the instruction should include, but not be limited to, the following content:

(1) theoretical knowledge:

(i) the aim of the training is to teach:

(A) the importance of preparation for flight and the safe planning taking into consideration all the factors for manoeuvring the aircraft on the wind, tidal currents, high and low water times and water movements at sea, river estuaries and lakes In addition, icing conditions, ice covered water and broken ice flows;

(B) the techniques about the most critical moments at take-off, landing, taxiing and mooring the aircraft;

(C) the construction methods and characteristics of floats and water rudders and the importance of checking for leaks in the floats;

(D) the necessary requirements for the compliance of the rules for the avoidance of collisions at sea, in regard to sea charts, buoys and lights and horns.

(ii) after completing the training, the student should be able to:

(A) describe the factors that have significance for planning and decision about initiation of seaplane flying and alternative measures for completion of flight;

(B) describe how the water level is affected by air pressure, wind, tide, regularisations and the flight safety depending on changes in the water level;

(C) describe the origin of different ice conditions in water areas;

(D) interpret nautical charts and maps about depths and shoals and risk for water currents, shifts of the wind, turbulence; 

(E) decide what required equipment to bring during seaplane flying according to the operational requirements;

(F) describe the origin and extension of water waves, swells and water currents and their effect on the aeroplane;

(G) describe how water and air forces effect the aeroplane on water;

(H) describe the effect of water resistance on the aeroplanes' performance on glassy water and during different wave conditions;

(I) describe the consequences of taxiing with too high engine RPM;

(J) describe the effect of pressure and temperature on performance at take-off and climb from lakes located at higher altitude;

(K) describe the effect of wind, turbulence, and other meteorological conditions of special importance for flight over lakes, islands in mountain areas and other broken ground;

(L) describe the function of the water rudder and its handling, including the effect of lowered water rudder at take-off and landing;

(M) describe the parts of the float installation and their function;

(N) describe the effect of the floats on the aeroplanes’ aerodynamics and performance in water and in air;

(O) describe the consequences of water in the floats and fouling of float bottoms;

(P) describe aviation requirements that apply specifically for the conduct of aircraft activity on water;

(Q) describe requirements about animal, nature and environment protection of significance for flight by seaplane, including flight in national parks;

(R) describe the meaning of navigation buoys;

(S) describe the organisation and working methods of the Sea Rescue Service;

(T) describe the requirements in ICAO Annex 2 as set out in paragraph 3.2.6 ‘Water operation’, including relevant parts of the Convention on the International Regulations for Preventing Collisions at Sea.

(2) practical training:

(i) the aim of the practical training is to learn:

(A) the skills in manoeuvring aeroplanes on water and in mooring the aeroplane;

(B) the skills required for the reconnaissance of landing and mooring areas from the air, including the take-off area;

(C) the skills for assessing the effects of different water depths, shoals, wind, height of waves and swell;

(D) the skills for flying with floats about their effect on performance and flight characteristics;

(E) the skills for flying in broken ground during different wind and turbulence conditions;

(F) the skills for take-off and landing on glassy water, different ° of swell and water current conditions.

(ii) after the training, the student should be able to:

(A) handle the equipment that shall be brought during seaplane flying;

(B) perform pre-flight daily inspection on aeroplane, float installation and special seaplane equipment, including emptying of floats;

(C) sail, taxi and turn the aeroplane at swell with correct handling of the water rudder;

(D) taxi on the step and perform turns;

(E) establish the wind direction with the aeroplane;

(F) take necessary actions if loss of steering ability and person falling overboard;

(G) make land and moor aeroplane at bridge, buoy and beach with the use of appropriate knots to secure the aircraft;

(H) maintain given rate of descent by means of variometer only;

(I) perform take-off and landing on glassy water with and without outer references;

(J) perform take-off and landing under swell;

(K) perform power-off landing;

(L) from the air, reconnaissance of landing, mooring and takeoff areas, observing;

(M) wind direction and strength during landing and take-off; 

(N) surrounding terrain;

(O) overhead wires and other obstacles above and under water;

(P) congested areas;

(Q) determine wind direction and assess wind strength from water level and when airborne; 

(R) state, for the aeroplane type in question;

(a) maximum wave height allowed;

(b) maximum number of ERPM allowed during taxi;

(S) describe how flying with floats affects the performance and flight characteristics of the aeroplane;

(T) take corrective action at critical moments due to wind shear and turbulence;

(U) navigate on the water with reference to buoys markers, obstacles and other traffic on the water.

(c) For the initial issue of class rating sea for SP, SE and ME aeroplanes, the number of multi-choice questions in the written or computer-based examination should at least comprise thirty questions, and may be conducted by the training organisation. The pass mark should be 75 %.

FCL.730.A Specific requirements for pilots undertaking a zero flight time type rating (ZFTT) course – aeroplanes

Regulation (EU) No 1178/2011

(a) A pilot undertaking instruction at a ZFTT course shall have completed, on a multi-pilot turbo-jet aeroplane certificated to the standards of CS-25 or equivalent airworthiness code or on a multi-pilot turbo-prop aeroplane having a maximum certificated take-off mass of not less than 10 tonnes or a certificated passenger seating configuration of more than 19 passengers, at least:

(1) if an FFS qualified to level CG, C or interim C is used during the course, 1 500 hours flight time or 250 route sectors;

(2) if an FFS qualified to level DG or D is used during the course, 500 hours flight time or 100 route sectors.

(b) When a pilot is changing from a turbo-prop to a turbo-jet aeroplane or from a turbo-jet to a turbo-prop aeroplane, additional simulator training shall be required.

FCL.735.A Multi-crew cooperation training course – aeroplanes

Regulation (EU) No 1178/2011

(a) The MCC training course shall comprise at least:

(1) 25 hours of theoretical knowledge instruction and exercises; and

(2) 20 hours of practical MCC training, or 15 hours in the case of student pilots attending an ATP integrated course.

An FNPT II MCC or an FFS shall be used. When the MCC training is combined with initial type rating training, the practical MCC training may be reduced to no less than 10 hours if the same FFS is used for both the MCC and type rating training.

(b) The MCC training course shall be completed within 6 months at an ATO.

(c) Unless the MCC course has been combined with a type rating course, on completion of the MCC training course the applicant shall be given a certificate of completion.

(d) An applicant having completed MCC training for any other category of aircraft shall be exempted from the requirement in (a)(1).

AMC1 FCL.735.A; FCL.735.H; FCL.735.As Multi-crew cooperation (MCC) training course

ED Decision 2020/005/R

(a) Competency is a combination of knowledge, skills and attitudes required to perform a task to the prescribed standard.

(b) The objectives of MCC training are to develop the technical and non-technical components of the knowledge, skills and attitudes required to operate a multicrew aircraft.

(c) Training should comprise both theoretical and practical elements and be designed to achieve the competencies/training objectives (see Table 1 below).

Table 1 — Competencies/training objectives

Competency/ objective

Performance indicators

Knowledge

Practical exercises

Communication

(a) Know what, how much and who to communicate to;

(b) Ensure the recipient is ready and able to receive the information;

(c) Pass messages and information clearly, accurately, timely and adequately;

(d) Check if the other person has the correct understanding when passing important information;

(e) Listen actively, patiently and demonstrate understanding when receiving information;

(f) Ask relevant and effective questions, and offer suggestions;

(g) Use appropriate body language, eye contact and tone;

(h) Open and receptive to other people’s view.

(a) Human Factors, TEM and CRM;

(b) Application of TEM and CRM principles to training.

In a commercial air transport environment, apply multi-crew procedures, including principles of TEM and CRM to the following:

(a) Pre-flight preparation:

(1) FMS initialisation;

(2) radio and navigation equipment preparation;

(3) flight documentation;

(4) computation of take-off performance data.

(b) Take-off and climb:

(1) before take-off checks;

(2) normal take-offs;

(3) rejected take-offs;

(4) take-offs with abnormal and emergency situations included.

(c) Cruise: emergency descent.

(d) Descent and approach:

(1) instrument flight procedures;

(2) holding;

(3) 3D Operations using raw data;

(4) 3D Operations using flight director;

(5) 3D Operations using autopilot;

(6) one-engine-inoperative approach;

(7) 2D Operations and circling;

(8) computation of approach and landing data;

(9) all engines go-around;

(10) go-around with one engine inoperative;

(11) wind shear during approach.

(e) landing: transition from instrument to visual flight on reaching decision altitude or height or minimum descent altitude or height;

(f) after landing and post flight procedures;

(g) selected emergency and abnormal procedures.

Leadership and team working

(a) Friendly, enthusiastic, motivating and considerate of others;

(b) Use initiative, give direction and take responsibility when required;

(c) Open and honest about thoughts, concerns and intentions;

(d) Give and receive criticism and praise well, and admit mistakes;

(e) Confidently do and say what is important to him or her;

(f) Demonstrate respect and tolerance towards other people;

(g) Involve others in planning and share activities fairly.

 

Situational awareness

(a) Be aware of what the aircraft and its systems are doing;

(b) Be aware of where the aircraft is and its environment;

(c) Keep track of time and fuel;

(d) Be aware of the condition of people involved in the operation including passengers;

(e) Recognise what is likely to happen, plan and stay ahead of the game;

(f) Develop what-if scenarios and make pre-decisions;

(g) Identify threats to the safety of the aircraft and of the people.

 

Workload management

(a) Be calm, relaxed, careful and not impulsive;

(b) Prepare, prioritise and schedule tasks effectively;

(c) Use time efficiently when carrying out tasks;

(d) Offer and accept assistance, delegate when necessary and ask for help early;

(e) Review and monitor and cross-check actions conscientiously;

(f) Follow procedures appropriately and consistently;

(g) Concentrate on one thing at a time, ensure tasks are completed and does not become distracted;

(h) Carry out instructions as directed.

 

Problem-solving and decision-making

(a) Identify and verify why things have gone wrong and do not jump to conclusions or make assumptions;

(b) Seek accurate and adequate information from appropriate resources;

(c) Persevere in working through a problem;

(d) Use and agree an appropriate decision making process;

(e) Agree essential and desirable criteria and prioritises;

(f) Consider as many options as practicable;

(g) Make decisions when they need to, reviews and changes if required;

(h) Consider risks but do not take unnecessary risks.

 

Monitoring and cross‑checking

(a) Monitor and cross-checks all actions;

(b) Monitor aircraft trajectory in critical flight phases;

(c) Take appropriate actions in response to deviations from the flight path.

(a) SOPs;

(b) Aircraft systems;

(c) Undesired aircraft states.

Task sharing

(a) Apply SOPs in both PF and pilot monitoring (PM) roles;

(b) Makes and responds to standard call-outs.

(a) PF and PM roles;

(b) SOPs.

Use of checklists

Utilise checklists appropriately according to SOPs.

(a) SOPs;

(b) Checklist philosophy.

Briefings

Prepare and deliver appropriate briefings.

(a) SOPs;

(b) Interpretation of FMS data and in-flight documentation.

Flight management

(a) Maintain a constant awareness of the aircraft automation state;

(b) Manage automation to achieve optimum trajectory and minimum workload;

(c) Take effective recovery actions from automation anomalies;

(d) Manage aircraft navigation, terrain clearance;

(e) Manage aircraft fuel state and take appropriate actions.

(a) Understanding of aircraft performance and configuration;

(b) Systems;

(c) SOPs;

(d) Interpretation of FMS data and in-flight documentation;

(e) Minimum terrain clearance;

(f) Fuel management IFR and VFR regulation.

FMS use

Programme, manage and monitor FMS in accordance with SOPs.

(a) Systems (FMS);

(b) SOPs;

(c) Automation.

Systems normal operations

Perform and monitor normal systems operation in accordance with SOPs.

(a) Systems;

(b) SOPs.

Systems abnormal and emergency operations

(a) Perform and monitor abnormal systems operation in accordance with SOPs;

(b) Utilise electronic and paper abnormal checklists in accordance with SOPs.

(a) Systems;

(b) SOPs;

(c) Emergency and abnormal procedures and checklists;

(d) Recall items.

Environment, weather and ATC

(a) Communicate effectively with ATC;

(b) Avoid misunderstandings by requesting clarification;

(c) Adhere to ATC instructions;

(d) Construct a mental model of the local ATC and weather environment.

(a) Systems;

(b) SOPs;

(c) ATC environment and phraseology;

(d) Procedures for hazardous weather conditions.

CERTIFICATE OF COMPLETION FORM

CERTIFICATE OF COMPLETION OF MCC

Applicant's last name(s):

 

First name(s):

 

Type of licence:

 

Number:

State:

ME/IR training completed

 

OR

ME/IR validity date:

ME/IR skill test date:

 

Issued on:

 

 

passed on:

 

 

Signature of applicant:

 

The satisfactory completion of MCC-Training according to requirements is certified below:

TRAINING

Multi-crew co-operation training received during period:

from:

to:

at:

ATO / operator*

Location and date:

Signature of head of ATO or authorised instructor*:

 

Type and number of licence and state of issue:

 

 

Name(s) in capital letters of authorised instructor:

 

* Delete as appropriate

ENHANCED MCC TRAINING TO AIRLINE PILOT STANDARDS (APS MCC) COURSE

(a) The APS MCC training course should comprise both theoretical and practical elements and should be designed to achieve the training objectives, as set out in Table 1 below.

Table 1 — Training objectives

Training objectives

Performance indicators

Knowledge

Practical exercises

Monitoring and cross‑checking

(a) Monitor and cross-check all actions;

(b) Monitor aeroplane trajectory in critical flight phases;

(c) Take appropriate actions in response to deviations from the flight path.

(a) SOPs;

(b) Aeroplane systems;

(c) Undesired aeroplane states.

In a commercial air transport environment, apply multi-crew procedures, including principles of TEM and CRM to the following:

(a) Pre-flight preparation:

(1) FMS initialisation;

(2) radio and navigation equipment preparation;

(3) flight documentation;

(4) computation of take-off performance data.

(b) Take-off and climb:

(1) before take-off checks;

(2) normal take-offs;

(3) rejected take-offs;

(4) take-offs with abnormal and emergency situations included.

(c) Cruise: emergency descent.

(d) Descent and approach:

(1) instrument flight procedures;

(2) holding;

(3) 3D Operations using raw data;

(4) 3D Operations using flight director;

(5) 3D Operations using autopilot;

(6) one-engine-inoperative approach;

(7) 2D Operations and circling;

(8) computation of approach and landing data;

(9) all engines go-around;

(10) go-around with one engine inoperative;

(11) wind shear during approach.

(e) landing: transition from instrument to visual flight on reaching decision altitude or height or minimum descent altitude or height;

(f) after landing and post flight procedures;

(g) selected emergency and abnormal procedures.

Task sharing

(a) Apply SOPs in both PF and PM roles;

(b) Make and respond to standard call-outs.

(a) PF and PM roles;

(b) SOPs.

Use of checklists

Utilise checklists appropriately according to SOPs.

(a) SOPs;

(b) Checklist philosophy.

Briefings

Prepare and deliver appropriate briefings.

(a) SOPs;

(b) Interpretation of FMS data and in-flight documentation.

Flight management

(a) Maintain a constant awareness of the aeroplane automation state;

(b) Manage automation to achieve optimum trajectory and minimum workload;

(c) Take effective recovery actions from automation anomalies;

(d) Manage aeroplane navigation, terrain clearance;

(e) Manage aeroplane fuel state and take appropriate actions.

(a) Understanding of aeroplane performance and configuration;

(b) Systems;

(c) SOPs;

(d) Interpretation of FMS data and in-flight documentation;

(e) Minimum terrain clearance;

(f) Fuel management IFR and VFR regulation.

FMS use

Programme, manage and monitor FMS in accordance with SOPs.

(a) Systems (FMS);

(b) SOPs;

(c) Automation.

Systems normal operations

Perform and monitor normal systems operation in accordance with SOPs.

(a) Systems;

(b) SOPs.

Systems abnormal and emergency operations

(a) Perform and monitor abnormal systems operation in accordance with SOPs;

(b) Utilise electronic and paper abnormal checklists in accordance with SOPs.

(a) Systems;

(b) SOPs;

(c) Emergency and abnormal procedures and checklists;

(d) Recall items.

Environment, weather and air traffic control (ATC)

(a) Communicate effectively with ATC;

(b) Avoid misunderstandings by requesting clarification;

(c) Adhere to ATC instructions;

(d) Construct a mental model of the local ATC and weather environment.

(a) Systems;

(b) SOPs;

(c) ATC environment and phraseology;

(d) Procedures for hazardous weather conditions.

(b) The APS MCC training course should include advanced swept-wing jet aeroplane training and airline operations scenario training to equip a pilot with the knowledge, skills, and attitudes required to commence initial type rating training to the standards generally required by a commercial air transport (CAT) operator certified pursuant to Regulation (EU) No 965/2012 (the ‘Air OPS Regulation’).

(c) The APS MCC course should consist of the following:

(1) the content of the MCC training course;

(2) advanced swept-wing jet aeroplane training;

(3) advanced airline operations scenario training; and

(4) a final assessment.

(d) The flight simulation training device (FSTD) time per crew during practical training should be a minimum of 40 hours, or 35 for an integrated airline transport pilot licence (ATPL) holders, as set out in Table 2 below.

Table 2 — Minimum hours

Training element

Minimum FSTD time per crew

MCC TRAINING

20 hours/15 hours

ADVANCED SWEPT-WING JET AEROPLANE TRAINING

12 hours

ADVANCED AIRLINE OPERATIONS SCENARIO TRAINING

6 hours

FINAL ASSESSMENT

2 hours

The training elements may be ordered, split and combined, as determined by the approved training organisation (ATO)’s course design.

(e) The ATO should provide generic stand-alone or CAT-operator-specific APS MCC training, advanced swept-wing jet aeroplane training and advanced airline operations scenario training. In the case of generic stand-alone training, the ATO should establish appropriate documentation and manuals representative of a CAT operator, such as manuals for aeroplane original-equipment manufacturers (OEMs), standard operating procedures (SOPs), flight documentation, as well as reporting and documentation for management systems.

FSTDs

(f) The practical training in the APS MCC training course should be based on a multi-pilot, multi-engine aeroplane type capable of carrying at least 50 passengers or equivalent mass. The FSTD used should be type-specific and equipped with a visual system that provides at least 180° horizontal and 40° vertical field of view. However, an FNPT II MCC that has a similar visual cueing system to the above or is approved for MCC pursuant to FCL.735.A may also be acceptable provided that the device is representative of the same class of multi-pilot, multi-engine aeroplane specified in this paragraph in terms of passenger load, mass and performance, and equipped with equivalent aeroplane systems and avionics functionality.

(g) In the case of advanced swept-wing jet aeroplane practical training, an FSTD representing a swept-wing multi-engine jet aeroplane should be used.

INSTRUCTOR QUALIFICATION

(h) The minimum qualification level of an instructor to deliver the training course should be an MCCI(A). The ATO should ensure that:

(1) all the instructors, before delivering the training course content, have received training on the application of core competencies as well as competency-based training; and

(2) before the MCCI(A) delivers the advanced swept-wing jet handling or airline operations scenario training elements, they have satisfactorily completed relevant specific handling, systems and technical instructor training under the supervision of an SFI or TRI with the privilege to instruct for multi-pilot aeroplanes.

(i) The final assessment should be completed by an instructor nominated by the head of training (HT) for this purpose.

COURSE DESIGN AND CORE COMPETENCIES

(j) The course should be designed using instructional systems design (ISD) methodology.

(k) Progress should be monitored throughout the course in accordance with the course design.

(l) A final progress assessment should be conducted at the end of the practical training.

PROGRESS ASSESSMENTS AND COURSE COMPLETION CERTIFICATE

(m) Practical training and progress assessments should be conducted to ensure that the student pilot has demonstrated the required level of competency (see Tables 1, 2, 3, 4 and 5 of this AMC).

(n) During progress assessments, the student’s knowledge, skills and attitudes in both pilot flying and pilot monitoring roles should be assessed; those assessments should be integrated into the training sessions.

(o) All assessments should be graded. An example of a grading system for the APS MCC is provided in GM3 FCL.735.A.

(p) For the final assessment, the minimum standard for each competency should be at least ‘satisfactory’. ‘Satisfactory’ is defined as demonstrating 75 % or greater of the relevant performance indicators/observable behaviours set out in the table of GM3 FCL.735.A.

(q) A student pilot who has reached a satisfactory or higher standard at the final assessment of the practical training should be awarded the APS MCC course completion certificate pursuant to AMC2 FCL.735.A.

(r) Alternatively, a student pilot who completes the APS MCC course but does not achieve the APS MCC standard should be awarded the MCC course completion certificate pursuant to AMC1 FCL.735.A; FCL.735.H; FCL.735.As.

APS MCC TRAINING COURSE CONTENT AND PERFORMANCE INDICATORS

(s) The elements of AMC1 FCL.735.A(c) should be enhanced as a result of the additional training in an airline context.

(t) CRM training should be provided to an APS MCC standard.

Table 3 — APS MCC CRM TRAINING CONTENT AND PERFORMANCE INDICATORS

Training

Performance indicators

Knowledge

Practical exercises

CRM training

(a) Display competency in the relevant CRM-related behaviours.

(b) Successfully complete the final progress check.

Understand the CRM concepts set out in ORO.FC.115 of Annex III (Part-ORO) to the Air OPS Regulation.

Integrate CRM into all practical exercises of the APS MCC.

(1) The ATO should ensure that the student pilot understands how multi-crew coordination as well as the content and intent of CRM in ORO.FC.115 is applied in an airline context.

(2) In order to impart maximum learning to the student pilot, the ATO should ensure the following:

(i) CRM is integrated into all practical exercises of the APS MCC; and

(ii) Threat-and-error management (TEM) is central to the course instruction; the concepts of threat anticipation, threat recognition, recovery to safe flight, error management, and consequent avoidance of undesired aeroplanes states is emphasised at all times.

Table 4 — ADVANCED APS MCC FLYING TRAINING COURSE CONTENT AND PERFORMANCE INDICATORS

Training

Performance indicators

Knowledge

Practical exercises

Advanced swept-wing flying training

(a) Understand and apply combinations of thrust and attitude that ensure a stable, safe flight in various aeroplane configurations and altitudes.

(b) Manage the (much) wider range of speed and thrust at both low level and high level.

(c) Demonstrate good judgement and correct use of lift and drag devices during various phases of the flight.

(d) Use displays along with all available aids to stay mentally ahead when piloting all profiles.

(e) Understand and recognise the precursors of high‑energy approaches.

(f) Know angle-of-attack (AoA) versus attitude indications at low level as well as at high level.

(g) Practice upset prevention as a priority, and clearly recognise when and how recovery is necessary, by using the required pilot skills to mitigate loss of control in-flight (LOC-I) events.

Elements and components of jet orientation:

(a) glass cockpit displays;

(b) propulsion;

(c) aerodynamics;

(d) flight controls;

(e) performance;

(f) jet flight planning;

(g) weight and balance;

(h) basic jet flying;

(i) pilot techniques for jet flying, advanced- handling-skills development;

(j) flight path management;

(k) auto flight;

(l) high-altitude operations;

(m) introduction into prevention and recovery of upsets.

(a) Take-off, approach, landing, go‑around.

(b) Flight deck management practices.

(c) Complex problem-solving techniques.

(d) Advanced handling.

(e) Manual handling skills (no autopilot, no auto thrust, and where possible, no flight director).

(f) Flight at different speeds, including slow flight and altitudes within the normal flight envelope.

(g) Steep turns.

(h) Aeroplane stability and stall awareness.

(i) Upset prevention techniques and approach-to-stall recovery events (appropriate to FSTD limitations and capabilities).

(j) High-energy approach prevention.

(k) Go-around management of approach and landing configurations.

Advanced airline operations scenario training

(a) Execute pre-flight preparation in accordance with airline or OEM SOPs.

(b) Conduct an effective crew briefing, including cabin crew managers (CCMs).

(c) Display good airmanship and TEM skills in assessing aeroplane serviceability, weather planning, fuel planning, and destination facilities.

(d) Conduct cockpit preparation and briefings in an effective and accurate manner.

(e) Manage and execute engine start, taxi-out and pre-take-off checks safely and in accordance with airline or OEM SOPs.

(f) Manage and execute runway line-up, take-off, climb, cruising, descent, approach, landing and taxi-in safely and in accordance with airline or OEM SOPs.

(g) During non-normal operations, display good system knowledge, and apply non- normal procedures, communications, TEM, situational awareness (SA), decision-making and aeroplane handling.

(a) Knowledge of systems as set out in this AMC.

(b) SOPs.

(c) Normal-and non-normal operations’ checklists and procedures.

(a) CHECK-IN PROCEDURES.

(b) PRE-FLIGHT PREPARATION:

(1) weather analysis;

(2) flight planning;

(3) fuel planning;

(4) configuration deviation list (CDL), dispatch deviation procedures guide (DDPG), and minimum equipment list (MEL) analysis; and

(5) cabin crew briefing.

(c) NORMAL PROCEDURES:
cockpit preparation, pushback, engine starting, taxiing, take-off, climb, cruising, descent, landing, shutdown, and disembarkation procedures.

(d) ON TIME PERFORMANCE:

(1) weather analysis;

(2) flight planning; and

(3) fuel planning.

(e) NON-NORMAL PROCEDURES:

(1) as per (c) above, in case of a technical or operational non-normal event;

(2) TEM;

(3) diversion decisionmaking;

(4) communication;

(5) diversion;

(6) fuel SA; and

(7) passenger and crew care.

Table 5 — ADVANCED APS MCC AIRLINE TRAINING CONTENT AND PERFORMANCE INDICATORS

Training

Performance Indicators

Knowledge

Practical Exercises

Airline-oriented training

(a) Understand the roles of airline departments.

(b) Understand the challenges faced by airline departments.

(c) Understand the relationships between airline departments.

(d) Understand airline responsibilities.

(e) Understand a pilot’s responsibilities as a crew member.

Appropriate elements of the applicable Regulation (Regulation (EU) No 1178/2012 (the ‘Aircrew Regulation’) and the Air OPS Regulation).

The exercise should provide the student pilot with a practical understanding of airline operations. This may be achieved through a visit to an airline or alternative means.

CERTIFICATE OF COMPLETION FORM

CERTIFICATE OF COMPLETION OF APS MCC-TRAINING

Applicant’s last name(s):

 

 

First name(s):

 

Type of licence:

 

 

Number:

State:

ME/IR:

 

 

OR

ME/IR skill test:

 

Issued on:

 

 

passed on:

 

 

Signature of applicant:

 

The satisfactory completion of APS MCC training according to requirements is certified below:

TRAINING

Multi-crew cooperation training to airline pilot standards received during period:

from:

to:

at:

ATO/operator*

Location and date:

Signature of head of ATO or authorised instructor*:

Type and number of licence and state of issue:

Name(s) in capital letters of authorised instructor:

* Delete as appropriate

ENHANCED MCC TRAINING TO AIRLINE PILOT STANDARDS (APS MCC) COURSE

(a) The ATO should be responsible for the initial course design based on the instructional systems design (ISD) methodology, as well as for the integral evaluation and further development of the course.

(b) Technical-knowledge instruction

To maximise the benefit during the training in a flight simulation training device (FSTD), it is essential that the student pilot understands the aeroplane systems. Consequently, the approved training organisation (ATO) should provide sufficient systems training to ensure that student pilots are capable of effective situational awareness (SA) of the aeroplane systems when following normal and non-normal procedures and completing the related checklists. The standard of technical-knowledge training should be limited to this goal unless the course is part of a combined APS MCC/type rating course. ATOs providing APS MCC training in a combined APS MCC/type rating course may provide systems training up to type rating standard.

Aeroplane systems training may be delivered by any means provided that the training ensures knowledge transfer to a standard within the scope of the ATO’s APS MCC training course approval. This training may be delivered either through distance learning or instructor-led classroom instruction or a combination thereof. If distance learning is utilised as an element of the course, it should be supplemented by instructor-led training.

Aeroplane systems knowledge at the required level should be confirmed by an assessment determined by the ATO’s course design.

(c) Advanced swept-wing jet flying training (see Table 4 of AMC2 FCL.735.A)

The student pilot should develop a flight path management competency, including energy management, as pilot flying (PF), and associated active monitoring skills as pilot monitoring (PM). Aeroplane and airline procedures used during this training should develop the student pilot’s understanding of the aeroplane flight envelope and inertia, as well as of the relationship between thrust and attitude. This phase should include an introduction to prevention and recovery of upsets, which builds confidence, skill, and resilience.

(d) Advanced airline operations scenario training (see Table 4 of AMC2 FCL.735.A)

(1) The student pilot should be trained to apply the core competencies to conduct a safe and efficient operation in realistic airline operations scenarios.

(2) The airline-representative scenarios should include normal and non-normal situations.

(3) Operations should be run in real time according to a typical schedule.

(4) The scenarios should be constructed in an airline context in order to emphasise the following:

(i) threat-and-error management (TEM);

(ii) crew resource management (CRM);

(iii) flight path management, including energy management; and

(iv) interaction with internal and external stakeholders in the resolution of scenarios.

(e) Airline-oriented training (see Table 5 of AMC2 FCL.735.A)

The training should provide an understanding of the regulatory framework that an airline must operate in. The student pilot should understand the context and operational environment that applies to airline employees. Subjects should include but are not limited to the following:

(1) regulation of operations and aircrew;

(2) safety management systems (SMSs) with emphasis on the pilot’s reporting obligations and ‘just culture’;

(3) fatigue management and fatigue risk management system (FRMS) with emphasis on the airline’s and pilot’s obligations;

(4) flight time limitations (FTLs), including crew scheduling and crew control functions;

(5) flight operations planning and flight watch reporting systems;

(6) airline maintenance department and interaction with flight operations;

(7) ground operations and interaction with flight operations; and

(8) in-flight department and interaction with flight operations.

ENHANCED MCC TRAINING TO AIRLINE PILOT STANDARDS (APS MCC) COURSE

The approved training organisation (ATO) should ensure that their course design develops the required core competencies through their training and assessment plan based on the competency framework provided in Table 1 below. An ATO may adapt this framework to include additional competencies and/or performance indicators/observable behaviours

Table 1 — COMPETENCIES

Competency

Description

Performance indicators/observable behaviours

Application of knowledge

Relates and applies relevant knowledge in the operational environment and in scenario settings.

 Demonstrates the acquisition and retention of required aviation knowledge;

 Relates knowledge between subject areas;

 Applies knowledge to the operational environment;

 Correctly identifies threats and errors in a timely manner;

 Uses knowledge to create valid options of managing threats, errors, and undesirable aeroplane states;

 Mentally resolves basic-mathematics problems relating to operational situations, both under normal circumstances and under pressure;

 Shares knowledge with others openly and constructively, as and when appropriate.

Application of regulations and procedures

Identifies and applies appropriate procedures in accordance with published operating instructions and pursuant to applicable regulations.

 Identifies where to find the information;

 Follows standard operating procedures (SOPs) unless a higher degree of safety dictates an appropriate deviation therefrom;

 Follows all operating instructions in a timely manner;

 Correctly operates aeroplane systems and associated equipment;

 Monitors the status of aeroplane systems;

 Complies with applicable regulations;

 Applies relevant procedural knowledge.

Communication

Communicates through appropriate means in normal and non-normal situations.

 Ensures that the recipient is ready and able to receive the information;

 Shares appropriate information;

 Selects appropriately what, when, how, and with whom to communicate;

 Conveys messages clearly, accurately, and concisely;

 Confirms that the recipient correctly understands important information;

 Listens actively and demonstrates understanding when receiving information;

 Asks relevant and effective questions;

 Communicates in order to resolve deviations identified through monitoring;

 Adheres to standard radiotelephony phraseology and procedures;

 Accurately reads, interprets, drafts, and responds to data link messages in English;

 Correctly uses and interprets non-verbal communication.

Aeroplane flight path management — automation

Controls the aeroplane flight path through automation.

 Uses appropriate flight management and guidance systems as well as automation, as installed and as appropriate to the conditions;

 Monitors and detects deviations from the desired aeroplane trajectory and takes appropriate action;

 Manages the flight path to optimise the operational performance;

 Maintains the desired flight path during flight using automation, whilst managing other tasks and distractions;

 Effectively monitors automation, including engagement and automatic-mode transitions.

Aeroplane flight path management — manual control

Controls the aeroplane flight path through manual flight.

 Uses appropriate flight management and guidance systems and automation, as installed and appropriate to the conditions;

 Manually controls the aeroplane using only the relationship between aeroplane attitude, speed and thrust, as well as navigation signals or visual information;

 Monitors and detects deviations from the desired aeroplane trajectory and takes appropriate action;

 Manages the flight path to optimise the operational performance;

 Maintains the desired flight path during manual flight, whilst managing other tasks and distractions;

 Effectively monitors flight guidance systems, including engagement and automatic-mode transitions.

Leadership and teamwork

Influences others so that they contribute to a shared purpose. Collaborates to accomplish the goals of the team.

 Creates an atmosphere of open communication and encourages team participation;

 Displays initiative and gives directions when required;

 Admits mistakes and takes responsibility;

 Carries out instructions when directed;

 Gives and receives feedback constructively;

 Applies effective intervention strategies to resolve deviations identified whilst monitoring;

 Takes into account cultural differences;

 Engages others in planning;

 Addresses and resolves conflicts and disagreements in a constructive manner;

 Exercises decisive leadership.

Problem-solving and decision-making

Identifies problem precursors and resolves actual problems, using decision-making techniques, in a timely manner.

 Seeks accurate and appropriate information from appropriate sources;

 Identifies and verifies what and why has failed;

 Perseveres with resolving problems whilst prioritising safety;

 Uses appropriate and timely decision-making techniques;

 Sets priorities appropriately;

 Identifies and considers options, as appropriate;

 Monitors, reviews, and adapts decisions, as required;

 Identifies, assesses, and manages risks effectively;

 Adapts when faced with situations where no guidance or procedure exists.

Situational awareness (SA) and information management

Perceives, comprehends, and manages information, as well as anticipates its effect on the operation.

 Monitors, identifies, and assesses accurately the aeroplane’s state and systems;

 Monitors, identifies, and assesses accurately the aeroplane’s energy state and anticipated flight path;

 Monitors, identifies, and assesses accurately the general environment as it may affect the operation;

 Validates the accuracy of information and checks for gross errors;

 Maintains the awareness of the people involved in or affected by the operation as well as their capacity to perform as expected;

 Anticipates what could happen, plans, and stays ahead of the situation;

 Develops effective contingency plans based upon potential threats;

 Recognises and effectively responds to indications of reduced SA.

Workload management

Maintains available workload capacity through prioritisation and distribution of tasks, using resources.

 Exercises self-control in all situations;

 Plans, prioritises, and schedules tasks effectively;

 Manages time efficiently when carrying out tasks;

 Offers and gives assistance, delegates when necessary;

 Seeks and accepts assistance, when necessary;

 Monitors, reviews, and cross-checks taken action conscientiously;

 Verifies that tasks are completed as expected;

 Manages and recovers from interruptions, distractions, variations, and failures effectively, while performing tasks.

EXAMPLE OF AN ENHANCED MCC TRAINING TO AIRLINE PILOT STANDARDS (APS MCC) GRADING SYSTEM

EXAMPLE OF AN APS MCC GRADING SYSTEM

Competency

Unsatisfactory

Satisfactory

Good

Very Good

Exemplary

General description of each competency level.

The pilot’s performance in this competency was unsatisfactory with a negative effect on safety.

The pilot did not demonstrate the majority of the relevant performance indicators.

The pilot’s performance in this competency was satisfactory with a slightly positive effect on safety.

The pilot demonstrated most of the relevant performance indicators in this competency to at least a satisfactory standard.

The pilot’s performance in this competency was effective with a significant contribution to safety.

The pilot consistently demonstrated most of the relevant performance indicators in this competency to a good standard.

The pilot’s performance in this competency was very effective, which significantly enhanced safety.

The pilot regularly demonstrated all of the relevant performance indicators in this competency to a very good standard.

The pilot’s performance in this competency was exemplary with an outstanding effect on safety.

The pilot always demonstrated all of the relevant performance indicators in this competency to an exemplary standard.

Notes

 

 Most: 75 % or greater.

 Relevant performance indicator: a performance indicator/observable behaviour that is expected to be demonstrated during the assessment.

ENHANCED MCC TRAINING TO AIRLINE PILOT STANDARDS (APS MCC) TRAINING — SPECIFIC ARRANGEMENT

The specific arrangement, pursuant to ORA.GEN.205, between an approved training organisation (ATO) and an operator for the APS MCC course should cover at least the following points:

(1) pre-entry requirements (including screening and selection);

(2) provision of the relevant documentation (operations manuals (OMs) and training manuals);

(3) design of the training programme;

(4) content of the course, including criteria to ensure that the operator’s documentation, manuals, standard operating procedures (SOPs), reporting structures, and management system are represented throughout the training course;

(5) training effectiveness;

(6) performance data feedback from the ATO to the operator;

(7) course evaluation and improvement;

(8) alignment of the grading and assessment criteria; and

(9) use of the operator’s crew resource management (CRM) content and utilisation of a flight crew CRM trainer, standardised by the operator.

The ATO and the operator may use their OMs and training manuals to identify additional areas to be covered by the specific arrangement.

FCL.740.A Revalidation of class and type ratings – aeroplanes

Regulation (EU) 2020/2193

(a) Revalidation of multi-engine class ratings and type ratings. For revalidation of multi-engine class ratings and type ratings, the applicant shall:

(1) pass a proficiency check in accordance with Appendix 9 or complete EBT practical assessment in accordance with Appendix 10 in the relevant class or type of aeroplane or an FSTD representing that class or type, within the 3 months immediately preceding the expiry date of the rating; and

(2) complete during the period of validity of the rating, at least:

(i) 10 route sectors as pilot of the relevant class or type of aeroplane; or

(ii) 1 route sector as pilot of the relevant class or type of aeroplane or FFS, flown with an examiner. This route sector may be flown during the proficiency check.

(3) A pilot working for a commercial air transport operator approved in accordance with the applicable air operations requirements who has passed the operators proficiency check combined with the proficiency check for the revalidation of the class or type rating shall be exempted from complying with the requirement in (2).

(4) The revalidation of a BIR or an IR(A), if held, may be combined with a proficiency check for the revalidation of a class or type rating.

(b) Revalidation of single-pilot single-engine class ratings.

(1) Single-engine piston aeroplane class ratings and TMG class ratings. For the revalidation of single-pilot single-engine piston aeroplane class ratings or TMG class ratings, the applicants shall:

(i) within the 3 months preceding the expiry date of the rating, pass a proficiency check in the relevant class in accordance with Appendix 9 to this Part with an examiner; or

(ii) within the 12 months preceding the expiry date of the rating, complete 12 hours of flight time in the relevant class, including:

             6 hours as PIC,

             12 take-offs and 12 landings, and

             refresher training of at least 1 hour of total flight time with a flight instructor (FI) or a class rating instructor (CRI). Applicants shall be exempted from this refresher training if they have passed a class or type rating proficiency check, skill test or assessment of competence in any other class or type of aeroplane.

(2) When applicants hold both a single-engine piston aeroplane-land class rating and a TMG rating, they may complete the requirements of (1) in either class or a combination thereof, and achieve revalidation of both ratings.

(3) Single-pilot single-engine turbo-prop aeroplanes. For revalidation of single-engine turbo-prop class ratings applicants shall pass a proficiency check on the relevant class in accordance with Appendix 9 to this Part with an examiner, within the 3 months preceding the expiry date of the rating.

(4) When applicants hold both a single-engine piston aeroplane-land class rating and a single-engine piston aeroplane-sea class rating, they may complete the requirements of (1)(ii) in either class or a combination thereof, and achieve the fulfilment of these requirements for both ratings. At least 1 hour of required PIC time and 6 of the required 12 take-offs and landings shall be completed in each class.

(5) The proficiency check for the revalidation of a single-pilot single-engine aeroplane class rating may be combined with the proficiency check for the revalidation of a BIR, in accordance with point FCL.835(g)(8).

(c) Applicants who fail to achieve a pass in all sections of a proficiency check before the expiry date of a class or type rating shall not exercise the privileges of that rating until a pass in the proficiency check has been achieved.

COMPLETE EBT PRACTICAL ASSESSMENT IN ACCORDANCE WITH APPENDIX 10

(a) The completion of an EBT practical assessment includes:

(1) the assessment of pilot performance either in a simulated or an operational environment; and

(2) the administrative action which includes the completion of the Appendix 10 form.

(b) The assessment as per point (1) usually occurs during the entire validity period of the rating as the EBT programme includes several FSTD sessions, while the administrative action as per point (2) is completed within the 3 months immediately preceding the expiry date of the rating.

AMC1 FCL.740.A(b)(1)(ii) Revalidation of class and type ratings

ED Decision 2020/005/R

CONTENT OF THE REFRESHER TRAINING

Training flight items should be based on the exercise items of the proficiency check, as deemed relevant by the instructor, and depending on the experience of the candidate. The briefing should include a discussion on TEM with special emphasis on decision-making when encountering adverse meteorological conditions or unintentional IMC, as well as on navigation flight capabilities.

FCL.745.A Advanced UPRT course – aeroplanes

Regulation (EU) 2018/1974

(a) The advanced UPRT course shall be completed at an ATO and shall comprise at least:

(1)  5 hours of theoretical knowledge instruction;

(2)  preflight briefings and postflight debriefings; and

(3)  3 hours of dual flight instruction with a flight instructor for aeroplanes FI(A) qualified in accordance with point FCL.915(e) and consisting of advanced UPRT in an aeroplane qualified for the training task.

(b) Upon completion of the UPRT course, applicants shall be issued with a certificate of completion by the ATO.

COURSE OBJECTIVE AND CONTENT

COURSE OBJECTIVE

(a)  The objective of the course is for the pilot under training:

(1)  to understand how to cope with the physiological and psychological aspects of dynamic upsets in aeroplanes; and

(2)  to develop the necessary competence and resilience to be able to apply appropriate recovery techniques during upsets.

(b)  In order to meet the objective as specified in point (a), the course should:

(1)  emphasise physiological and psychological effects of an upset and develop strategies to mitigate those effects;

(2)  be delivered in a suitable training aircraft in order to expose trainees to conditions that cannot be replicated in an FSTD; and

(3)  employ recovery techniques that are suitable for the aircraft used for training in order to support the training objectives. In order to minimise the risk associated with potential negative transfer of training, the recovery techniques used during the course should be compatible with techniques typically used for transport category aeroplanes.

THEORETICAL KNOWLEDGE

(c)  Theoretical knowledge instruction supports the objectives of the course and should include the following:

(1)  a review of basic aerodynamics typically applicable to aeroplane upsets in transport category aeroplanes, including case studies of incidents involving potential or actual upsets.

(2)  aerodynamics relevant to the aeroplane and exercises used in the practical training, including differences to aerodynamics as referred to in point (1);

(3)  possible physiological and psychological effects of an upset, including surprise and startle effect;

(4)  strategies to develop resilience and mitigate startle effect; and

(5)  memorising the appropriate procedures and techniques for upset recovery.

FLIGHT INSTRUCTION

(d)  Flight instruction should include:

(1)  exercises to demonstrate:

(i)  the relationship between speed, attitude and AoA;

(ii)  the effect of g-load on aeroplane performance, including stall events at different attitudes and airspeeds;

(iii)  aerodynamic indications of a stall including buffeting, loss of control authority and inability to arrest a descent;

(iv)  the physiological effects of different g-loads between -1 and 2.5G; and

(v)  surprise and the startle effect;

(2)  training in techniques to recover from:

(i)  nose high at various bank angles;

(ii)  nose low at various bank angles;

(iii)  spiral dives;

(iv)  stall events; and

(v)  incipient spin; and

(3)  training to develop resilience and to employ strategies to mitigate the startle effect.

COURSE COMPLETION

(e)  The course is considered to have been satisfactorily completed if the trainee is able to successfully:

(1)  apply strategies to mitigate psychological and physical effects;

(2)  recognise upsets;

(3)  apply correct recovery techniques from upset scenarios as specified in point (d)(2).

UPSET RECOVERY TRAINING EXERCISES

GENERAL

(a)  The objective of this GM is to provide instructors with further guidance on the conduct of the various upset recovery exercises, which requires instructor performance beyond that experienced in normal operations.

(b)  Instructors should:

(1)  ensure that the risk mitigation measures determined by the ATO are strictly adhered to;

(2)  continuously assess the performance of the student to ensure that the training objectives of the upset recovery exercises are achieved;

(3)  understand that all-attitude/on-aeroplane upset recovery exercises serve primarily as resilience-builder. In other words, the training serves mainly human-factor training objectives and not only flying skills training;

(4)  understand the differences between all-attitude UPRT and aerobatics training;

(5)  have knowledge and understanding of how:

(i)  on-aeroplane and FSTD UPRT complement each other; and

(ii)  to ensure that negative transfer of training from small aeroplanes to heavier transport category aeroplanes is avoided. This may be achieved by observing UPRT in an FSTD, especially in a type-specific FFS; and

(6)  have knowledge and understanding of the upset prevention theoretical knowledge and flight instruction elements taught during the CPL(A) and ATPL(A) training courses to ensure continuity and consistency in delivering UPRT.

Note: Instructors should be aware that the safety and potential human factor implications of poor upset recovery instructional technique or misleading information are more significant than in any other areas of pilot training.

(c)  In order to increase the applicant’s resilience related to the handling of aeroplane upsets, the advanced UPRT course needs to include the development of confidence and competence in recognising and recovering safely from upsets under the presence of the real human factors. Such confidence building is specifically addressed by:

(i)  successfully overcoming natural stress response (startle and surprise); and

(ii)  performing critically important counter-intuitive actions.

Advanced UPRT therefore considers pitch attitudes, bank angles, AOA/airspeeds, sideslip and g-loads, none of which are normally experienced during routine operations.

(d)  Aeroplanes used in this course should be:

(1)  appropriately certified and operated by the ATO in a manner that takes into account the effects of repeated training manoeuvres on airframe fatigue life; and

(2)  provide sufficient safety margins to cater for student and instructor errors.

(e)  This course complements UPRT in FSTDs by providing exposure to psycho-physiological conditions, which cannot be delivered by the motion systems of today’s qualified FSTDs. At completion of the course, the student should pilot to be able to:

(1)  recognise and confirm the upset-situation;

(2)  manage stress response;

(3)  apply the correct recovery strategy timely and effectively;

(4)  stay within the defined training envelope;

(5)  stabilise the flight path after recovery; and

(6)  become competent and confident in recovering from upsets.

SPECIFIC EXERCISES

(f)  Exercise 1 — Nose HIGH recovery

Exercise 1

Recovery from Nose HIGH upsets at various bank angles

(1) Training objectives

The student pilot should:

(i) recognise and confirm the Nose HIGH situation (AOA, attitude, energy, trends);

(ii) announce ‘Nose High’; and

(iii) apply the correct recovery strategy.

(2) Training tasks

The student pilot should:

(i) regain situation awareness;

(ii) recognise and analyse AOA, pitch, bank, energy state and trends;

(iii) note natural and synthetic indications for AOA, attitude, and energy;

(iv) manage human factors, stress response (startle and surprise, counter-intuitive actions);

(v) take manual control;

(vi) identify and apply the Nose HIGH recovery strategy;

(vii) correct any out-of-trim condition;

(viii) manage nose-down movement;

(ix) manage g-load;

(x) use the effects of power to assist nose-down movement;

(xi) use bank to orient the lift vector as necessary;

(xii) stabilise the flight path after recovery using basic pitch/power settings;

(3) Enabling objectives

The student pilot should:

(i) decide if Stall Recovery or Nose HIGH recovery is applicable;

(ii) perform control inputs deliberately;

(iii) use up to full control deflections;

(iv) avoid unnecessary low or high loads;

(v) use secondary flight controls (trim/power) as necessary to support primary flight control inputs (i.e. nose-down movement); (vi) apply control inputs in the correct sequence (see Table 1, Nose-HIGH Recovery Strategy); (vii) apply counter-intuitive actions as necessary:

(A) unloading;

(B) power-reduction in Nose-HIGH attitude (depending on engine mounting); and

(C) using bank to orient the lift vector downwards.

Note: Refer to GM1 to Appendix 9, Table 2: Recommended nose-high recovery strategy template.

(g)  Exercise 2 — Nose LOW Recovery

Exercise 2

Recovery from Nose LOW upsets at various bank angles

(1) Training objectives

The student pilot should:

(i) recognise and confirm the situation (AOA, attitude, energy, trends);

(ii) announce ‘Nose LOW’;

(iii) apply the correct recovery strategy.

(2) Training tasks

The student pilot should:

(i) regain situation awareness;

(ii) recognise and analyse AOA, pitch, bank, energy state and trends;

(iii) note natural and synthetic indications for AOA, attitude and energy;

(iv) manage human factors, stress response (startle and surprise, counter-intuitive actions);

(v) take manual control;

(vi) identify and apply the Nose LOW recovery strategy;

(vii) correct out-of-trim condition;

(viii) decide if aircraft is stalled;

(ix) manage g-load;

(x) identify the correct direction to roll;

(xi) roll to wings level to orient the lift vector upwards;

(xii) manage power and drag; and

(xiii) stabilise the flight path after recovery using basic pitch/power settings.

(3) Enabling objectives

The student pilot should:

(i) perform control inputs deliberately;

(ii) use up to full control deflections;

(iii) avoid unnecessary low or high loads;

(iv) apply control inputs in the correct sequence (see Table 2, Nose-LOW Recovery Strategy); and

(v) apply counter-intuitive actions as necessary:

(A) apply Stall Recovery in nose low attitude first if needed;

(B) unloading instead of pulling;

(C) unloading to increase roll rate;

(D) avoid ‘rolling-pull’; and

(E) accept the priority of rolling to wings level first, before reducing power and before pulling.

Note: Refer to GM1 to Appendix 9, Table 3: Recommended nose-low recovery strategy template.

(h)  Exercise 3 — Recovery from spiral dive

Exercise 3

Recovery from Spiral Dive

(1) Training objectives

The student pilot should:

(i) recognise the spiral dive as a result of improper nose-up elevator input during a Nose LOW turning situation; and

(i) apply the Nose LOW Recovery Strategy.

(2) Training tasks

The student pilot should:

(i) maintain/regain situation awareness;

(ii) recognise and analyse AOA, pitch, bank, energy state and trends;

(iii) manage human factors, stress response (startle and surprise, counter-intuitive actions);

(iv) take manual control;

(v) identify and apply the Nose LOW recovery strategy; and

(vi) stabilise the flight path after recovery using basic pitch/power settings.

(3) Enabling objectives

The student pilot should:

(i) perform control inputs deliberately and in the correct sequence;

(ii) use up to full control deflections, if required; and

(iii) apply counter-intuitive actions as necessary:

(A) unloading instead of pulling;

(B) unloading to increase roll rate;

(C) avoid ‘rolling-pull’; and

(D) accepting the priority of rolling to wings level first, before reducing power and before pulling.

(i)  Exercise 4 — Stall Event Recovery

Exercise 4

Recovery from Stall event

(1) Training objectives

The student pilot should:

(i) recognise and confirm the situation (AOA, attitude, energy, trends);

(ii) announce ‘Stall’;

(iii) apply the Stall Event Recovery Strategy.

(2) Training tasks

The student pilot should:

(i) regain situation awareness;

(ii) recognise and analyse AOA, pitch, bank, energy state and trends;

(iii) note natural and synthetic indications for high AOA/stall;

(iv) manage human factors, stress response (startle and surprise, counter-intuitive actions);

(v) recover from:

(A) approach to stall

(B) full stall, wings level and during turn

(C) slipping stall

(D) skidding stall

(E) accelerated stall

(F) secondary stall

(vi) take manual control;

(vii) identify and apply the Stall Event Recovery Template or the aircraft manufacturer Stall Recovery SOP;

(viii) apply nose-down elevator input to reduce AOA;

(ix) manage trim;

(x) consider power reduction (if engine mounting induces a nose-up effect);

(xi) accept altitude loss;

(xii) identify the correct direction to roll to wings level;

(xiii) manage power and drag;

(xiv) manage g-load and energy to avoid secondary stall; and

(xv) stabilise the flight path after recovery using basic pitch/power settings.

(3) Enabling objectives

The student pilot should:

(i) perform control inputs deliberately;

(ii) use up to full control deflections;

(iii) apply control inputs in the correct sequence (see Table 3, Stall Event Recovery Strategy Template); and

(iv) apply counter-intuitive actions as necessary:

(A) unloading to reduce AOA;

(B) unloading before rolling;

(C) power reduction if necessary;

(D) accepting altitude loss; and

(E) waiting for airspeed increase before loading again.

Note: Refer to GM1 to Appendix 9, Table 1: Recommended stall event recovery template

(j)  Exercise 5 — Recovery from spin

Exercise 5

Recovery from incipient spin

(1) Training objectives

The pilot should:

(i) recognise and confirm the spin (AOA, yaw, attitude, energy, roll, trends);

(ii) apply the OEM Incipient Spin Recovery procedure.

(2) Training tasks

The pilot should:

(i) be aware of the aircraft response to all possible pitch and roll control inputs and to thrust/power changes during (incipient) spin;

(ii) maintain/regain situation awareness;

(iii) recognise and analyse AOA, attitude, energy, yaw, roll, trends);

(iv) note natural and synthetic indications for high AOA, stall, spin;

(v) manage human factors, stress response (startle and surprise, counter-intuitive actions);

(vi) take manual control;

(vii) identify and apply the OEM Incipient Spin Recovery Procedure;

(viii) manage AOA, g-load and energy to avoid secondary stall; and

(ix) stabilise the flight path after recovery using basic pitch/power settings.

(3) Enabling objectives

The pilot should:

(i) perform control inputs deliberately and in the correct sequence;

(ii) use up to full control deflections as required by the procedure;

(iii) apply counter-intuitive actions as necessary;

(iv) avoid unreflected control inputs; and

(v) allow time for control inputs to show results.

(k)  Assessment of student performance

By collecting evidence from observable behaviours, the instructor will continuously assess whether the student meets the required competency standards under the given conditions.

Pilot competencies and behavioural indicators in the context of the Advanced UPRT Course

(1)  Application of procedures

(i)  Follows the recommended Nose HIGH or Nose LOW recovery strategy or the Stall Event Recovery Template / STALL RECOVERY SOP

(ii)  Identifies and follows operating instructions in a timely manner

(iii)  Correctly operates aircraft systems and equipment

(iv)  Applies relevant procedural knowledge

(2)  Communication

(i)  Adheres to callouts

(ii)  Verbalises the essential steps during the recoveries

(3)  Aeroplane flight path management — automation

Disconnects autopilot and autothrust/autothrottle before initiating the recovery (to be simulated if the training aeroplane is not fitted with autothrust/autothrottle)

(4)  Aeroplane flight path management — manual control

(i)  Detects deviations from the desired aircraft trajectory and takes appropriate action

(ii)  Controls the aircraft using appropriate attitude and power settings

(iii)  Contains the aircraft within the defined flight envelope

(5)  Leadership and teamwork

(i)  Understands and agrees with the crew’s roles and objectives

(ii)  Uses initiative and gives directions when required

(iii)  Admits mistakes and takes responsibility

(iv)  Communicates relevant concerns and intentions

(v)  Gives and receives feedback constructively

(vi)  Projects self-control in all situations

(6)  Problem-solving and decision-making

(i)  Seeks accurate and adequate information from appropriate sources

(ii)  Identifies and verifies what and why things have gone wrong

(iii)  Perseveres in working through the event safely

(iv)  Sets priorities appropriately

(7)  Situation awareness and information management

(i)  Identifies and assesses accurately the state of the aircraft and its systems

(ii)  Identifies and assesses accurately the aircraft’s vertical and lateral position, and its anticipated flight path

(iii)  Anticipates accurately what could happen, plans and stays ahead of the situation

(iv)  Recognises and effectively responds to indications of reduced situation awareness.

(8)  Workload management

(i)  Maintains self-control in all situations Manages and recovers from stress response (startle surprise), interruptions, distractions, variations and errors effectively

(ii)  Reviews, monitors and cross-checks actions conscientiously

(iii)  Verifies that tasks are completed to the expected outcome

(iv)  Offers and accepts assistance, delegates when necessary, and asks for help early

(v)  Manages and recovers from interruptions, distractions, variations and failures effectively