Remote CPL(A) Theory Training

Module Objectives:

• Master air traffic rules and the responsibilities of various stakeholders,
• Understand the rights and obligations associated with aircraft operation,
• Identify European and international regulations applicable to the pilot profession,
• Demonstrate compliance in normal and abnormal situations.

Module Content:

• International Air Law
• Airworthiness and Registration
• Personnel Licensing and Qualifications
• Rules of the Air
• Air Operations
• Air Traffic Services (ATS) and Air Traffic Management (ATM)
• Aeronautical Information Service (AIS)
• Aerodromes and Infrastructure
• Air Transport Facilitation (ICAO Annex 9)
• Search and Rescue (SAR)
• Aviation Security (ICAO Annex 17)
• Accident and Incident Investigation

Upon completion of this module, you will be able to operate confidently within a strictly regulated aviation environment and integrate these requirements into your future professional pilot duties.

Module Objectives:

• Understand the design and structural constraints of an aircraft, as well as the principles of preventive and corrective maintenance.
• Identify the various systems comprising the airframe, their roles, and their interactions.
• Master the operation of hydraulic, pneumatic, electrical, and air conditioning systems.
• Understand the operating principles of piston and turbine engines, as well as their associated systems.
• Be able to diagnose and anticipate potential failures to ensure flight safety and performance.

Module Content:

• Design, Loads, Stresses, and Maintenance : principles of structural design, material strength, fatigue cycles, scheduled and corrective maintenance.
• Airframe : fuselage, wings, empennages, materials used, system integration.
• Hydraulic Systems : components, operation, primary and secondary circuits, safety and redundancy.
• Landing Gear, Wheels, Tires, and Brakes : architecture, retraction mechanisms, braking systems, operational limitations.
• Flight Controls : primary and secondary controls, mechanical, hydraulic, and electrical systems, actuators, and trim systems.
• Pneumatic Systems — Pressurization and Air Conditioning : compressed air generation, cabin pressurization regulation, air conditioning.
• Anti-icing and De-icing Systems : aerodynamic and engine protection, utilized technologies (thermal, pneumatic, electrical).
• Fuel Systems : tanks, pumps, supply circuits, fuel management and balancing.
• Electrical Systems : power sources, AC/DC networks, distribution, electrical protection.
• Piston Engines : thermodynamic principles, architecture, operation, and maintenance.
• Turbomachinery : turbine engines, thermodynamic cycles, main components, limitations.
• Protection and Detection Systems : fire detection, suppression, various alarms and sensors.
• Oxygen Systems : fixed and portable systems, masks, regulators, emergency use.

Module Objectives:

• Understand the role and operation of onboard instruments and systems essential for safe flight operations.
• Be able to interpret data provided by sensors, measurement systems, and electronic displays.
• Master the use of automatic flight control, flight management, and assistance systems.
• Identify the principles of inertial navigation, flight parameter measurement, and performance management.
• Be familiar with maintenance and monitoring procedures and tools related to modern instrumentation.

Module Content:

• Sensors and Instruments : operating principles, sensor types, data conversion and transmission.
• Aerodynamic Parameter Measurement : indicated airspeed, altitude, Mach, temperature, anemometry, Pitot and static probes.
• Magnetism — Compass and Fluxgate Magnetometer : terrestrial magnetism, compass errors, principles of the magnetic compass and flux valve.
• Gyroscopic Instruments : artificial horizons, heading indicators, inclinometers, mechanical and laser gyroscopes.
• Inertial Navigation : inertial platforms, ring laser gyros, integration with other navigation systems.
• Automatic Flight Control Systems (AFCS) : autopilot, hold and tracking modes, trajectory management.
• Trims, Yaw Damper, and Flight Envelope Protections : flight trim, oscillation reduction, stall and overspeed protection systems.
• Autothrottle — Automatic Thrust Control Systems : operation, integration with FMS, modes of use.
• Communication Systems : VHF/HF radios, datalink, CPDLC, interphone and PA systems.
• Flight Management Systems (FMS/FMGS) : flight planning, 4D navigation, performance and fuel management.
• Warning and Proximity Systems : GPWS/EGPWS, TCAS, engine and system alerts, message prioritization.
• Integrated Instruments and Electronic Displays : EFIS, PFD, ND, EICAS/ECAM, information presentation philosophy.
• Maintenance, Monitoring, and Recording : diagnostic systems, flight recorders, preventive maintenance.
• Digital Circuits and Computers : onboard computing architecture, data processing, redundancy, and reliability.

Targeted Competencies

Upon completion of this module, you will be able to:

• Explain the operation of primary flight and navigation instruments.
• Effectively utilize automatic systems to optimize pilot workload.
• Correctly interpret information from analog or digital displays.
• Understand the integration of various systems within a modern avionics suite.
• Identify maintenance and monitoring procedures to ensure instrumentation reliability.

Module Objectives:

• Understand the importance of mass and balance calculations for flight safety and performance.
• Be able to apply methods for calculating an aircraft's center of gravity and total mass.
• Identify structural and operational limitations related to weight and load distribution.
• Master best practices for cargo loading, handling, and securing.
• Be able to anticipate and correct balance issues prior to takeoff.

Module Content:

• Purpose of Mass and Balance Considerations : influence on flight performance, stability, and safety; regulatory compliance.
• Loading : principles of mass distribution, compartment limitations, cargo securing, consideration of passengers, baggage, fuel, and freight.
• Aircraft-Specific Mass and Balance Details : operational empty weight (OEW), maximum takeoff weight (MTOW), maximum landing weight (MLW), taxi limitations, manufacturer's tables and diagrams.
• Determination of Center of Gravity (CG) Position : calculation methods, use of lever arms, moments, graphs, and balance envelopes.
• Cargo Handling : loading and unloading techniques, prevention of in-flight load shifts, adherence to aviation safety and handling standards.

Targeted Competencies

Upon completion of this module, you will be able to:

• Assess whether a load complies with the aircraft's mass and balance limits.
• Accurately calculate the total mass and the center of gravity position.
• Utilize manufacturer-provided documentation to verify compliance with operational limitations.
• Organize and supervise aircraft loading to ensure safety and operational efficiency.

Module Objectives:

• Understand the fundamental principles of aeronautical performance and their influence on operational safety and efficiency.
• Master regulatory concepts related to performance, particularly those aligned with CS-23 and CS-25 requirements.
• Be proficient in interpreting and utilizing performance data for both single-engine and multi-engine aircraft.
• Optimize flight planning based on performance limitations, environmental conditions, and takeoff weight.
• Be capable of making informed operational decisions, considering both the actual and theoretical performance characteristics of the aircraft.

Module Content:

• Overview : key definitions, factors influencing performance (mass, density altitude, wind, temperature, configuration).
• CS-23 — Performance Theory (Performance Class B) : requirements applicable to light aircraft, takeoff and landing distances, climb, cruise, approach, single-engine limitations.
• CS-23 — Utilization of Performance Data : interpretation of manufacturer's tables and graphs, adjustments based on actual conditions, application to single-engine and multi-engine aircraft.
• CS-25 — Performance Theory (Performance Class A) : requirements for transport aircraft, balanced field length calculations, characteristic speeds (V1, VR, V2), climb profiles, engine failure procedures.
• CS-25 — Utilization of Performance Data : interpretation and application of Aircraft Flight Manuals (AFM), adjustments based on environmental factors and aircraft configuration, performance optimization for safety and economic efficiency.

Targeted Competencies

Upon completion of this module, you will be able to:

• Understand and apply CS-23 and CS-25 regulations pertaining to aircraft performance.
• Accurately utilize manufacturer-provided performance data for flight planning.
• Adapt performance calculations to varying environmental conditions and emergency scenarios.
• Make operational decisions aimed at ensuring flight safety, efficiency, and regulatory compliance.

Module Objectives:

• Acquire the requisite skills for preparing VFR or IFR flights in compliance with regulations and operational procedures.
• Be proficient in utilizing GSPRM charts (VFR and IFR) for flight planning and navigation.
• Master fuel calculation and management methodologies in accordance with operational requirements.
• Conduct a comprehensive pre-flight preparation, integrating weather, performance, weight and balance, and airspace constraints.
• Accurately complete and interpret an ICAO flight plan.
• Ensure precise in-flight monitoring and adapt flight planning en route as required.

Module Content:

• VFR Flight Planning : utilization of VFR GSPRM charts, route selection, cruise altitudes, turning points, and estimation of flight time and fuel consumption.
• IFR Flight Planning : utilization of GSPRM IFR charts, selection of air routes, SIDs/STARs, flight levels, and estimated time and fuel.
• Fuel Planning — Operational Requirements : trip fuel, reserve fuel, alternate and holding fuel, regulatory margins.
• Pre-flight Preparation : collection and analysis of NOTAMs, meteorological forecasts (METAR, TAF, SIGWX), temporary restrictions, performance calculations, and airworthiness verification.
• ICAO Flight Plan : ATS FPL format, fields to be completed, equipment codification, and submission deadlines and procedures.
• In-flight Monitoring and Re-planning : monitoring techniques, comparison of forecasts versus actual conditions, route adaptation, fuel management, diversions, and operational decisions.

Targeted Competencies

Upon completion of this module, you will be able to:

• To plan a VFR or IFR flight comprehensively and compliantly.
• To effectively utilize GSPRM charts to establish an optimized route.
• To calculate the required fuel, taking into account regulatory and operational margins.
• To prepare a correctly completed ICAO flight plan.
• To ensure precise in-flight monitoring and make appropriate decisions in the event of changing conditions.

Module Objectives:

• To understand the fundamentals of human factors in aviation and their impact on operational safety.
• To identify a pilot's physiological and psychological limitations and understand how to manage them.
• To understand the principles of health and lifestyle hygiene necessary for maintaining optimal performance.
• To master the fundamentals of aviation psychology to optimize decision-making and the management of critical situations.

Module Content:

• Human Factors: Basic Concepts
  • Definition and importance of human factors in aviation.
  • Human error models (SHEL, Reason, Dirty Dozen).
  • Human-machine interaction and Crew Resource Management (CRM).
• Fundamentals of Aviation Physiology and Health Maintenance
  • Effects of Altitude: hypoxia, desaturation, decompression.
  • Fatigue, sleep, and circadian rhythm.
  • Hydration, nutrition, physical fitness, and lifestyle hygiene.
  • Effects of drugs, alcohol, and medication on performance.
• Fundamentals of Aviation Psychology
  • Perception, attention, and memory in an operational context.
  • Stress and workload management.
  • Interpersonal communication and in-flight decision-making.
  • Cognitive and emotional factors influencing safety.

Targeted Competencies

Upon completion of this module, you will be able to:

• Recognize and anticipate human limitations that may affect flight safety.
• Apply best practices to maintain optimal physiological and psychological performance.
• Identify signs of stress, fatigue, or cognitive overload and respond effectively.
• Integrate the human factor into risk management and operational decision-making.

Module Objectives:

• Understand the fundamental principles of meteorology and their influence on aviation operations.
• Be able to interpret and anticipate meteorological phenomena that may affect the safety and efficiency of a flight.
• Master the reading, interpretation, and utilization of aeronautical meteorological documents.
• Identify in-flight meteorological hazards and adapt flight planning or conduct accordingly.

Module Content:

• The Atmosphere : composition, vertical structure, temperature and pressure variations, general circulation.
• Wind : formation, forces involved (Coriolis, friction), wind types (geostrophic, gradient, local), shear.
• Thermodynamics : gas laws, humidity, dew point, atmospheric stability, dry and moist adiabatic processes.
• Clouds and Fog : classification, formation mechanisms, visual identification, prediction of their evolution.
• Precipitation : types (rain, snow, hail, drizzle), formation processes, operational impacts.
• Air Masses and Fronts : characteristics, formation, movement, phenomena associated with different front types.
• Pressure Systems : depressions, anticyclones, convergence lines, tropical cyclones, vortices.
• Climatology : climatic zones, seasonal variations, recurrent phenomena (monsoons, trade winds).
• Meteorological Hazards for Flight : icing, thunderstorms, turbulence, microbursts, volcanic ash.
• Meteorological Information : sources (METAR, TAF, SIGMET, AIRMET, weather charts), interpretation and use for flight planning and monitoring.

Targeted Competencies

Upon completion of this module, you will be able to:

• Analyze the meteorological situation and anticipate its effects on a flight.
• Identify meteorological risks and apply preventive or corrective measures.
• Effectively utilize aeronautical weather products for flight planning and in-flight monitoring.
• Integrate meteorological data into operational decision-making to optimize safety and performance.

Module Objectives:

• Understand the fundamental principles of air navigation and their in-flight application.
• Master VFR navigation by utilizing visual references and track-keeping techniques.
• Understand and apply the concepts of great circles and rhumb lines to optimize air routes.
• Be able to interpret and utilize various types of aeronautical charts.
• Understand and apply the principles of time measurement in navigation and their relation to geographical position.

Module Content:

• Fundamentals of Navigation : definitions, geographical coordinate system, latitude and longitude, heading, track, and drift.
• VFR Navigation : use of visual references, position estimation, track keeping, heading tracking techniques.
• Great Circles and Rhumb Lines : definition, optimal route calculations, comparison of advantages and disadvantages based on flight type.
• Charts : projection types (conformal, equidistant, azimuthal), GSPRM charts, scales, aeronautical symbols and legends.
• Time : UTC, local, and legal times, time zones, equation of time, conversion and use for navigation.

Targeted Competencies

Upon completion of this module, you will be able to:

• Explain the principles of navigation and apply the corresponding calculation methods.
• Effectively utilize VFR navigation charts and tools.
• Select the most appropriate route based on distance and operational constraints.
• Properly manage in-flight time conversion and utilization to ensure accuracy and safety.

Module Objectives:

• Understand the fundamental principles of radio propagation and their application to aeronautical navigation.
• Understand radio navigation aids and their in-flight use.
• Master the principles and uses of radar in air navigation and surveillance.
• Be able to use and interpret data from GNSS systems.
• Apply the principles of Performance-Based Navigation (PBN) in an operational context.

Module Content:

• Basic Theory of Radio Propagation : nature of electromagnetic waves, frequency ranges used in aviation, free-space propagation, effects of the troposphere and ionosphere, interference and limitations.
• Radio Aids :
  • NDB/ADF: principles, operation, limitations, and errors.
  • VOR: Conventional and Doppler VOR, use for navigation and radials.
  • DME: Distance measurement, principles, and integration with other aids.
  • ILS: Localizer, glide slope, markers, Category I/II/III.
  • VDF: Radio direction finding, principles, and applications.
• Radar: Operation, types (primary, secondary SSR), Mode A/C/S, use for navigation and surveillance.
• GNSS Systems: GPS, GLONASS, Galileo, triangulation principles, accuracy, integrity, and limitations.
• Performance-Based Navigation (PBN): Key concepts, RNAV, RNP, performance specifications, operational and regulatory requirements.

Targeted Competencies

Upon completion of this module, you will be able to:

• Explain the operation of major radio navigation systems.
• Effectively utilize radio aids to determine and follow a route.
• Interpret radar and GNSS information within an operational context.
• Apply PBN principles to optimize navigation accuracy and safety.

Module Objectives:

• Understand the general requirements governing air operations in accordance with current regulations.
• Identify and manage specific operational procedures and the risks associated with certain particular operations.
• Master the specific regulatory requirements related to specialized operations under amended Regulation (EU) No 965/2012.

Module Content:

• General Requirements: Regulatory obligations, operator responsibilities, safety management, operational documentation, compliance with air rules.
• Special Operational Procedures and Associated Hazards: General aspects of high-risk operations, specific conditions, risk management, communication and coordination with authorities.
• Specialized Operations: European regulation (EU 965/2012), types of operations (specialized flights, aerial work, complex commercial operations), specific requirements for qualification, maintenance, equipment, and security.

Targeted Competencies

Upon completion of this module, you will be able to:

• Apply general regulatory requirements to all your air operations.
• Identify risks and adapt procedures according to specific operations.
• Integrate the specific obligations of specialized operations into mission planning and execution.

Module Objectives:

• Understand the fundamental aerodynamic principles governing aircraft flight in subsonic and supersonic regimes.
• Identify and master critical phenomena such as stall, Mach tuck, and loss of control situations, as well as prevention and recovery techniques.
• Understand the principles of aircraft stability and control to ensure safe and precise flight operations.
• Comprehend the flight limitations associated with the aerodynamic and mechanical characteristics of aircraft.
• Understand the operational principles of propellers and their influence on aircraft performance.
• Master the fundamentals of flight mechanics to optimize aircraft performance and operational safety.

Module Content:

• Subsonic Aerodynamics: principles of lift, drag, airflow around airfoils, Bernoulli's principle, and the effects of speed and angle of attack.
• High-Speed Aerodynamics: transonic and supersonic phenomena, compressibility, shock waves, and modifications to lift and drag.
• Stall, Mach Tuck, and Prevention/Recovery from Destabilizing Situations: stall mechanisms, identification of warning signs, recovery techniques, and the effects of Mach tuck.
• Stability: longitudinal, lateral, and directional stability; pitch, roll, and yaw moments; and the role of control surfaces.
• Control: principles of piloting, primary and secondary control surfaces, control inputs, and control feedback.
• Limitations: maximum speed, stall speed, structural limits, and environmental factors.
• Propellers: operating principle, types, efficiency, variable pitch, and effects on aircraft behavior.
• Flight Mechanics: forces in flight, equations of motion, trajectories, maneuvers, and performance.

Targeted Competencies

Upon completion of this module, you will be able to:

• Explain the essential aerodynamic phenomena of flight and their influence on aircraft behavior.
• Identify and manage stall situations and other instances of loss of control.
• Ensure precise and stable control of the aircraft while adhering to its operational limits.
• Understand and effectively utilize propeller propulsion systems.
• Apply mechanical principles to optimize flight safety and efficiency.

Module Objectives:

• Understand the fundamental concepts of aeronautical communications.
• Master the general operational procedures pertaining to in-flight communications.
• Be able to transmit and receive relevant meteorological information.
• Know the procedures to follow in the event of voice communication failure.
• Be capable of managing distress and emergency situations through radio communications.
• Understand the principles of VHF wave propagation and frequency management.
• Explore other means and techniques of aeronautical communication.

Module Content:

• Concepts : principles of communication, constituent elements of an aeronautical communication system, protocols.
• General Operational Procedures : call initiation, establishing contact, standard transmissions, phraseology, traffic management.
• Relevant Meteorological Information : formats and content of weather messages, in-flight transmission.
• Voice Communication Failure : identification, applicable procedures, alternative modes.
• Distress and Urgency Procedures : distress signals (MAYDAY, PAN-PAN), situation management, coordination with air traffic control.
• VHF Propagation and Frequency Allocation : characteristics of VHF waves, range, limitations, frequency planning.
• Other Communications : satellite communications, ACARS systems, automatic transmissions, data communications.

Targeted Competencies

Upon completion of this module, you will be able to:

• Correctly use aeronautical phraseology and adhere to communication protocols.
• Effectively transmit and receive meteorological and operational information.
• Apply the appropriate procedures in the event of voice communication failure.
• Manage emergency communications with composure and precision.
• Understand and explain the technical aspects related to VHF propagation and frequency management.
• Utilize alternative and advanced means of aviation communication.

Area Objectives:

• Integrate the key competencies defined by ICAO to ensure professional, safe, and efficient piloting.
• Develop the fundamental skills, behaviors, and knowledge necessary for Threat and Error Management (TEM).
• Enhance the ability to perform rapid and precise mental calculations, essential in operational situations.

Area Content:

• ICAO Core Competencies : communication, workload management, decision-making, situational awareness, leadership, and teamwork.
• Core Competency Learning Objectives : progressive development and evaluation of competencies related to safety and performance.
• Additional Threat and Error Management (TEM) : threat identification, prevention strategies, error control, adaptation to critical situations.
• Mental Calculation : techniques, exercises, and practical applications for rapidly solving numerical problems in flight (speed, time, distances, fuel consumption, etc.).

Targeted Competencies

Upon completion of this area, you will be able to:

• Effectively apply the key competencies recommended by ICAO in all flight phases.
• Identify and manage threats and errors to maintain a high level of safety.
• Perform accurate and rapid mental calculations for in-flight decision-making.