AAK ATPL (Kazakhstan) study plan

Map every Kazakhstan civil aviation regulation and ICAO Annex topic on the ATPL syllabus to a one-page summary, noting which articles govern licensing, airworthiness and rules of the air.

State the privileges, recency and medical validity requirements of the ATPL(A) licence and explain how they change when acting as pilot-in-command for a commercial operator.

Describe the vertical structure and composition of the atmosphere and quote the standard atmosphere values used for pressure altitude and density altitude work.

Decode METAR and TAF reports including CAVOK, TREND groups, wind shear and colour-state codes, working through at least 20 current aerodrome reports.

Classify the principal cloud types and name the aviation hazard each one signals, matching the classification to reported and forecast conditions.

Predict the wind, visibility and precipitation changes produced by the main air masses and frontal systems affecting Kazakh aerodromes.

Calculate QNH, QFE and flight-level conversions, including true altitude and density altitude corrections for extreme high and low pressure.

Identify icing, clear-air turbulence, wind shear and thunderstorm hazards and name the forecast products and warnings that advertise each one.

Trace the airflow and load paths through the fuselage, wing, empennage and primary flight controls, and state the function of each structural group.

Explain how hydraulic, pneumatic and electrical power are generated, distributed and protected, and name the indications that reveal a failure of each.

Describe the construction, operation and failure indications of landing gear, brakes, anti-skid, pressurisation and air-conditioning systems.

Explain the operating cycle of piston and gas-turbine engines, component by component, and interpret EGT, EPR, N1 and N2 indications.

State the crew action to take for each abnormal engine or system indication covered so far, linking indication to checklist.

Convert between latitude/longitude, rhumb line and great circle, and compute great-circle distance and departure using the standard formulae.

Solve magnetic variation and deviation problems, converting headings and bearings between true, magnetic and compass references.

Plot and measure tracks on Mercator and Lambert conformal conic charts, correcting for chart scale and meridian convergence.

Solve wind triangle problems for heading, groundspeed, drift and time using both the flight computer and the manual trigonometric method.

Explain the principle, accuracy and error sources of VOR, DME, NDB/ADF and ILS, and interpret the cockpit indications of each aid.

Describe area navigation, GNSS and required navigation performance, including RAIM prediction and the meaning of receiver warnings.

Read instrument approach charts for minima, missed approach and navaid frequencies, and brief an approach from the chart alone.

Compute mass, centre of gravity and the completed load sheet for a given aircraft, including the effect of fuel, payload and last-minute changes.

Interpret a trim sheet, decide whether a loading lies inside the certified CG envelope and correct it when it does not.

Build a full fuel plan covering taxi, trip, contingency, alternate and final reserve fuel in accordance with the applicable regulation.

Calculate the point of no return and the critical point for a given route and explain how each alters the operational flight plan.

Complete an operational flight plan from take-off to destination alternate, including climb, cruise and descent legs.

Explain primary and secondary surveillance radar, transponder codes and the meaning of Mode A, C and S replies to an interrogation.

Describe how ADF, VOR, DME and ILS receivers derive their indications and which errors degrade each of them in practice.

Transmit and decode standard VFR and IFR radiotelephony for departure, en-route, position reporting and approach, using correct phraseology.

Demonstrate distress and urgency procedures including MAYDAY and PAN PAN, with correct readback, phonetic alphabet and figure pronunciation.

Comply with ATS clearance limits, level instructions and SSR code allocation, and state what to do when a clearance cannot be accepted.

Extract take-off, landing and climb performance data from a flight manual for varying mass, temperature, pressure altitude, wind and runway state.

Compute accelerate-stop distance, balanced field length and the degradation caused by contaminated or wet runways.

Explain the four forces in steady flight and show how angle of attack, speed and air density change lift, drag and thrust required.

Describe static and dynamic stability, control effectiveness, the stall, buffet margins and behaviour in the low-speed and high-speed regimes.

Explain propeller and jet thrust production and the effect of flap, gear and configuration on climb gradient and cruise performance.

State the operational requirements for fuel, alternates, weather minima, crew duty and dispatch, and apply them to a sample dispatch decision.

Describe the emergency procedures and checklists for engine failure, decompression, fire and ditching, and the order in which they are actioned.

Explain hypoxia, hyperventilation, decompression sickness, spatial disorientation and fatigue, giving symptoms, timescales and countermeasures for each.

Apply threat and error management and crew resource management principles to a described in-flight scenario and justify each decision made.

Sit a full-length timed mock across all 12 domains and list the weak areas that require remediation before the examination.