Engineer Aircraft study plan

Map every structural member of a semi-monocoque fuselage and wing (spars, ribs, stringers, skin, frames) and state the load each carries

Distinguish limit, ultimate, and proof load factors and compute the design ultimate load for a given limit load and factor

Explain fail-safe, safe-life, and damage-tolerant design philosophies and match each to a real aircraft structural feature

Describe the function and failure consequences of primary airframe systems: pressurization, de-icing, and flight control surface attachment

Trace the Brayton cycle through compressor, combustor, turbine, and exhaust and explain where energy is added and extracted at each station

Compare turbojet, turbofan, turboprop, and turboshaft engines by bypass ratio, thrust production, and typical application

Identify the major components of a gas turbine engine and state the inspection concern for each (blade creep, hot-section corrosion, bearing wear)

Explain how FADEC governs fuel flow, and describe what happens to thrust and EGT when a sensor fails

Describe AC and DC generation architectures, including constant-speed drives, integrated drive generators, and bus transfer logic

Distinguish primary, secondary, and standby power sources and state the load-shedding priority order after a generator loss

Explain the operating principle of the pitot-static, gyroscopic, and magnetic sensor systems and the failure indications of each

Identify the bus hierarchy and describe how a partial electrical failure propagates through avionics systems

Compare hydraulic system pressure, fluid types, and seal compatibility, and explain why fluid contamination is a system-level hazard

Describe pneumatic bleed-air sources and users, and state the consequence of a bleed leak in each user system

Trace fuel from tank through boost pump, shutoff valve, and engine-driven pump, and explain venting, refuel/defuel, and crossfeed logic

Explain fuel quantity indication methods and the failure modes that produce misleading readings

Describe primary and secondary flight control surfaces and the actuation chain from cockpit input to surface movement for each axis

Explain fly-by-wire architecture, redundancy levels, and reversion modes, including what the crew sees when a computer channel drops out

Identify landing gear components, retraction/extension sequencing, and the safety interlocks that prevent gear collapse or inadvertent retraction

Explain anti-skid and auto-brake operation and the failure indications for each

Sequence a routine pre-flight and post-flight inspection and justify each check by the failure it is designed to catch

Distinguish scheduled maintenance checks by interval and scope and explain how a finding escalates into a non-routine task

Match NDT methods (visual, dye penetrant, magnetic particle, eddy current, ultrasonic, radiography) to the defect type and material each detects

Explain corrosion types, their typical locations, and the inspection and treatment response for each

Describe composite inspection concerns including delamination, disbond, and impact damage detection limits

Distinguish airworthiness directives, service bulletins, and advisory material by who issues them and whether compliance is mandatory

Explain the role of type certificates, supplemental type certificates, and approved maintenance organizations in returning an aircraft to service

Identify the documentation required to certify a maintenance action and state who is authorized to sign it

Describe how a defect outside the approved data is handled, including the path to an approved repair or deviation

Explain the Dirty Dozen human factors and match each to a concrete maintenance error scenario and a mitigation

Describe the safety management system cycle (hazard identification, risk assessment, mitigation, assurance) and apply it to one maintenance scenario

Recall the highest-yield facts from every domain using spaced review of previously written corrected statements and matrices

Complete a full-length timed mock exam and classify every error by domain and by cause (knowledge gap, misread, or reasoning error)