Aircraft Maintenance Engineering is the backbone of aviation safety, reliability, and airworthiness. It covers the systems, structures, procedures, and technical knowledge required to inspect, maintain, repair, and certify aircraft for safe operation.
This introductory module develops the essential scientific and technical groundwork needed for aircraft maintenance. It covers the basic principles of mathematics, physics, and engineering concepts relevant to aviation practice.
This module introduces the core concepts of aircraft design, structure, major systems, and operational terminology. It prepares the student to understand how the aircraft functions as an integrated machine.
Students study DC and AC circuits, electrical theory, generators, batteries, power distribution, and fault detection. This is fundamental for troubleshooting aircraft electrical systems and ensuring safe operation.
The focus is on semiconductor devices, amplification, signal processing, logic circuits, and electronic components used in aircraft systems. This enables understanding of avionics and electronic control systems.
This module covers digital logic, microprocessors, computing systems, and electronic instrument flight systems. It is essential for maintaining modern aircraft instrumentation and digital controls.
Students learn about aircraft materials, corrosion control, fasteners, structural components, and hardware specifications. Proper material knowledge is critical for structural integrity and maintenance compliance.
This module covers inspection procedures, defect rectification, maintenance documentation, workshop practices, and quality control. It focuses on the standard methods used to maintain airworthiness.
Students study airflow, lift, drag, thrust, and the forces acting on an aircraft in flight. It provides the physical understanding behind aircraft stability, performance, and aerodynamic design.
Human Factors addresses human performance, fatigue, communication, workload, and maintenance error influence. It helps technicians and engineers minimize mistakes that affect aircraft safety and reliability.
This module focuses on civil aviation regulations, certification requirements, maintenance standards, and compliance with legal obligations. It ensures aircraft maintenance is performed under approved and enforceable procedures.
It covers the theory and structure of turbine-powered airplanes, including aerodynamics, structural components, fuel systems, hydraulic systems, electrical systems, and aircraft operation.
The module examines piston-powered aircraft design and systems, including airframe construction, flight performance, landing gear, fuel systems, and system maintenance requirements.
This module covers helicopter physics, rotor systems, structural design, control systems, transmission, and maintenance practices specific to rotary-wing aircraft.
Students learn about propulsion principles, engines, thrust generation, and the interaction of powerplants with aircraft performance. It forms the foundation for understanding aircraft force production.
This module focuses on gas turbine engines, including compressor, combustion chamber, turbine, exhaust, performance, monitoring, and maintenance procedures for turbine engines.
The study covers piston engine design, operating cycles, ignition, lubrication, cooling, carburation, and maintenance of reciprocating powerplants used in smaller aircraft.
This final module focuses on propeller design, blade aerodynamics, pitch control, installation, balancing, vibration effects, and maintenance of aircraft propeller systems.