
Training on FAA rules (Part 43/91), required maintenance documentation, airworthiness standards, and human factors. Builds awareness of regulatory constraints, error chains, and safe operational decision-making.
Applied math and physics used for load calculations, pressures, moments, clearances, and performance analysis. Establishes the groundwork for engineering calculations and troubleshooting.
Reading engineering drawings, wiring diagrams, exploded views, and symbol conventions. A direct precursor to CAD literacy, tolerance interpretation, and mechanical design communication.
Hands-on understanding of aluminum alloys, corrosion types, heat treatment, composite basics, and the mechanical behavior of fasteners and rivets. Enables judgment about material selection and repair methods.
How corrosion forms, how to prevent it, what treatments to apply, and how to evaluate structural integrity.
Fabrication and inspection of rigid/flexible lines, bending, flaring, AN/MS fitting selection, routing rules, and leak troubleshooting. Builds understanding of hydraulic system design constraints.
Center of gravity calculations, moment arms, loading envelopes, and performance effects. Teaches systems thinking and safety-critical analysis.
DC theory, wiring, grounding, circuit protection, connectors, and troubleshooting. Gives insight into system integration, bonding, and failure modes relevant to avionics and mechanical systems.
How inspections are performed, what kinds of defects matter, and how to determine serviceability of components.
Fundamentals of lift, drag, stability, load paths, and how structural components carry mechanical loads. Helps engineers understand why aircraft are shaped and built the way they are.
Drilling, riveting, dimpling, forming, patching, structural repair principles, damage evaluation. Teaches manufacturability, tolerance stacking, and structural integrity.
Layups, resins, curing, inspection, delamination detection. Provides background in the behavior of composite materials and failure modes.
Oxyfuel, TIG/MIG basics, joint design, heat-affected zones, weld inspection. Useful for prototyping, fabrication, and structural joining.
Cables, pulleys, bellcranks, linkages, trim systems. Covers rigging procedures and how control geometry affects aircraft behavior.
Actuators, reservoirs, accumulators, pressure regulators, brakes, and landing gear systems. Provides real-world understanding of fluid power systems.
Mechanics of retraction, shock absorption, braking, and steering. Shows how mechanical subsystems integrate under load.
Pressurization, air-conditioning, bleed air, oxygen delivery. Relates to thermal management and human-system interface.
Detection loops, extinguishing agents, pneumatic anti-ice, electrical de-icing. Relevant to safety-critical system design.
Dye-penetrant, eddy current, ultrasonic inspections. Provides a foundation in detecting subsurface defects and evaluating structural integrity.
Covers the design of reciprocating engines (crankcases, pistons, rods, valves) and turbine engines (compressor → combustor → turbine). Teaches cycle analysis, power output, efficiency, and mechanical/thermal behavior of engines.
Explains carburetion, fuel injection, mixture control, metering, and FADEC systems. Demonstrates how engines manage air-fuel ratios under varying loads and altitude.
Air intake design, filtering, turbocharging & supercharging, and exhaust flow. Helps you understand airflow management, boost control, icing, and thermal performance.
Magnetos, spark timing, ignition harnesses, turbine ignition exciters, electrical wiring, bonding, connectors, and troubleshooting. Builds intuition around timing, spark energy, and system reliability.
Electric starters, inertia starters, air turbine starters, and large-engine starting sequences. Shows the mechanical and electrical processes required to bring engines online safely.
Dry-sump and wet-sump oil systems, viscosity, pumps, coolers, bypass valves, turbine lubricant flow, and engine cooling strategies. Essential for understanding failure modes and thermal management.
Fixed-pitch and constant-speed props, governors, feathering systems, and reduction gearing. Connects aerodynamic principles with mechanical actuation and power output.
Rigging controls, aligning mounts, reconnecting systems, inspection steps, test runs, and verification. Emphasizes system integration and maintenance-driven design.
Detection loops (thermocouple, optical, pneumatic), extinguishing agents, warning systems, and turbine fire zone design. Useful for understanding safety system architecture.
Top/major overhaul procedures, teardown inspections, NDT, cylinder compression testing, turbine component inspection, and test cell operation. Builds the skillset for failure analysis and performance verification.
Covers two-stroke and four-stroke light aircraft engines, carb synchronization, gearbox checks, turbo control, and small-engine operational quirks.