Aircraft Maintenance Programme Development: Build One for Any Aircraft

If you want to genuinely master aircraft maintenance programme development — not just read M.A.302, but build and defend a real AMP for any aircraft type — this is the course.

The Aircraft Maintenance Programme is the single document that keeps a type airworthy year after year. Get it right and the aircraft is maintained correctly by default; get it wrong and no amount of good hangar work downstream can save you. Yet most continuing-airworthiness engineers inherit an AMP and never learn to build one from first principles. This course fixes that. Grounded in M.A.302 and Appendix I to AMC M.A.302 (Regulation (EU) 1321/2014), it takes you from the legal basis all the way to a compliant, tailored, approved programme — and the reliability programme that keeps it effective.

Across roughly four and a half hours and 10 lessons, you will trace how maintenance logic evolved from hard-time overhaul through MSG-1, MSG-2 and MSG-3; read the source documents (MRBR, MPD, ALS and CMRs); assemble task types and intervals; handle the two areas that trip operators up most — fuel tank safety with CDCCL (CS 25.981) and structures with damage tolerance (CS 25.571, CPCP, SSID, the Limit of Validity); and design a full reliability programme under M.A.302(f), including alert-level mathematics, escalation control, and the bridging check for aircraft transferred between operators. Three real, NTSB-sourced case studies — TWA 800, Aloha 243 and Alaska 261 — anchor the lessons so the principles stick.

Why Choose Our Aircraft Maintenance Programme Development Course?

• Build-focused, not just awareness — a repeatable, type-agnostic method you can apply to a business jet, an A320, an ATR or a helicopter.
• The why, not just the what — the MSG evolution and the reliability truth behind every modern AMP task, which most courses skip.
• The hard areas done properly — CDCCL and fuel tank safety, damage tolerance and ageing aircraft, and a complete reliability programme with the maths.
• Three real case studies — TWA 800, Aloha 243 and Alaska 261, embedded as video and written up in full.
• Assessment & certificate — a branched-scenario summative plus a 50-question LearnDash bank, and a certificate on completion.

Target Audience

Built for anyone who owns, drafts, amends or approves an Aircraft Maintenance Programme, or who needs to judge whether one is compliant and effective. A working knowledge of the 1321/2014 framework (the level of our Part-M & Part-CAMO course) is recommended.

• Primary: CAMO continuing-airworthiness and reliability engineers, AMP focal points, and nominated persons responsible for the maintenance programme.
• Secondary: post-holders and accountable managers who approve or defend an AMP, Part-145 planning engineers who execute it, and auditors or regulators who assess it.

Learning Outcomes

Knowledge

• The AMP requirements of M.A.302 and Appendix I to AMC M.A.302, the approval routes (direct vs the indirect approval procedure), and how the AMP sits within continuing airworthiness.
• How maintenance philosophy evolved — hard-time, MSG-1, MSG-2, Nowlan & Heap / RCM, MSG-3 — and how the MRBR and MPD, ALS, CMRs, ADs and STC data feed the AMP.
• The special programmes: fuel tank safety and CDCCL (CS 25.981), structural damage tolerance, CPCP, SSID and the Limit of Validity (CS 25.571), and the reliability programme under M.A.302(f).

Skill

• Build a compliant, type-agnostic AMP from source data — selecting task types and intervals, packaging checks, and tailoring for utilisation and operating environment with correct escalation controls.
• Design and operate a reliability programme — data collection, alert levels and standard deviation, the reliability control board, corrective action, and reliability-driven AMP amendment.

Competence

• Develop, defend and continuously improve an Aircraft Maintenance Programme for any aircraft type — keeping it approved, current and effective through periodic review, configuration control, bridging checks and airworthiness review — and optimise it for cost and availability without eroding safety.