Aviation

Florida is not typically the first state named in aerospace industry analysis. That framing is changing. Stratview Research identified over 500 MRO players in the United States — Florida holds a disproportionate share of that base. The state hosts one of the most geographically diverse and operationally active aviation ecosystems in the country, running from Naval Air Station Jacksonville and the dense defense supplier network in the northeast, through the Orlando-Kissimmee corridor where Lockheed Martin, L3Harris, and Northrop Grumman have established significant presence, to Miami, which anchors one of the largest commercial MRO concentrations in the Western Hemisphere. Market Research Future valued the U.S. Aircraft MRO market at USD 10.82 billion in 2025, projecting growth to USD 16.79 billion by 2034 at a CAGR of 5.0%.

The Sarasota-Bradenton-Venice MSA sits near the center of this geography, with access to both commercial airports (SRQ and TPA) and a concentration of general aviation activity that supports a growing base of FBOs, Part 145 repair stations, and specialized component manufacturers. For quality managers operating in this ecosystem — whether as local suppliers, as European OEMs qualifying Florida-based vendors, or as MRO operators managing Part 145 quality systems — the regional growth creates specific quality management challenges that are worth addressing before they produce qualification gaps or quality escapes.

1. The Florida Aviation Ecosystem: What the Structure Looks Like

Four distinct geographic clusters define Florida’s aviation footprint:

Northeast Florida — Jacksonville defense and naval aviation hub. Naval Air Station Jacksonville drives significant MRO activity for naval aircraft platforms, with a supplier network extending across Clay, Duval, and St. Johns counties. The defense orientation means AQAP 2110 and DCMA oversight are relevant to suppliers in this corridor — a different quality management context than commercial Part 145 work.

Central Florida — Defense technology and space manufacturing cluster. The Orlando-Kissimmee corridor and the Space Coast (Brevard County) host Lockheed Martin’s Orlando-area facilities, L3Harris Technologies, Northrop Grumman, and hundreds of tier-two and tier-three suppliers. The Kennedy Space Center and Cape Canaveral launch infrastructure drives additional quality requirements for space-rated components and manufacturing processes. AS9100 and AQAP 2110 are both active in this market.

South Florida — Commercial aviation MRO concentration. Miami International Airport hosts several of the largest commercial MRO operations in the Western Hemisphere. Line maintenance, heavy maintenance checks, engine MRO, and component repair represent a significant Part 145 activity base. The global nature of Miami’s aviation hub means that FAA, EASA, and multiple international regulatory frameworks are relevant to MRO operators in this corridor.

Southwest Florida — The Sarasota-Bradenton growth corridor. The SRQ and TPA airports anchor a growing base of general aviation, business aviation, and commercial aviation support activity. The proximity to the defense and commercial aviation clusters in both central Florida and Miami positions the Sarasota-Bradenton area as a realistic location for suppliers serving multiple market segments simultaneously.

2. The Quality Infrastructure Gap in Regional Growth

Regional aviation ecosystem growth attracts new entrants — companies previously operating in adjacent sectors (automotive manufacturing, industrial maintenance, electronics assembly) that are moving into aviation because the market opportunity is visible and the geographic access is established. Fortune Business Insights noted that North America dominated the aircraft component MRO market with 30.70% market share in 2025, with inspection technology advances and growing demand for specialized services driving the market. These new entrants frequently bring capable manufacturing and maintenance operations. They do not always bring the quality infrastructure required for regulated aviation work.

The gap is structural, not motivational. Part 145 repair station quality requirements, Part 21G production approval quality requirements, and AS9100 / EN 9100 supplier quality requirements assume a baseline of quality management maturity that takes time and investment to develop. The specific aerospace requirements — configuration management to AS9100 Section 8.1.2, First Article Inspection to AS9102, CoC format and content standards, key characteristics controls, airworthiness documentation — require specific knowledge and documented processes that automotive or industrial quality experience does not automatically provide.

EASA EPAS 2026 identified workforce competency as a systemic safety risk, with the addendum to Volume I stating that „addressing the shortage of competent aviation personnel is a priority topic for the Member States.“ The same challenge is present in the U.S. market: the qualified aviation quality engineering workforce is not growing as fast as the aviation supplier and MRO base is growing. Organizations are placing personnel in quality-critical roles who are capable and motivated but are learning the aviation quality requirements on the job rather than entering with established aviation quality experience. This is the condition EASA flagged as a potential long-term safety risk — and it is visible on shop floors across the Florida aviation ecosystem today.

3. What This Means for European OEMs Qualifying Florida Suppliers

European OEMs qualifying Florida-based suppliers face the structural gaps described in the earlier post in this series on U.S. market qualification. The additional dimension specific to Florida is the diversity of the market: a supplier in the Sarasota-Bradenton area may simultaneously serve commercial aviation Part 145 customers, general aviation OEMs, defense program requirements under DCMA oversight, and space program requirements under NASA or USAF quality frameworks. Each of those programs has different documentation, traceability, and audit requirements.

The qualification question for a European OEM is not just whether the supplier has an AS9100 certificate — it is whether the supplier’s quality system is calibrated to your specific program’s requirements, and whether the people executing the quality-critical steps in your program have the right background for that specific work. Those questions require process audit, not certificate verification.

4. The Local Presence Advantage

SK Quality Consulting is based in Sarasota. I work in this market, know the regional supplier landscape, and conduct supplier audits and quality oversight across the Florida aviation ecosystem without requiring transatlantic travel or cross-time-zone scheduling coordination.

For European companies with Florida-based suppliers: a process audit conducted by a local representative with experience in both EN 9100 / EASA requirements and U.S. manufacturing operations produces faster qualification decisions, more responsive corrective action management, and supplier relationships that develop more productively than those managed exclusively through transatlantic coordination. For Florida-based suppliers entering European aerospace customer relationships: working with a consultant who understands both sides of the qualification process helps avoid the documentation, process, and communication gaps that consistently surface in first-time transatlantic supplier relationships.

3 Concrete Actions

1. For European OEMs with Florida-based suppliers: conduct a first article process audit — not a document review — before qualifying any new Florida supplier for safety-critical or quality-critical parts. The audit should specifically examine whether the aviation-specific quality processes (FAI to AS9102, CoC format and content, key characteristics control, airworthiness documentation) are implemented in production and executed by personnel with relevant aviation quality background, not just documented in procedures.

2. For Florida-based suppliers entering aviation qualification for the first time: invest in a gap analysis against the specific customer quality requirements before the first formal qualification audit. European aerospace customers typically have quality requirements — in areas of traceability depth, CoC content standards, and corrective action response format — that go significantly beyond AS9100 minimum requirements. Understanding those gaps before the qualification audit allows you to close them proactively rather than manage them as qualification findings.

3. For MRO operators in the Sarasota-Bradenton and southwest Florida market: if you are placing personnel in quality-critical roles (inspection, release authorization, corrective action management) who are developing their aviation quality knowledge, consider structured competency development beyond standard training courses. Mentoring from experienced aviation quality practitioners and on-site coaching during actual quality events build competency more effectively than classroom training alone — and they build the practitioner judgment that EASA EPAS 2026 identifies as the missing element in the current workforce challenge.

👉 Request a Technical Consultation → www.skqc.org

Sources

• Stratview Research — Aircraft MRO Market: Over 500 MRO Players in the USA, stratviewresearch.com
• Fortune Business Insights — Aircraft Component MRO Market Size, Share and Growth 2025-2034 (North America 30.70% share), fortunebusinessinsights.com
• Market Research Future — US Aircraft MRO Market Size, USD 10.82B (2025) to USD 16.79B (2034) at CAGR 5.0% (June 2025), marketresearchfuture.com
• EASA — European Plan for Aviation Safety (EPAS) 2026 Addendum: Workforce Competency Strategic Priority, easa.europa.eu
• AS9100 Rev D / EN 9100:2018 — Section 8.1.2: Configuration Management
• SAE AS9102 — First Article Inspection Requirement
• IAQG — IA9100 Key Change Summary: Sub-Tier Supplier Controls, iaqg.org

#SarasotaAviation #FloridaAviation #AviationQuality #MROQuality #SupplierQuality #SarasotaBusiness #TampaBay #Jacksonville #Miami #SKQC

Global military expenditure reached USD 2,887 billion in 2025 — an increase of 2.9% in real terms over 2024 and the 11th consecutive year of increases, according to SIPRI’s April 27, 2026 publication on world military expenditure trends. Europe was the main driver, with spending rising 14% to USD 864 billion. According to NATO Secretary General Rutte’s annual report on March 26, 2026, European allies and Canada collectively invested USD 574 billion in defence in 2025 — a 20% real increase from 2024 — while the United States contributed USD 838 billion, bringing total NATO allied defence spend to over USD 1.4 trillion. For the first time, all 32 NATO member states met or exceeded the 2% GDP target. The NATO Hague Summit in June 2025 committed members to a new 5% of GDP target by 2035.

Germany was the largest military spender among European NATO members, with expenditure growing 24% year-on-year to USD 114 billion — exceeding 2% of GDP for the first time since 1990. Spain’s military spending jumped 50% to USD 40.2 billion. The supply base that has historically served civil aerospace is being actively recruited to qualify for defence programs, and that qualification carries quality management requirements that go significantly beyond EN 9100.

1. The Common Foundation and Where It Ends

AQAP 2110 — NATO Allied Quality Assurance Publication 2110, Edition 4 — is the NATO standardization agreement governing quality assurance requirements for design, development, and production in the defence context. Like EN 9100 / AS9100, it is built on ISO 9001. Like EN 9100, it requires documented quality management systems, risk-based thinking, configuration management, and supplier oversight. An organization certified to EN 9100 has a significant head start on AQAP 2110 compliance. But the gap is not in the quality system requirements themselves — it is in the oversight model, the documentation depth, and the consequence structure that applies when findings are identified.

2. Three Structural Differences That Matter

Government Quality Assurance

AQAP 2110 includes provisions for Government Quality Assurance — direct oversight by a national defence quality authority. In the United States: DCMA (Defense Contract Management Agency), which conducts approximately 1.8 million oversight actions per year across the U.S. defence industrial base. In Germany: BAAINBw (Federal Office of Bundeswehr Equipment, Information Technology and In-Service Support). In the United Kingdom: DSTL. In France: DGA.

GQA is not a customer audit. It is regulatory oversight with independent authority and independent consequence. A GQA representative can issue findings that affect contract status, payment authorization, and — in extreme cases — suspension of approval to supply. They operate under their own authority derived from the contract and from NATO STANAG requirements. For organizations that have only experienced commercial customer audits, GQA oversight is a qualitatively different engagement. The records need to be complete, retrievable, and self-explanatory without a quality manager present to provide context — because the GQA representative may arrive without advance notice.

Configuration Management Documentation Depth

Defence programs operate on longer product lifecycles than most civil aerospace programs — 30-50 years is not uncommon for major platform programs. The Eurofighter Typhoon entered service in 2003 and is expected to operate into the 2040s. The configuration management requirements reflect this: the expectation is that the delivered product is traceable to its design baseline with full documentation of every authorized change, and that this traceability can be demonstrated years or decades after delivery.

For suppliers transitioning from civil to defence qualification, the configuration management gap is frequently underestimated. A civil aerospace configuration management system adequate for a 20-year product lifecycle — with OEM support periods that define record retention requirements — may be structurally inadequate for a 40-year defence lifecycle requirement. The differences are not in the principle but in the depth, the retention period, and the format requirements for configuration status accounting records.

Key Characteristics and Critical Safety Items

The identification, control, and traceability of Key Characteristics and Critical Safety Items in AQAP 2110 programs is more explicit and more auditable than the equivalent requirements in EN 9100. KCs must be identified in design documentation, flowed down to production planning, verified through First Article Inspection, controlled through SPC or equivalent process controls in production, and traceable through the product record to the specific serial number of every delivered item.

A GQA auditor reviewing KC controls will ask to see the specific measurement data for each KC on each delivered item — not a summary of process capability, but the individual measurement values that demonstrate the specific parts delivered conform to KC requirements. This requires a product record structure that links KCs to individual serial numbers with specific measurement data. Most EN 9100 quality systems generate process capability summaries. Defence programs require individual part traceability. Bridging that gap requires a deliberate change to the production record structure, not just an update to the quality plan.

3. Export Control Integration

Defence programs involve Export Administration Regulations (EAR) and International Traffic in Arms Regulations (ITAR) in the U.S. context, and equivalent export control frameworks in European member states — BAFA oversight in Germany, DGA export authorization in France, ECJU in the UK. Suppliers qualifying for defence programs need to understand which of their products and technical data are controlled, implement access controls for controlled technical data, and comply with end-use verification requirements when exporting controlled items or technical data.

Quality Magazine’s January 2026 analysis of the IA9100/IATF 16949/CMMC convergence noted explicitly: „Begin updating supplier quality agreements to anticipate cyber and export-control clauses.“ For suppliers pursuing dual civil/defence qualification, export control compliance is a current qualification requirement — not future planning. The integration of export control processes into the QMS is a requirement that GQA auditors will assess against documented procedures, training records, and access control evidence.

3 Concrete Actions

1. Before pursuing AQAP 2110 qualification, conduct a gap analysis specifically against the three areas described above: GQA preparation and record management practices, configuration management depth and retention period against a 30-50 year lifecycle requirement, and KC/CSI traceability to individual delivered serial numbers with specific measurement data. These gaps are not visible in a standard EN 9100 gap analysis because the EN 9100 requirements, while related, do not require the same depth. Use AQAP 2110 Edition 4 as your reference, not your existing EN 9100 gap analysis.

2. Engage your national defence quality authority early in the qualification process. In Germany, BAAINBw provides supplier engagement mechanisms for organizations entering the defence supply base. In the U.S., DCMA has pre-award survey processes. The Atlantic Council’s April 2026 NATO Defence Spending Tracker confirmed that all NATO members are now increasing defence procurement — meaning national defence quality authorities are under growing demand. Engaging early gives you access to guidance and expectations that reading the standard alone cannot provide.

3. Review your export control compliance programme against the requirements for defence suppliers specifically. If your current EAR/ITAR or national equivalent compliance is limited to a classification list maintained by your legal department with no QMS integration, you have a gap that will be identified in the first GQA audit of your document control processes. The standard requirement: documented procedures for controlled technical data access management, training records demonstrating personnel awareness, and access control evidence for controlled information systems. Export control compliance for defence suppliers is a QMS requirement — not only a legal one.

👉 Request a Technical Consultation → www.skqc.org

Sources

• SIPRI — Trends in World Military Expenditure 2025 (April 27, 2026), sipri.org
• SIPRI — Global Military Spending Rise Continues as European and Asian Expenditures Surge (April 27, 2026), sipri.org
• NATO — Secretary General Rutte Annual Report (March 26, 2026): All 32 Members Exceed 2% GDP, nato.int
• Atlantic Council — NATO Defence Spending Tracker (last updated April 9, 2026), atlanticcouncil.org
• CNBC — Europe’s Rearmament Push Drives Global Military Spending (April 27, 2026), cnbc.com
• The Global Statistics — NATO Budget by Country Statistics 2026 (April 13, 2026), theglobalstatistics.com
• Quality Magazine — ISO 9001 in 2026: How AS9100 (IA9100), IATF 16949, NIST and CMMC Fit Together (January 8, 2026), qualitymag.com
• AQAP 2110 — NATO Allied Quality Assurance Publication 2110, Edition 4
• NATO STANAG 4107 — Mutual Acceptance of Government Quality Assurance

#AQAP2110 #EN9100 #DefenceQuality #AerospaceQuality #SupplierQuality #NATO #DCMA #BAAINBw #SIPRI #SKQC

Metal additive manufacturing — laser powder bed fusion, directed energy deposition, binder jetting — is transitioning from aerospace R&D programs into production qualification. The technology is in production. The global additive manufacturing market in aerospace was valued at USD 3.1 billion in 2023 and is projected to reach USD 6.5 billion by 2028, according to MarketsandMarkets. The FAA issued a Special Conditions notice in 2023 specifically addressing LPBF titanium structural components for commercial aircraft. The U.S. Air Force has awarded multiple production contracts for AM components. The quality management framework has not kept pace.

AS9100 Rev D and EN 9100:2018 were developed around conventional manufacturing: machining, forming, casting, joining, composite layup. The process control concepts embedded in those standards map cleanly onto processes where the part is built incrementally through identifiable manufacturing steps and is accessible for measurement at multiple stages. Additive manufacturing produces a part in a single continuous process. The „in-process inspection“ is largely replaced by process parameter monitoring. The final part surface conceals the internal build quality. And the relationship between process parameters and mechanical properties is governed by a process specification that may be proprietary to the machine manufacturer, validated for a specific alloy and machine configuration, and not transferable without revalidation.

1. Where AS9100 and EN 9100 Are Insufficient for AM

Feedstock Powder Qualification

Feedstock qualification in laser powder bed fusion is not equivalent to raw material qualification for conventional processes. The requirements are more stringent and the failure modes are different. Particle size distribution affects powder flowability and packing density in the build chamber, which affects local porosity in the finished part. Morphology — the shape regularity of individual powder particles — affects melting behavior and solidification microstructure. Moisture content affects the protective gas atmosphere and can produce oxide inclusions. Satellite formation — small particles attached to larger ones — affects powder flow and can cause local defects.

None of these characteristics is captured by a standard raw material certificate for an alloy specification. SAE International’s AMS7000-series specifications for LPBF processing — including AMS7003 (Ti-6Al-4V) and AMS7004 (Ti-6Al-4V ELI) — address process-specific powder requirements that go significantly beyond alloy composition certification. A material certificate confirming that the powder meets the chemical composition requirements of AMS 4999 does not confirm that the powder is processable in a specific LPBF machine to produce parts with the required mechanical properties.

AS9100 Section 8.4 requires verification that externally provided processes meet requirements. It does not define what the requirements should be for AM feedstock, because those requirements did not exist in standardized form when AS9100 Rev D was written in 2016. Organizations doing this correctly have developed internal specifications that reference AMS7000-series requirements and include powder lot testing protocols beyond what the standard requires.

Build Parameter Validation and Change Control

The approved process in additive manufacturing is the build parameter set: laser power, scan speed, layer thickness, hatch spacing, atmosphere control, pre-heat temperature, and post-processing specifications (HIP, heat treatment, surface finishing). Changes to any of these parameters are effectively a process change requiring revalidation.

In machining, a change from one cutting insert specification to an equivalent is a minor change validatable through dimensional measurement. In LPBF, a change in laser power by 5% can alter porosity content, grain structure, and fatigue properties in ways that are not visible in dimensional inspection and may not appear in standard tensile testing — but will manifest in fatigue life at operational stress levels. ASTM Committee F42 on Additive Manufacturing Technologies has been developing process and material standards specifically to address this challenge, including ASTM F3001 (Ti-6Al-4V LPBF) and the F42 process qualification framework.

The AS9100 Rev D requirement for process change notification exists. The standard does not define the re-qualification evidence required specifically for AM parameter changes, because that evidence requirement is technology-specific in a way that the general language of the standard cannot capture. IA9100 is expected to strengthen digitalization and data integrity requirements — which will push AM suppliers toward more structured build parameter documentation — but AM-specific change control requirements will remain in supplemental specifications for the foreseeable future.

Non-Destructive Evaluation for Internal Build Quality

Conventional NDT methods — ultrasonic inspection, radiographic testing, eddy current — apply to AM parts with significant limitations. The internal geometry of AM parts — complex internal channels, lattice structures, thin walls — creates inspection access challenges that do not exist in solid machined parts. The anisotropic microstructure produced by directional solidification in LPBF creates signal interpretation challenges for ultrasonic inspection that require technique development specific to the material-process-part geometry combination.

X-ray computed tomography is the most capable inspection method for AM parts, capable of characterizing internal porosity, detecting lack-of-fusion defects, and measuring internal feature dimensions inaccessible to conventional probing. The FAA’s guidance on AM part approval under the Part 21 type certification framework specifically references CT as a validation tool for internal geometry conformance. However, CT inspection is time and cost intensive, and it is not established as a standard production inspection method in most aerospace supply chains. The accept/reject criteria for defect types and sizes, and the relationship between inspection findings and fatigue life, require engineering judgment and material characterization data that most AM suppliers in the mid-market do not yet have at the depth required for flight-critical component production.

2. What the Industry Is Doing to Address the Gap

Three parallel standardization tracks are active:

SAE International has published the AMS7000-series for LPBF processing of specific alloys, providing process-specific material specifications that go beyond alloy composition. ASTM Committee F42 has published more than 40 standards addressing AM materials, processes, and testing, with the F3001 family covering titanium LPBF specifically. The FAA has published guidance material (Issue Paper and Special Conditions) for AM part approval under Part 21 type certification, establishing a regulatory pathway that did not exist five years ago.

These documents are necessary and valuable. They are also newer than the qualification programmes of the AM suppliers currently working in aerospace production, and they do not yet represent a complete, harmonized framework that an AS9100 auditor can audit against with the rigor applicable to conventional manufacturing processes.

3 Concrete Actions

1. If you are qualifying an AM supplier for aerospace production parts: develop an additive manufacturing quality requirements supplement to your standard supplier quality requirements. The supplement must specifically address: feedstock powder qualification requirements referenced to AMS7000-series or equivalent (not just alloy specification compliance), build parameter documentation and change control requirements with re-qualification trigger criteria, post-process traceability (HIP cycle, heat treatment, surface finishing documentation linked to specific build serial numbers), and inspection method requirements with specific accept/reject criteria for defect types. Do not rely on your standard supplier quality agreement — it was not written for AM.

2. For AM suppliers seeking aerospace qualification: invest in developing your own internal AM process specifications before your first qualification audit. The aerospace customer will ask to see your feedstock specification, your build parameter control procedure, and your change management process for parameter modifications. If those documents do not exist, the qualification audit will identify their absence as a major finding. If they exist but reference only the machine manufacturer’s general operating guidelines without process-specific validation data, they will be assessed as inadequate for production qualification of safety-critical parts.

3. For quality managers with existing AM suppliers: verify whether your current supplier qualification was conducted under AM-specific requirements or under your standard supplier quality process. Most early AM qualifications in aerospace were conducted under standard processes because the AM-specific requirements — SAE AMS7000 series, ASTM F42 process standards, FAA AM guidance — had not yet been developed or were not incorporated into supplier qualification criteria. A qualification audit that did not examine feedstock qualification depth, build parameter change control, and AM-specific NDE methodology is incomplete by current standards and warrants a targeted re-audit of those specific areas.

👉 Request a Technical Consultation → www.skqc.org

Sources

• MarketsandMarkets — Additive Manufacturing in Aerospace and Defense Market: USD 3.1B (2023) to USD 6.5B (2028)
• SAE International — AMS7003: Titanium Alloy Powder, Ti-6Al-4V, for Additive Manufacturing
• SAE International — AMS7000 Series: Laser Powder Bed Fusion Process Specifications
• ASTM International — F3001: Standard Specification for Additive Manufacturing Titanium-6 Aluminum-4 Vanadium (Ti-6Al-4V) with Powder Bed Fusion
• ASTM Committee F42 — Standard Specifications and Practices for Additive Manufacturing, astm.org
• FAA — Special Conditions: Laser Powder Bed Fusion Titanium Structural Components (2023)
• FAA Advisory Circular on Additive Manufacturing Part Approval under Part 21 Type Certification
• AS9100 Rev D / EN 9100:2018 — Section 8.4: Control of Externally Provided Processes and Section 8.5: Production and Service Provision

#AdditiveManufacturing #AerospaceQuality #AS9100 #QualityManagement #LPBF #MetalAM #SupplierQuality #SAE #ASTM #SKQC

Safety Management Systems and Quality Management Systems are often discussed in the same sentence — sometimes as if they are two names for the same thing. They are not. The overlap is real. But so is the gap between them, and that gap has been a contributing factor in aviation incidents where the formal quality records showed compliance while the operational reality showed something different.

EASA addressed this distinction in its European Plan for Aviation Safety (EPAS) 2026. The EPAS 2026 document notes explicitly that „competence of personnel is an important enabler for resilience and is therefore assigned an elevated priority ranking within the EPAS strategic priorities.“ The addendum to EPAS Volume I introduced workforce competency as a systemic priority, with the direct statement: „Addressing the shortage of competent aviation personnel is a priority topic for the Member States, and it has been recommended to be addressed as a matter of priority by the MAB.“ The 2024 EASA report on SMS compliance noted that „compliant SMS programs reduce incident rates by 20%.“ Understanding why EASA is framing workforce competency as a safety management issue — not just a training administration issue — requires understanding what each system is actually designed to do.

1. What a Quality Management System Is Designed to Do

A QMS is a process control framework. It defines how work is planned, executed, measured, and improved. It establishes procedures, documentation requirements, nonconformance management processes, and audit processes that verify the system is being followed.

A QMS is retrospective and prescriptive. It describes what the process should be and captures evidence that it was followed. It is optimized for compliance verification — the ability to demonstrate, through documented evidence, that required procedures were executed correctly.

The strength of a QMS is that it creates a structured, verifiable record of process execution. The limitation is that it captures what people documented, which is not always what they did, and documents what procedures required, which is not always what was operationally realistic under the conditions that existed at the time. EN 9100 Section 7.2 addresses competency requirements — but the standard addresses whether a procedure for competency assessment exists, not whether the organizational conditions allow competency gaps to surface and be addressed proactively.

2. What a Safety Management System Is Designed to Do

An SMS is a risk identification and communication framework. EASA defines SMS as seeking „to proactively identify hazards and to mitigate the related safety risks before they result in aviation accidents and incidents.“ It is designed to surface hazards before they become incidents — and critically, it depends on a reporting culture where personnel feel safe to raise concerns without consequence.

ICAO Annex 19 SMS Standards and Recommended Practices have been incorporated into each EASA aviation domain, including Part 145 (Continuing Airworthiness) and Part 21 (Design and Production). The EASA Management System Assessment Tool (MSAT) was developed to guide organizations through implementation and promote a common approach to management system assessment across aviation domains.

The core functional requirement of an SMS is voluntary hazard reporting. This means maintenance technicians, quality inspectors, and production personnel must be willing to identify and report conditions that are unsafe or sub-optimal — even when doing so might reveal errors they made or reflect poorly on their team. That willingness is a behavioral condition, not a procedural one. You cannot create it through a reporting form or a training module. You create it through years of organizational behavior that consistently demonstrates that reporting is safe and that reports lead to meaningful action. A 2023 study referenced by SMS compliance literature found that integrated SMS platforms reduce errors by 15% when they successfully improve data utilization and reporting consistency.

3. Where Confusing the Two Creates Risk

Organizations that treat their QMS as their safety system miss the behavioral dimension entirely. A nonconformance report captures what went wrong after it went wrong. It does not capture the organizational pressure that led someone to make a decision they knew was marginal — to accept a borderline measurement, to skip a verification step under schedule pressure, to install a part they were not completely certain about rather than delay the aircraft and face the operational consequence.

Those decisions happen in the gap between the formal QMS and the actual operational conditions. They are invisible to the QMS because they do not generate a nonconformance record — the part that was installed worked, or the marginal measurement did not produce a field failure in that specific instance. The risk accumulates in the system without appearing in the quality records.

EASA EPAS Volume III identifies „Lack of effectiveness of safety management system (SI-2026)“ as a specific safety issue within its Safety Risk Portfolio. The EPAS framework is explicit: „In most scenarios, these problems are related to human factors, human performance, competence of personnel, socio-economic factors or to deficiencies in organisational processes and procedures.“ A QMS that captures the technical cause of a nonconformance but does not examine the human factors conditions that produced it — fatigue, time pressure, unclear work instructions, inadequate supervision — is producing incomplete root cause analysis by EASA’s own framework.

4. The IA9100 Bridge

IA9100’s human factors root cause analysis requirement — one of the six named areas in the IAQG Key Change Summary — explicitly bridges QMS and SMS thinking. Organizations will be required to assess human factors as part of nonconformance root cause analysis. QT9 Software’s October 2025 analysis of IA9100 confirmed: „Leadership will be tasked with demonstrating commitment to a culture of quality through behavior and resources, including incorporating human factors, such as fatigue, into root cause investigations and providing employee well-being programs that support quality outcomes.“

A corrective action process that asks „what organizational conditions led the operator to make the decision they made?“ is applying SMS methodology to QMS problem-solving. Building that practice before IA9100 requires it produces better corrective actions now and a more mature organizational understanding of the relationship between the two systems ahead of the transition audit.

3 Concrete Actions

1. Audit your SMS reporting data — not just your QMS nonconformance data — for signals about quality-critical process conditions. If your SMS reports contain references to time pressure, uncertainty about procedure interpretation, or workload concerns in quality-critical roles, those reports are telling you something your QMS data is not. The absence of SMS reports in a quality-critical area is itself a signal worth investigating — it may reflect that reporting culture has not reached that area, not that the area is risk-free.

2. Review how your organization responds to SMS reports that describe marginal decisions that did not produce a nonconformance. If the response is „no action required — no nonconformance occurred,“ the organizational message is that reporting near-misses has no operational consequence. That message will reduce future voluntary reporting. The correct response is investigation of the conditions that produced the marginal decision — time pressure, unclear procedure, competency uncertainty — and action on those conditions.

3. For organizations preparing for IA9100 transition: begin incorporating human factors questions into your existing RCA process now. The question „what organizational conditions led the operator to make the decision they made?“ does not require IA9100 to be published before it produces value. It will produce better corrective actions immediately, and it will mean your team is practiced in the methodology before the first IA9100 transition audit expects to see it in your D5 root cause documentation.

👉 Request a Technical Consultation → www.skqc.org

Sources

• EASA — European Plan for Aviation Safety (EPAS) 2026, 15th Edition (December 18, 2025), easa.europa.eu
• EASA — European Plan for Aviation Safety (EPAS) Volume I Addendum: Workforce Competency Priority, easa.europa.eu
• EASA — Safety Management System and Management System: The Integrated Approach, easa.europa.eu
• EASA — EPAS Volume III Safety Risk Portfolios: SI-2026 Lack of Effectiveness of SMS, easa.europa.eu
• ICAO — Safety Management Manual (SMM), Document 9859, 4th Edition
• QT9 Software — IA9100 is Coming: Key Updates for Aerospace and Defense (October 23, 2025), qt9software.com
• IAQG — IA9100 Key Change Summary, iaqg.org
• EN 9100:2018 / AS9100 Rev D — Section 7.2: Competence
• SMS Pro / Aviation Safety Blog — How SMS Pro Facilitates EASA Compliance (September 10, 2025), aviationsafetyblog.asms-pro.com

#AviationSafety #SafetyCulture #QualityManagement #SMS #EASA #EPAS2026 #AerospaceQuality #IA9100 #SKQC

Farnborough International Airshow 2026 runs July 20-24 at Farnborough International Exhibition and Conference Centre in Hampshire, UK. It is the largest edition in the show’s 78-year history. Exhibitor space sold out with a waiting list of more than 50 organisations. Over 1,400 exhibitors from 41 countries will present, and FIA2024 attracted over 100,000 visitors from 114 countries — the 2026 edition is expected to exceed that. Twenty-six international pavilions are already confirmed, including India, Japan, Australia, Mexico, Brazil, and Switzerland.

The order book announcements and flying display will generate the media coverage. For supplier quality professionals, the more relevant signals come from what OEMs and primes are demanding from their supply base — signals that translate into supplier quality agreement requirements, audit scope changes, and qualification criteria in the 6-12 months following the show.

1. The Enterprise Gateway: Supply Chain Resilience as a Headline Theme

FIA2026 introduces The Enterprise Gateway — a three-day programme running July 21-23 alongside the Business Connections Exchange. According to the official Farnborough International announcement, the Gateway provides „practical workshops on procurement, regulation, exports, and funding; keynotes and mentoring from industry leaders and policymakers; live pitching sessions connecting SMEs with investors and primes; and insights aligned with the UK Government’s Plan for Change.“

The focus on SME supplier development is not accidental. It is a direct response to the supply chain failures of 2022-2024, when aerospace production rates at Boeing and Airbus were constrained not by OEM capacity but by supplier capability and raw material availability. The lesson absorbed by the prime contractors: production continuity depends on the quality and stability of their smallest suppliers, not just their largest ones.

For quality managers in the supply base, the FIA2026 supply chain emphasis translates to a specific expectation shift. The question has moved from „do you have an AS9100 certificate?“ to „can you demonstrate that your processes will remain stable through material constraints, workforce changes, and regulatory transitions?“ The Enterprise Gateway is explicitly designed to equip businesses with the tools, connections, and confidence to meet that expectation.

2. The Defence SME Zone: What It Signals About Qualification Pressure

The Defence SME Zone debuts at FIA2026 as a dedicated showcase for high-potential international organisations specialising in defence and security technologies. Designed exclusively for businesses with a turnover under £10 million, the zone — sponsored by FTSE 100 defence company Babcock International — provides SMEs the opportunity to engage directly with the global defence supply chain, connect with primes, investors, media, and government delegations.

Confirmed participants include Cognitive Design by CDS, Elite EMC, Emergent, Infortecorp Solutions, Inspectahire, and Needles And Pins Aerospace. The explicit focus on accelerating „next-generation defence suppliers“ reflects the rearmament reality: European allies and Canada increased defence spending by 20% in 2025 to a combined $574 billion, according to NATO Secretary General Rutte’s March 26, 2026 annual report. All 32 NATO member states met or exceeded the 2% GDP target for the first time. The NATO Summit in The Hague in June 2025 committed members to 5% of GDP by 2035.

The defence spending surge is creating demand for new suppliers in the defence supply base — including civil aerospace suppliers who have not previously operated under AQAP 2110 or DCMA oversight. The qualification requirements for those suppliers are significantly more demanding than civil AS9100 certification. The Defence SME Zone at FIA2026 is where those conversations begin.

3. Pioneers of Tomorrow: The Workforce Signal That Matters Most

FIA2026 concludes on July 24 with Pioneers of Tomorrow — a dedicated STEM day for young people featuring a Careers Fair and a digital Job Board advertising apprenticeships, graduate schemes, and entry-level roles. Organisations confirmed to participate include Babcock International Group, Parker Aerospace, and Belcan.

This is not a marketing exercise. EASA EPAS 2026 identified workforce competency as a systemic safety risk, adding a new section titled „Availability of Competent Aviation Personnel“ to Volume I: „Unless the aviation industry addresses this challenge, the level of aviation safety may degrade in the long term.“ The aerospace auditor shortage documented by Quality Magazine in 2025 — with many experienced auditors retiring and the pipeline of qualified replacements not keeping pace — is one visible manifestation of the broader workforce challenge.

For supplier quality managers, the workforce dimension is not abstract. It is the reason that EASA EPAS 2026’s workforce competency flag matters to their audit programme: the supply base is placing undertrained personnel in quality-critical roles because the qualified workforce is not available at the rate required by industry growth. That reality shows up in process audit findings before it shows up in nonconformance data.

What Farnborough Signals for Supplier Qualification in H2 2026

Farnborough alternates with the Paris Air Show — Paris in odd years, Farnborough in even years — and both function as the global stage where the direction of aerospace commercial relationships is set for the following 18-24 months. The qualification requirements appearing in new supplier agreements from mid-2026 onwards will reflect the priorities being discussed in the chalets and meeting rooms of FIA2026 this July.

Three specific signals worth tracking after the show closes July 24: which OEMs announce new supplier development programmes and what competency gaps they address; what digital documentation requirements appear in new supply agreements discussed at the Airshow Global Forum; and what the Pioneers of Tomorrow programme focus areas signal about where the skills gap is most acute in the quality engineering community.

3 Concrete Actions

1. If you are attending FIA2026 as a supplier: use the Enterprise Gateway programme (July 21-23) to engage with procurement and qualification conversations. The workshops on procurement, regulation, and funding are more directly relevant to building a sustainable supplier qualification position than the exhibition floor. Book early — the programme has limited capacity.

2. For quality managers not attending: review the FIA2026 press releases and programme announcements after the show closes July 24. The supply chain session outputs will contain specific signals about new supplier requirements, digital documentation expectations, and workforce development priorities. These signals typically translate into supplier quality agreement updates within 6-12 months of the show.

3. For organisations preparing for IA9100 transition and defence qualification: the convergence of IA9100 publication (expected late 2026) with the FIA2026 supply chain theme and the NATO rearmament-driven qualification pressure creates a compressing timeline for quality system modernisation. Use the post-Farnborough period — August through October 2026 — to complete your IA9100 gap assessment and your AQAP 2110 readiness review if defence qualification is on your agenda.

👉 Request a Technical Consultation → www.skqc.org

Sources

• Farnborough International — FIA2026 Unveils New Features As Trade Tickets Launch (January 22, 2026), farnboroughairshow.com
• Aero-Mag — Farnborough International Airshow 2026 Unveils New Features (January 22, 2026), aero-mag.com
• ADS Advance — Farnborough International Airshow 2026 Unveils New Features (January 2026), adsadvance.co.uk
• Aerospace Global News — Farnborough International Airshow 2026: Ticket Sales Open (February 6, 2026), aerospaceglobalnews.com
• Defense Advancement — Farnborough International Airshow 2026: 20-24 July (January 2, 2026), defenseadvancement.com
• NATO — Secretary General Mark Rutte Annual Report (March 26, 2026), nato.int
• Atlantic Council — NATO Defence Spending Tracker (last updated April 9, 2026), atlanticcouncil.org
• SIPRI — Trends in World Military Expenditure 2025 (April 27, 2026), sipri.org
• EASA — European Plan for Aviation Safety 2026 (EPAS 2026), Volume I, easa.europa.eu
• Quality Magazine — Aerospace Auditing: How Its Impact Makes It a Smart Career Move (May 2025), qualitymag.com

#Farnborough2026 #AerospaceQuality #SupplierDevelopment #FIA2026 #EnterpriseGateway #QualityManagement #SKQC

The global composite repair market is projected at USD 16.39 billion in 2026 and USD 22.82 billion by 2031, growing at a CAGR of 6.85%, according to Mordor Intelligence’s January 2026 market report. Carbon-fibre Reinforced Polymer commands 54.69% of that market share. The Boeing 787 Dreamliner and Airbus A350 XWB incorporate composite materials for over 50% of their structural weight. Early CFRP structures are reaching their 15-year inspection thresholds, and the MRO industry is executing composite repairs at scale for the first time.

The problem is that most Part 145 quality systems were built for metallic structure maintenance. Aviathrust Aviation News stated clearly in its December 2025 analysis: „Applying metal repair practices to composite structures may be inappropriate and risk the repair outcome.“ The GAO made the same point in its assessment of FAA composite oversight: experts expressed concern that while composite training is available to technicians, they may lack incentives to pursue it. That concern has not gone away in the years since.

The FAA updated Advisory Circular 20-107B in 2024, shortening structural-repair approvals by one-third — releasing deferred maintenance budgets and giving operators a faster route to keep high-value assets in service. More repairs, faster approvals, and an industry workforce built primarily on metallic maintenance experience: that is the quality risk environment for 2026.

1. Why CFRP Repair Is Structurally Different from Metallic Maintenance

Damage Characterization

In metallic structures, damage is visible or measurable with standard NDT methods calibrated for the material. In CFRP, impact damage can delaminate internal plies while leaving the surface essentially intact. The MRO industry standard for initial damage assessment — visual inspection and basic surface scanning — is insufficient for composite primary structure. EASA’s 2025 standards now mandate NDT for all primary-structure composite repairs, closing a gap in the previous regulatory text and raising entry barriers for repair stations that have not invested in the required NDT capability.

For quality managers auditing MRO suppliers, the specific question is whether the NDT equipment is present, calibrated, and operated by technicians qualified to the specific technique and material being inspected. A repair station with composite repair scope on their Part 145 capability list but no calibrated ultrasonic C-scan equipment and no qualified Level II NDT technician for composite inspection is operating a paper capability, not a real one.

Material Shelf Life and Storage Compliance

Prepreg repair materials — the carbon fiber/resin systems used for structural CFRP repairs — have defined out-time limits at room temperature and storage temperature requirements when frozen. Material that has been exposed slightly beyond its out-time limit may appear normal at layup. The consequences appear later: incomplete cross-linking that produces lower-than-specified interlaminar shear strength, or elevated void content detectable only by destructive testing or advanced NDT. A repair executed correctly in all other respects, but using material outside its process window, does not meet the approved repair data.

For Part 145 quality systems, the minimum traceable record for composite repair materials is: lot number, received date, frozen storage records with temperature log, cumulative out-time, and confirmation that out-time was within limits at the time of layup. DAS — a Part 145 structural MRO specialist — has identified material traceability as a primary documentation requirement in structural repair record packages. In practice, these records are often incomplete or reconstructed from memory after the repair rather than documented in real time during the operation.

Cure Cycle Validation and Documentation

Hotbonder cure cycles for composite repairs require thermocouple placement on the repair area, controlled temperature ramp rates, specific dwell temperatures and times, and vacuum bag integrity throughout the cure. The cure cycle chart — the printed or electronic record of temperature versus time — is a mandatory deliverable for composite repairs to primary structure. It is the primary objective evidence that the thermal process was executed within the approved data requirements.

In practice, cure cycle records are missing from a significant proportion of composite repair packages. In some cases the hotbonder data was not downloaded before the equipment was reset for the next job. In other cases the record was generated but not associated with the aircraft maintenance record. Either failure leaves the maintenance organization without the primary objective evidence that the repair conformed to approved data — which means the basis for the release-to-service entry is incomplete.

2. The Audit Question That Is Rarely Asked

When a Part 145 organization is audited for composite repair capability, the typical scope covers certification scope, tooling calibration, and training records. DAS’s structural repair guidance explicitly frames the requirement in terms of documentation and audit-ready records supporting compliant execution — not just procedure existence. The audit questions that reveal actual process compliance:

Show me the damage characterization record — the NDT output that defined the damage extent — for the last composite repair to primary structure your organization executed. Show me the material lot traceability record confirming the prepreg was within out-time limits at layup. Show me the cure cycle chart for that repair. Show me how that cure cycle chart is linked to the aircraft maintenance record.

If any of those records cannot be produced for a recent repair, the audit has identified a systemic documentation gap. The cure cycle either conformed to the approved data or it did not. Without the record, neither the maintenance organization nor the regulator can verify which outcome occurred.

3 Concrete Actions

1. If you are qualifying or re-qualifying a Part 145 MRO supplier that performs composite repairs to primary structure, add material traceability and cure cycle record review to your audit agenda as non-negotiable items. Request records for three recent composite repairs to primary structure. The records should be retrievable within minutes from the repair package file — not reconstructed from memory or assembled from multiple systems.

2. For Part 145 organizations executing composite repairs: review your procedure for cure cycle data download and retention. The most common failure mode is procedural — the process for downloading hotbonder data and associating it with the aircraft record is absent or not consistently followed. A one-page procedure with a specific step for data download and record linking, verified by a supervisor sign-off, addresses the majority of the gap.

3. For airline quality managers reviewing MRO supplier qualification: verify that your supplier’s composite repair scope under their Part 145 approval is supported by actual NDT capability and competency on-site. The 2024 FAA AC 20-107B update and EASA’s 2025 NDT mandate for primary-structure repairs are raising the baseline. A qualification audit that does not verify NDT capability at the technique-and-material level is not assessing the process that matters most.

👉 Request a Technical Consultation → www.skqc.org

Sources

• Mordor Intelligence — Composite Repair Market Size, Growth, Trends and Share Report 2025-2031 (January 2026), mordorintelligence.com
• Aviathrust Aviation News — Building a World-Class Composite Repair Workshop for EASA Part-145 Organizations (December 7, 2025), aviathrust.com
• DAS (Diverse Aero Solutions) — Aircraft Composite Repair Guide for Decision Makers (April 2026), diverseaero.com
• DAS — Structural Repair Traceability in Part 145 Repair Stations, diverseaero.com
• FAA Advisory Circular AC 43-214A — Repairs and Alterations to Composite and Bonded Aircraft Structure
• FAA Advisory Circular AC 20-107B (Updated 2024) — Composite Aircraft Structure
• GAO-11-849 — Aviation Safety: Status of FAA’s Actions to Oversee the Safety of Composite Airplanes
• Fortune Business Insights — Aircraft Component MRO Market Size, Share, Growth to 2034 (2026), fortunebusinessinsights.com
• Stratview Research — Aircraft MRO Market Size and Trend Industry Analysis 2025-2035, stratviewresearch.com

#CompositeRepair #MROQuality #CarbonFiber #CFRP #AviationMaintenance #Part145 #EASA #NDT #SKQC

Late 2026. That is the target publication date for IA9100 — the standard that replaces AS9100 Rev D and becomes the new certification baseline for aviation, space, and defense quality management systems globally. The IAQG confirmed the timeline: IA9100 aligns with ISO 9001:2026, expected September 2026, with a transition window of two to three years placing the compliance deadline between late 2028 and late 2029. Note: BSI Group has indicated that if ISO 9001:2026 is delayed, the new IA 9100 series may not be released until early 2027.

AS9100 Rev D was published in 2016. A decade of aerospace industry evolution — digitalization, geopolitical supply chain disruption, increasing cyber threats to manufacturing systems, and a documented workforce competency crisis — is being incorporated into the revision. The IAQG has published its Key Change Summary, and Quality Magazine described the transition as representing „a strategic modernization to address the realities of 21st-century aerospace challenges.“ That description is accurate in terms of intent. It understates the operational implications of the specific requirements being added.

1. The Rebranding: What „IA“ Means and Why It Matters Operationally

AS9100 was an American designation — AS for Aerospace Standard, a SAE International designation. The same standard was published regionally as EN 9100 in Europe and JISQ 9100 in Japan. The move to IA9100 — International Aerospace — consolidates them under a single global designation. As BSI Group noted in its official guidance: „Previously published standards, including the AS 9100 series, will transition from sector designations of AS, EN, SJAC or JISQ to the new singular IA designation at the time of revision. The aim is to significantly improve the efficiency of change control and translation.“

For European organizations currently certified to EN 9100:2018, the practical implication is that the transition audit to IA9100 will be conducted against a unified global standard with unified audit scheme requirements (IA9101) and unified auditor competency requirements. The current five certificate structures will be simplified to two — Single Site and Multiple Site — to drive simplicity and consistency in approach, according to BSI Group’s published guidance on the IAQG standards changes.

2. Four Substantive Changes That Require New Processes — Not Just Documents

Cybersecurity Integration into the QMS

Paradygm’s detailed clause analysis of IA9100 identified the specific addition at Clause 8.1: information security and data protection added as a new NOTE requirement, making cybersecurity risk assessment integration into the quality risk management process mandatory rather than advisory. Quality Magazine’s January 2026 analysis of the convergence between IA9100, IATF 16949:2027, and CMMC requirements was explicit: „Begin updating supplier quality agreements to anticipate cyber and export-control clauses“ and „Plan for two transition audits instead of one.“

Cavendish Scott’s analysis noted that under IA9100, „aerospace organizations aren’t just required to validate processes — they’re expected to predict and control outcomes,“ specifically in the context of digital systems and cybersecurity. The IAQG’s own Key Change Summary confirms: „Information security (e.g., cyber) and data protection“ as one of the six named areas being elevated in the revision.

The audit evidence that will be expected is not a policy document. It is governance structures, evidence of threat assessment covering ERP systems, CAD and quality data storage, remote access infrastructure, production monitoring systems, access control implementation, and incident response procedures linked to quality records.

Human Factors in Nonconformance Root Cause Analysis

Quality Magazine’s June 2025 deep-dive on IA9100 was specific: „The most personally transformative element of the upcoming revisions is arguably the formalization of quality culture and human factors within the QMS framework. Expectations will include: Clear leadership commitment to quality as a corporate value, demonstrated through behavior and resources — incorporating human factors, such as fatigue, into root cause investigations and providing employee well-being programs that support quality outcomes.“

QT9 Software’s interview with AS9100 consultant Mike Varney confirmed the direction: „Leadership will be tasked with demonstrating commitment to a culture of quality through behavior and resources, including incorporating human factors, such as fatigue, into root cause investigations.“ This is not a minor documentation change. A corrective action process that does not examine organizational conditions — time pressure, shift fatigue, work instruction ambiguity — will produce incomplete D5 root cause entries that an IA9100 auditor will challenge.

APQP Integration as a Required QMS Methodology

Cavendish Scott’s analysis was direct on this point: „In IA9100:2026, Advanced Product Quality Planning (APQP) and Production Part Approval Process (PPAP) aren’t optional. They’re officially required tools, supported by IA9145 guidance.“ Paradygm’s clause-level analysis confirmed that Clause 8.1 now includes APQP as „one method for operational planning and control“ in the revised note structure — with Annex B providing the IA9145 linkage.

Quality Magazine noted: „Customers — particularly primes like Boeing, Airbus, and Lockheed Martin — are increasingly demanding APQP evidence during contract award and oversight activities.“ Assent Risk Management observed that „IA9100 more explicitly incorporates APQP principles, aligning the standard with AS9145 and improving launch discipline.“ For aerospace-only suppliers who have never systematically applied APQP, this is a process design requirement, not a documentation update.

Sub-Tier Supplier Controls

The IAQG Key Change Summary identifies „sub-tier supplier controls“ as one of six named areas of expansion. Cavendish Scott described the counterfeit parts prevention enhancement as aligned with „SAE AS5553 for counterfeit electronic parts and AS6174 for counterfeit mechanical parts.“ Quality Magazine noted that IA9100 „enhances measures“ addressing the proliferation of counterfeit parts as a safety, legal, and reputational risk. Organizations whose supplier quality programme focuses primarily on Tier-1 suppliers with limited visibility into Tier-2 and Tier-3 will need to extend their oversight model structurally.

3. The OASIS Transition Dimension

In parallel with the IA9100 content changes, the IAQG launched OASIS Insights in April 2025 — the first certification ecosystem globally to apply AI at scale to analyze audit findings data worldwide, according to Intact Systems. Starting April 1, 2025, certified suppliers automatically receive an OASIS Insights report following completion and publication of initial, recertification, or surveillance audits. Eric Jefferies, President of IAQG, stated: „OASIS Insights will transform how organizations showcase the value of audits and identify areas for improvement, ultimately driving continuous improvement in the aerospace industry.“

IAQG also introduced a dual-track approach for standards revision — incremental revisions between major revisions, potentially including quarterly or biannual updates for small changes — representing a significant shift from the traditional five-year update cycle. Organizations should anticipate that IA9100 is not a final state but the beginning of a more agile standards maintenance regime.

3 Concrete Actions

1. Conduct a gap analysis against the IAQG’s published Key Change Summary (available at iaqg.org) now — before the final IA9100 text publishes. The six named areas — product safety, information security, quality culture and ethics, APQP linkage, counterfeit parts, sub-tier supplier controls — are confirmed. The gap analysis conducted against coordination draft materials will be accurate enough to define preparation priorities. Organizations that wait for the final text to begin gap analysis will be starting 18 months behind competitors who started in 2025.

2. Review your certification body relationship and confirm their transition roadmap. BSI Group has published guidance noting that the 9104 series standards have already been through writing and approval, are being translated into seven languages, and will be ready in late 2025 with official training material and a published timeline for transition expected towards the end of 2026. Your certification body should have an equivalent roadmap. If they cannot articulate it, that is information worth acting on before your next recertification cycle.

3. Begin your cybersecurity assessment now — not when IA9100 publishes. The assessment needs to cover ERP systems, CAD and quality data storage, remote access infrastructure, and production monitoring systems. It needs to produce documented findings and a remediation plan with implementation evidence. A policy document referencing ISO 27001 without evidence of implementation will not satisfy the IA9100 auditor at Clause 8.1.

👉 Request a Technical Consultation → www.skqc.org

Sources

• IAQG — IA9100 Key Change Summary, iaqg.org/wp-content/uploads/2019/10/IA9100-Key-Changes-Clause-View.pdf
• IAQG — IA9100 Key Changes System View, iaqg.org/wp-content/uploads/2019/10/IA9100-Key-Changes-System-View.pdf
• Quality Magazine — A Deeper Dive into Aero Quality: Upcoming IA9100 Series Standards Updates (June 16, 2025), qualitymag.com
• Quality Magazine — ISO 9001 in 2026: How AS9100 (IA9100), IATF 16949, NIST and CMMC Fit Together (January 8, 2026), qualitymag.com
• Quality Magazine — Driving Change in Aerospace Quality Management (May 2026), qualitymag.com
• QT9 Software — IA9100 is Coming: Key Updates for Aerospace and Defense (October 23, 2025), qt9software.com
• Cavendish Scott — IA9100 is Coming: What the 2026 Updates Mean for Aerospace Quality (October 15, 2025), cavendishscott.com
• BSI Group — Embracing Changes to IAQG Aerospace Standards, bsigroup.com
• Paradygm — Latest Changes to the AS9100D Standard (Clause-Level IA9100 Analysis), paradygm.co
• Assent Risk Management — AS9100 Is Becoming IA9100: What Aerospace Businesses Need to Know in 2026 (March 17, 2026), assentriskmanagement.co.uk
• Intact Systems — IAQG Unveils OASIS Insights (March 31, 2025), intact-systems.com
• My ISO Consultants — Updated Schedule and Upcoming Changes in IA9100 and ISO 9001 (March 1, 2025), myisoconsultants.com

#EN9100 #IA9100 #AS9100 #AerospaceQuality #QualityManagement #SupplierAudit #ISO9001 #IAQG #APQP #SKQC