FreedomDev
TeamAssessmentThe Systems Edge616-737-6350
FreedomDev Logo

Your Dedicated Dev Partner. Zero Hiring Risk. No Agency Contracts.

201 W Washington Ave, Ste. 210

Zeeland MI

616-737-6350

[email protected]

FacebookLinkedIn

Company

  • About Us
  • Culture
  • Our Team
  • Careers
  • Portfolio
  • Technologies
  • Contact

Core Services

  • All Services
  • Custom Software Development
  • Systems Integration
  • SQL Consulting
  • Database Services
  • Software Migrations
  • Performance Optimization

Specialized

  • QuickBooks Integration
  • ERP Development
  • Mobile App Development
  • Business Intelligence / Power BI
  • Business Consulting
  • AI Chatbots

Resources

  • Assessment
  • Blog
  • Resources
  • Testimonials
  • FAQ
  • The Systems Edge ↗

Solutions

  • Data Migration
  • Legacy Modernization
  • API Integration
  • Cloud Migration
  • Workflow Automation
  • Inventory Management
  • CRM Integration
  • Customer Portals
  • Reporting Dashboards
  • View All Solutions

Industries

  • Manufacturing
  • Automotive Manufacturing
  • Food Manufacturing
  • Healthcare
  • Logistics & Distribution
  • Construction
  • Financial Services
  • Retail & E-Commerce
  • View All Industries

Technologies

  • React
  • Node.js
  • .NET / C#
  • TypeScript
  • Python
  • SQL Server
  • PostgreSQL
  • Power BI
  • View All Technologies

Case Studies

  • Innotec ERP Migration
  • Great Lakes Fleet
  • Lakeshore QuickBooks
  • West MI Warehouse
  • View All Case Studies

Locations

  • Michigan
  • Ohio
  • Indiana
  • Illinois
  • View All Locations

Affiliations

  • FreedomDev is an InnoGroup Company
  • Located in the historic Colonial Clock Building
  • Proudly serving Innotec Corp. globally

Certifications

Proud member of the Michigan West Coast Chamber of Commerce

Gov. Contractor Codes

NAICS: 541511 (Custom Computer Programming)CAGE CODE: oYVQ9UEI: QS1AEB2PGF73
Download Capabilities Statement

© 2026 FreedomDev Sensible Software. All rights reserved.

HTML SitemapPrivacy & Cookies PolicyPortal
  1. Home
  2. /
  3. Solutions
  4. /
  5. AS9100 Quality Management Software for Aerospace Manufacturers
Solution

AS9100 Quality Management Software for Aerospace Manufacturers

Custom AS9100 Rev D quality management systems for aerospace manufacturers, MRO shops, and defense contractors. First article inspection per AS9102, counterfeit parts prevention programs, configuration management, risk-based thinking, OASIS database integration, and Nadcap special process compliance — built by a Zeeland, MI company with 20+ years delivering regulated manufacturing software.

FD
AS9100D Full Clause Coverage
AS9102 FAI Automation
Nadcap Process Integration
Zeeland, MI

Why Paper-Based and Generic QMS Platforms Fail Aerospace Quality Audits

AS9100 Rev D is not ISO 9001 with an aerospace label. It is ISO 9001:2015 plus 115 additional requirements that address the specific failure modes of the aerospace supply chain — counterfeit parts entering the supply chain and reaching flight-critical assemblies, configuration drift between engineering definition and production reality, inadequate risk management for product safety implications, and special process controls for operations where the output cannot be verified by subsequent inspection or testing. Every clause that AS9100D adds to the ISO 9001 foundation exists because of documented accidents, recalls, or systemic failures in the aerospace industry. Clause 8.1.4 on counterfeit part prevention exists because the Senate Armed Services Committee found over one million suspected counterfeit electronic parts in the defense supply chain in a 2012 investigation. Clause 8.1.1 on operational risk management exists because inadequate risk-based thinking in manufacturing processes contributed to quality escapes that reached flight hardware. These are not paperwork requirements — they are engineering controls codified as quality system mandates.

Aerospace manufacturers trying to run AS9100D compliance on generic quality management platforms — or worse, on paper travelers, Excel logs, and shared drive folders — face three compounding problems. First, traceability gaps. AS9100D clause 8.5.2 requires identification and traceability throughout the product realization process. For aerospace, this means full lot traceability from raw material certification through every manufacturing operation, heat treatment, surface finishing, NDT inspection, and final acceptance test to the specific serial-numbered assembly installed on a specific aircraft. When a registrar auditor asks you to trace a fastener lot backward from an installed assembly to the raw material heat lot, mill certification, and incoming inspection results, you need to produce that chain in minutes — not days of searching through filing cabinets and disconnected spreadsheets. Generic QMS platforms provide document storage, not manufacturing traceability. The difference is the difference between passing and failing a surveillance audit.

Second, first article inspection bottlenecks. AS9102 defines the First Article Inspection (FAI) process that aerospace customers require before accepting production parts. A complete FAI package includes three forms: Form 1 (Part Number Accountability), Form 2 (Product Accountability — raw material, special processes, functional testing), and Form 3 (Characteristic Accountability — every dimension, tolerance, and specification requirement with actual measured values). For a moderately complex machined aerospace component with 150 characteristics, preparing Form 3 manually takes 4-8 hours per part number. A shop running 20-30 new part numbers per month burns 80-240 hours monthly on FAI documentation alone — the equivalent of one to one-and-a-half full-time quality engineers doing nothing but filling out inspection forms. When a customer rejects an FAI package for missing characteristics, incomplete material traceability, or Form 2 deficiencies on special process certifications, the rework cycle adds another 2-4 hours per rejection. Automated FAI generation from CMM output, material certs, and process records cuts Form 3 preparation from hours to minutes and eliminates the transcription errors that cause rejections.

Third, surveillance audit findings that escalate to major nonconformances. The International Aerospace Quality Group (IAQG) publishes audit findings data through OASIS (Online Aerospace Supplier Information System), and the top five finding categories have remained consistent for years: control of documented information (clause 7.5), control of nonconforming outputs (clause 8.7), internal audit (clause 9.2), management review (clause 9.3), and corrective action (clause 10.2). These are not obscure requirements — they are fundamental quality system processes that fail because the systems managing them are inadequate. When your corrective action process runs on email chains and Word documents, you cannot enforce investigation timelines, you cannot verify effectiveness at 30-60-90 day intervals, and you cannot demonstrate trending analysis to registrar auditors. When your document control runs on shared drives with manual revision tracking, you cannot prove that obsolete documents have been removed from points of use — one of the most common major nonconformances in AS9100D audits. These findings do not just risk certification — they get published in OASIS, where every prime contractor and Tier 1 customer can see them when evaluating your supplier scorecard.

AS9102 First Article Inspection packages taking 4-8 hours per part number — 80-240 hours monthly for active shops

Lot traceability gaps that cannot survive a registrar's backward trace from installed assembly to raw material heat lot

Top OASIS audit findings recurring year after year: document control, nonconforming outputs, corrective action effectiveness

Configuration management disconnects between engineering revision levels and production shop floor documentation

Counterfeit parts prevention programs that exist in SOPs but have no systematic receiving inspection enforcement

Nadcap special process records maintained on paper logs that PRI auditors reject as insufficient objective evidence

Need Help Implementing This Solution?

Our engineers have built this exact solution for other businesses. Let's discuss your requirements.

  • Proven implementation methodology
  • Experienced team — no learning on your dime
  • Clear timeline and transparent pricing

AS9100D Quality System ROI: Audit Performance, FAI Throughput, and Customer Scorecards

85-95%
Reduction in FAI preparation time (hours to minutes per part number)
Zero
Major nonconformances at surveillance audit post-implementation
100%
Lot traceability from installed assembly to raw material heat lot
< 5 min
Backward traceability queries that previously took hours of file searching
40-60%
Reduction in corrective action cycle time with enforced 8D timelines
Real-time
Nadcap special process parameter capture replacing manual log entries

Facing this exact problem?

We can map out a transition plan tailored to your workflows.

The Transformation

AS9100 Rev D Quality Management Software: Every Clause, Every Audit, Every Customer Requirement

FreedomDev builds custom AS9100D quality management systems that encode the standard's aerospace-specific requirements directly into your operational workflows. This is not a generic QMS with an AS9100 template pack bolted on. Every module is designed around the specific clauses, the specific IAQG interpretations, and the specific customer quality requirements (Boeing D6-82479, Lockheed Martin LMSupply, RTX supplier quality manual, L3Harris QAR series, Northrop Grumman quality clauses) that your registrar auditors and customer quality representatives actually assess. When a machinist completes an operation on a routed traveler, the system captures the operator ID, machine ID, tooling ID, date/time stamp, and operation results against the control plan requirements — building the traceability record that clause 8.5.2 demands as a byproduct of normal production flow rather than a separate documentation exercise.

The system handles the full scope of AS9100D quality processes across your operation. Document control per clause 7.5 with automated revision workflows, electronic approval routing, mandatory training acknowledgment before document effectivity, and automatic removal of obsolete revisions from all points of use — both digital and linked to shop floor workstation displays. Nonconformance management per clause 8.7 with Material Review Board (MRB) disposition workflows (use-as-is, rework, repair, scrap, return to supplier), customer notification triggers when nonconforming product has been delivered, and integration with your customer portals for supplier corrective action requests (SCAR). Corrective action per clause 10.2 using 8D methodology with enforced timelines, root cause verification requirements, effectiveness checks at configurable intervals, and automated escalation when timelines are exceeded. Risk management per clause 8.1.1 with risk registers that link operational risks to product safety implications, PFMEA integration, and risk mitigation tracking with residual risk assessment. Configuration management per clause 8.1.2 linking engineering change orders to affected production orders, work instructions, inspection plans, and tooling records so that a revision change propagates through the entire production system without manual intervention.

For shops pursuing or maintaining Nadcap accreditation for special processes — heat treating per AMS 2750 and AMS 2759, chemical processing per AMS 2700, nondestructive testing per NAS 410 and ASNT SNT-TC-1A, welding per AWS D17.1, composite processing, and surface enhancement — the system provides real-time process parameter monitoring and recording that satisfies PRI (Performance Review Institute) audit requirements. Nadcap auditors require objective evidence that process parameters (temperature, time, pressure, chemical concentration, current density) were controlled within specification limits throughout the process cycle. Paper-based pyrometry charts and manual log entries are increasingly rejected as insufficient evidence because they cannot demonstrate continuous monitoring, they are susceptible to after-the-fact fabrication, and they do not capture parameter excursions that occurred between manual recording intervals. Our system integrates directly with furnace controllers, thermocouples, chemical analysis equipment, and NDT instruments to capture process data at configurable intervals (typically 1-6 second sampling rates), timestamps every data point from a validated time source, and generates the process records that PRI auditors evaluate during Nadcap merit audits.

First Article Inspection (FAI) per AS9102

Automated generation of AS9102 Forms 1, 2, and 3 from your existing production data. Form 1 (Part Number Accountability) populates from your ERP bill of materials and engineering drawing revision. Form 2 (Product Accountability) pulls raw material certifications from incoming inspection records, special process certifications from your approved processor list, functional test results from test equipment integration, and design requirements from engineering specifications. Form 3 (Characteristic Accountability) imports measured values directly from CMM (Coordinate Measuring Machine) output, optical comparator data, and manual gauge readings via tablet entry — eliminating transcription errors that cause customer rejections. The system tracks FAI status by part number, flags when engineering changes trigger partial or full FAI re-execution per AS9102 clause 5.2, and generates the complete FAI package in customer-required formats (PDF, Net-Inspect, Discus compatible). Shops using this system reduce FAI preparation time from 4-8 hours to 15-30 minutes per part number.

Counterfeit Parts Prevention (Clause 8.1.4)

AS9100D clause 8.1.4 requires organizations to establish processes for counterfeit part prevention as part of planning for product realization. Our system implements the SAE AS6174 (counterfeit materiel risk mitigation) and AS6081 (fraudulent/counterfeit electronic parts avoidance) requirements as operational controls. Approved supplier lists are maintained with OCM (Original Component Manufacturer) and authorized distributor verification. Receiving inspection protocols enforce documentation requirements: traceability to the OCM, certificate of conformance validation, packaging integrity checks, and risk-based physical inspection or testing for parts sourced from non-authorized channels. The system integrates with GIDEP (Government-Industry Data Exchange Program) alerts and customer-issued counterfeit part notifications, automatically flagging affected inventory and quarantining suspect lots pending investigation. For electronic components — the highest-risk category for counterfeit infiltration — the system supports SAE AS6171 test laboratory result tracking and lot acceptance criteria per customer flow-down requirements.

Configuration Management (Clause 8.1.2)

Aerospace configuration management requires that the as-designed, as-planned, as-built, and as-maintained states of a product remain consistent throughout its lifecycle. Our system links engineering change orders (ECOs) to every downstream artifact: work instructions, inspection plans, NC programs, tooling records, and active production orders. When engineering releases a revision change, the system identifies all affected production orders in-process, all work instructions referencing the changed drawing, all inspection plans that require updated characteristic dimensions or tolerances, and all tooling that may require modification. Change implementation tracking ensures that no production order runs against a superseded revision, no inspection plan checks obsolete dimensions, and no work instruction references withdrawn engineering data. For customers requiring formal configuration audits (Functional Configuration Audit and Physical Configuration Audit per AS9100D clause 8.1.2), the system generates the as-built records with full traceability to the authorized engineering configuration.

Nonconformance & MRB Disposition (Clause 8.7)

Nonconforming product disposition in aerospace is not a simple accept/reject decision. AS9100D clause 8.7 requires documented authority for disposition decisions, customer notification when nonconforming product has been shipped, and specific controls for use-as-is and repair dispositions that differ from the original design requirements. Our system routes nonconformance reports through configurable MRB (Material Review Board) workflows: engineering evaluates the nonconformance against design intent, quality assesses product safety implications per clause 8.1.1, and authorized MRB members render disposition decisions (use-as-is, rework, repair, scrap, return to supplier). Use-as-is and repair dispositions require engineering justification, customer concession where contractually required, and updated traceability records that permanently associate the nonconformance with the serialized part. The system tracks nonconformance trends by type, operation, part number, operator, and supplier — providing the data required for clause 10.2 corrective action and clause 9.1 performance evaluation.

Supplier Quality Management (Clause 8.4)

AS9100D clause 8.4 requires significantly more supplier control than ISO 9001, including flow-down of applicable requirements (customer requirements, regulatory requirements, key characteristics), supplier monitoring and performance measurement, and controls based on supplier risk. Our system maintains the approved supplier list with qualification status, approved scope (what they are approved to supply), quality system certification records (AS9100D, AS9120, Nadcap), and customer-mandated approved processor lists. Incoming inspection protocols are configured by supplier risk level — new suppliers and suppliers with quality history issues get heightened inspection frequencies. Supplier scorecards track on-time delivery, quality reject rate, corrective action responsiveness, and documentation completeness. When a supplier's score drops below configurable thresholds, the system triggers re-evaluation workflows, increased inspection sampling, or supplier development actions. Purchase order flow-down automatically includes the applicable quality clauses, special process requirements, test and inspection requirements, and right-of-access provisions that your customers require you to impose on your supply chain.

Nadcap Special Process Compliance

Nadcap (National Aerospace and Defense Contractors Accreditation Program) accreditation for special processes requires objective evidence of real-time process parameter control — not after-the-fact documentation. Our system integrates directly with process equipment to capture the parameters PRI auditors evaluate: furnace temperature profiles per AMS 2750 (System Accuracy Tests, Temperature Uniformity Surveys, and process thermocouple data at 1-6 second intervals), chemical processing tank concentrations per process specification requirements, NDT equipment calibration verification and inspection parameter settings, and welding parameters (current, voltage, travel speed, gas flow) per WPS requirements. Data flows from equipment controllers through secure data acquisition hardware into the quality system, where it is timestamped from a validated NTP source, associated with the specific production lot being processed, and stored with the same immutability guarantees as any quality record. When a parameter excursion occurs during a process cycle, the system captures the excursion data, automatically generates a nonconformance record, and quarantines the affected lot pending engineering disposition — all before the operator can modify the record.

Want a Custom Implementation Plan?

We'll map your requirements to a concrete plan with phases, milestones, and a realistic budget.

  • Detailed scope document you can share with stakeholders
  • Phased approach — start small, scale as you see results
  • No surprises — fixed-price or transparent hourly
“
Our AS9100D surveillance audits used to require two weeks of preparation — pulling traveler packages, compiling FAI records, tracking down corrective action evidence across email threads and shared drives. After FreedomDev built our quality system, our last surveillance audit had zero findings. The registrar auditor said our traceability system was the most thorough he had seen at a shop our size. Our Boeing scorecard went from yellow to green within six months.
Quality Director—Aerospace Precision Machining Company, West Michigan

Our Process

01

AS9100D Gap Assessment & Requirements Mapping (2-3 Weeks)

We audit your current quality management system against every AS9100D clause, identifying gaps between your documented procedures and what the standard actually requires. This is not a generic readiness checklist — we review your specific operations, your specific customer requirements (Boeing, Lockheed Martin, RTX, L3Harris, Northrop Grumman quality clauses), and your specific registrar's interpretation patterns based on recent OASIS findings data for your CB (Certification Body). We map every clause to a system function: which requirements will be enforced by software workflow, which will be supported by document control, and which will be monitored by automated data collection. For shops with Nadcap accreditation or pursuing accreditation, we assess your special process documentation against current PRI checklist requirements. Deliverable: a clause-by-clause requirements matrix with system specifications, priority ranking by audit risk, and a customer-specific requirements crosswalk.

02

Quality Workflow Design & Data Model Architecture (2-3 Weeks)

We design every quality workflow as a state machine with defined transitions, authorization requirements, and evidence capture points. Nonconformance flows from detection through containment, investigation, disposition (with MRB routing), corrective action, and closure with effectiveness verification. Corrective actions flow through 8D methodology steps with enforced timelines and mandatory evidence requirements at each gate. Document control flows through draft, review, approval, training acknowledgment, effectivity, and retirement with automatic version archiving. FAI workflows flow from requirement identification through characteristic planning, measurement execution, form generation, and customer submission. Each workflow is designed to produce the specific records and evidence that registrar auditors and customer quality representatives request during assessments. The data model links every quality event to production data — lot numbers, serial numbers, work orders, operators, machines, and materials — so that traceability queries that auditors run during surveillance visits resolve instantly.

03

System Development with Progressive Validation (6-10 Weeks)

We build the AS9100D quality system in modules, starting with the highest-audit-risk functions identified in the gap assessment. Document control and corrective action typically deploy first because they address the two most common major nonconformance categories in OASIS data. Development follows iterative cycles with your quality team reviewing each module against the requirements matrix before we proceed. Integration with your ERP, MES, and production equipment happens incrementally — CMM data import for FAI, furnace controller integration for Nadcap compliance, receiving inspection integration for supplier quality. Each integration point is validated for data integrity: we verify that measurements, temperatures, certifications, and traceability records transfer accurately and completely from source systems into the quality system.

04

Parallel Run & Registrar Preparation (2-3 Weeks)

The new quality system runs alongside your existing processes for a validation period. Quality engineers process real nonconformances, real CAPAs, real FAI packages, and real document changes through both the new system and the existing process, verifying that outputs match and that the new system captures everything the old process captured plus the additional traceability, timestamps, and workflow enforcement that the old process lacked. We conduct internal audits using the system's audit management module — scheduling audits per clause 9.2, generating audit checklists mapped to AS9100D clauses, recording findings, and tracking corrective actions to closure. This serves double duty: it validates the audit management module and produces the internal audit records your registrar will want to see at the next surveillance visit.

05

Go-Live, Training & Ongoing Support (Ongoing)

Phased deployment rolls out modules to production floor users, quality engineers, MRB members, and management review participants with role-specific training. Shop floor operators learn traveler execution and nonconformance reporting on tablets at their workstations. Quality engineers learn FAI generation, corrective action management, and supplier quality workflows. Management learns review dashboards showing quality KPIs (nonconformance rates, CAPA closure rates, on-time delivery, customer scorecards, OASIS findings status). Ongoing support includes system maintenance, registrar audit preparation assistance, and configuration updates when AS9100 standard revisions are published, when customer quality requirements change, or when you add new Nadcap-accredited special processes. Monthly maintenance runs $2,000-$4,000 depending on system scope and integration complexity.

Before vs After

MetricWith FreedomDevWithout
AS9100D SpecificityEvery clause mapped to enforced workflows, not configurable templatesGeneric ISO 9001 QMS with aerospace checklist add-on you configure yourself
FAI Automation (AS9102)Forms 1, 2, 3 auto-generated from CMM, certs, and ERP data — 15-30 min per partManual form fill from paper travelers and disconnected spreadsheets — 4-8 hours per part
Nadcap Process DataDirect equipment integration at 1-6 second sampling with validated timestampsManual pyrometry chart review and hand-entered log books
Implementation Cost$100K-$300K complete system, you own the code$150K-$500K+ for ETQ, MasterControl, or Qualio licenses + implementation + annual fees
Annual Cost (Year 2+)$24K-$48K maintenance and support$60K-$200K+ annual licensing (per-user, per-module pricing)
Customer Portal IntegrationDirect integration with Boeing, Lockheed, RTX, L3Harris quality portalsManual export and re-entry into each customer portal
Traceability DepthRaw material heat lot through every operation to serialized final assemblyDocument-level traceability only — production operation linking requires manual lookup
OASIS Findings TrackingFindings imported, corrective actions tracked, evidence packages generated for CBOASIS accessed separately; no integration with internal quality system

Ready to Solve This?

Schedule a direct technical consultation with our senior architects.

Explore More

Compliance ManagementCustom Software DevelopmentDatabase ServicesAerospace DefenseManufacturing

Frequently Asked Questions

What is AS9100 Rev D and how does it differ from ISO 9001:2015?
AS9100 Rev D (formally AS9100D) is the aerospace quality management standard published by SAE International and maintained by the International Aerospace Quality Group (IAQG). It incorporates the complete text of ISO 9001:2015 and adds 115 additional requirements specific to the aerospace, space, and defense industries. The most significant additions address areas where generic ISO 9001 quality management proved insufficient for the risk profile of aerospace products. Clause 8.1.1 adds operational risk management requiring organizations to plan and manage risk throughout product realization — not just at the quality system level. Clause 8.1.2 adds configuration management requirements that link engineering definition to production reality across the product lifecycle. Clause 8.1.3 adds product safety requirements with formal processes for managing safety-critical items. Clause 8.1.4 adds counterfeit parts prevention — a requirement driven by documented cases of counterfeit electronic components reaching flight-critical assemblies. Clause 8.4 (control of externally provided processes, products, and services) is significantly expanded to require flow-down of applicable requirements, on-time delivery monitoring, and controls based on supplier and product risk. Clause 8.5.2 expands identification and traceability to require lot and serial number traceability throughout the supply chain. Clause 8.7 adds requirements for nonconforming product controls including customer notification and concession processes unique to aerospace. First article inspection per AS9102 is required under clause 8.5.1.1. These are not optional guidelines — they are auditable requirements assessed by accredited Certification Bodies during initial certification and surveillance audits, with results published in the OASIS database visible to every aerospace customer worldwide.
How much does custom AS9100D quality management software cost?
Custom AS9100D quality management software costs $100,000 to $300,000 depending on scope, integration complexity, and whether Nadcap special process monitoring is included. A core AS9100D system covering document control, nonconformance and MRB disposition, corrective action (8D), supplier quality management, and internal audit management typically falls in the $100,000-$150,000 range. Adding AS9102 FAI automation with CMM data import, automated Forms 1/2/3 generation, and customer portal integration adds $30,000-$60,000. Nadcap special process parameter monitoring with direct equipment integration (furnace controllers, chemical analysis instruments, NDT equipment) adds $40,000-$80,000 depending on the number of process types and equipment interfaces. Full configuration management with ECO workflow, production order impact analysis, and as-built record generation adds $25,000-$50,000. Compare this to commercial aerospace QMS platforms: ETQ Reliance runs $75,000-$200,000 in annual licensing for mid-size manufacturers with per-user and per-module pricing. MasterControl charges $50,000-$150,000 annually with similar per-seat models. Qualio targets smaller companies at $20,000-$80,000 annually but lacks deep aerospace-specific functionality for FAI, Nadcap, and configuration management. Over a 5-year horizon, custom development at $150,000-$250,000 total with $24,000-$48,000 annual maintenance costs $270,000-$490,000. A commercial QMS at $75,000-$200,000 annually costs $375,000-$1,000,000 over the same period — and you never own the software, you are bound by the vendor's release schedule for AS9100-specific features, and customization to your specific customer requirements (Boeing, Lockheed Martin, RTX quality clauses) requires expensive professional services or is simply not available.
What is OASIS and why does it matter for our quality system?
OASIS (Online Aerospace Supplier Information System) is the IAQG's global database that stores AS9100-series certification data, audit results, and nonconformance findings for every certified aerospace supplier worldwide. When a Certification Body (CB) conducts your AS9100D surveillance or recertification audit, the audit results — including every nonconformance finding, its clause reference, and its severity (major or minor) — are uploaded to OASIS. Your customers can see these results. When Boeing, Lockheed Martin, RTX, L3Harris, Northrop Grumman, or any prime contractor evaluates you as a potential supplier or reviews your existing supplier scorecard, they check OASIS. Multiple major nonconformances, recurring findings in the same clause area, or a conditional certification status in OASIS directly affects your ability to win new contracts and retain existing ones. Some primes have automated supplier risk algorithms that flag suppliers with adverse OASIS data for enhanced surveillance or new business restrictions. This is why your quality management system must directly address the most common OASIS finding categories. IAQG publishes aggregate findings data annually, and the top categories are consistently: documented information control (clause 7.5), nonconforming outputs (clause 8.7), internal audit (clause 9.2), management review (clause 9.3), and corrective action (clause 10.2). A quality system that enforces workflows, tracks timelines, and provides audit-ready evidence for these specific clause areas directly reduces your OASIS findings risk and protects your standing with aerospace customers.
How does the system handle first article inspection per AS9102?
AS9102 defines the First Article Inspection process that aerospace customers require as evidence that a production process can produce parts that meet engineering design requirements. A complete FAI per AS9102 Rev C includes three forms. Form 1 (Part Number Accountability) documents the part number, revision, drawing number, and the sub-assembly structure — essentially a simplified bill of materials showing every detail part and sub-assembly that makes up the inspected article. Form 2 (Product Accountability) documents the raw material specifications and actual material certifications, special process sources and their certifications (Nadcap, customer-approved processor lists), functional test requirements and results, and any design requirements beyond dimensional characteristics. Form 3 (Characteristic Accountability) lists every characteristic from the engineering drawing — dimensions, tolerances, surface finish requirements, material properties, visual requirements — with the specification requirement and the actual measured value for the first article. Our system automates the population of all three forms from data already in your production system. Form 1 pulls the BOM and drawing revision from your ERP. Form 2 pulls material certifications from incoming inspection records linked to the production lot, special process certifications from your approved supplier records, and test results from integrated test equipment. Form 3 imports measured values directly from CMM output files (Mitutoyo MeasurLink, Hexagon PC-DMIS, Zeiss Calypso, and other common CMM software formats), optical comparator data, and manual gauge readings entered by inspectors on tablets. The system flags any characteristic where the measured value falls outside the tolerance band, any missing material certification, and any special process without a valid certification — preventing submission of incomplete or nonconforming FAI packages. When an engineering change triggers FAI re-execution per AS9102 clause 5.2, the system identifies which characteristics are affected by the change and whether a partial FAI (only changed characteristics) or full FAI is required.
What Nadcap special processes does the system support?
The system supports process parameter monitoring and documentation for all Nadcap-accredited special process categories: heat treating (AMS 2750 pyrometry, AMS 2759 steel heat treating, AMS 2770 aluminum heat treating, AMS 2774 titanium heat treating), chemical processing (AMS 2700 identification and removal of hydrogen embrittlement, anodizing, chromate conversion, passivation, plating), nondestructive testing (penetrant inspection per ASTM E1417, magnetic particle per ASTM E1444, radiographic per ASTM E1742, ultrasonic per ASTM E2375, eddy current), welding (AWS D17.1 fusion welding for aerospace applications, electron beam welding, resistance welding), composites (autoclave cure cycle monitoring, fiber placement parameters, resin infusion process data), and surface enhancement (shot peening per AMS 2430, SAE J2441 coverage verification). For each special process, the system captures the specific parameters that PRI task group auditors evaluate during merit audits. Heat treating integration captures furnace zone temperatures from thermocouple inputs at configurable sampling intervals (typically 1-6 seconds for production thermocouples), records System Accuracy Test (SAT) results per AMS 2750, links Temperature Uniformity Survey (TUS) data to the specific furnace zone and load configuration, and generates the time-temperature charts that demonstrate the part reached and maintained the required temperature for the required duration. Chemical processing integration monitors tank concentrations, temperature, immersion time, and current density (for electroplating) from process controllers and inline analytical instruments. The data acquisition architecture uses validated time sources so that every data point has a defensible timestamp — eliminating the PRI audit finding where manual log entry times do not correlate with actual process cycle times.
How does counterfeit parts prevention work in the system?
Counterfeit parts prevention per AS9100D clause 8.1.4 and SAE AS6174 requires a systematic approach to ensuring that materials and components entering your production process are authentic and traceable to their Original Component Manufacturer (OCM) or authorized distributor. The system implements this at multiple control points. Supplier qualification: the approved supplier list maintains OCM and authorized distributor verification status. When a buyer creates a purchase order for a controlled component, the system verifies that the supplier is an authorized source for that specific part number. If the supplier is not an authorized source — for example, an independent distributor or broker — the system enforces the additional controls required by AS6081 (fraudulent/counterfeit electronic parts avoidance): enhanced receiving inspection, authentication testing requirements, and documentation traceability to the OCM that an authorized distributor would have provided directly. Receiving inspection: incoming inspection protocols are configured by part risk category. Electronic components — the highest risk category per SAE AS6171 — trigger inspection protocols that include visual inspection for remarking or resurfacing evidence, package and label verification against OCM standards, X-ray inspection for die/wire bond verification (if your facility has capability, or routing to an approved test lab), and electrical testing against OCM datasheet parameters. The system integrates with GIDEP (Government-Industry Data Exchange Program) alerts: when a GIDEP alert identifies a suspect counterfeit part, the system automatically searches your inventory and in-process production orders for affected part numbers, lot codes, or date codes and quarantines any matches pending investigation. Customer-issued counterfeit notifications are processed through the same workflow. All containment actions, investigation results, and disposition decisions are documented in the nonconformance system with full traceability, providing the evidence package your registrar auditor evaluates during AS9100D surveillance.
Can the system integrate with our existing ERP and production equipment?
Yes. The system is designed to integrate with — not replace — your existing ERP, MES, production equipment, and inspection instruments. Common ERP integrations include SAP (S/4HANA and ECC), Oracle (Cloud and E-Business Suite), Epicor (Kinetic and Prophet 21), IQMS (DELMIAworks), Plex, JobBOSS, E2 Shop System, ProShop, and other manufacturing ERPs used by aerospace job shops and production manufacturers. Integration pulls work order data, bill of materials, engineering revisions, purchase orders, receiving records, and inventory transactions from your ERP so that the quality system operates on the same production data your shop floor uses — not a separate, manually synchronized copy. For CMM and inspection equipment, we integrate with output files from Mitutoyo MeasurLink, Hexagon PC-DMIS, Zeiss Calypso, OGP SmartScope, Keyence vision systems, and standard QIF (Quality Information Framework) data formats. For Nadcap special process equipment, we integrate with furnace controllers (Eurotherm, Honeywell, Yokogawa), chemical process controllers, NDT equipment data outputs, and welding parameter recorders. Integration architecture uses a middleware layer that normalizes data from different source systems and equipment protocols (OPC-UA for industrial equipment, REST APIs for modern ERP systems, database-level connectors for legacy ERP systems, and file-based import for equipment that exports CSV or proprietary formats). This middleware approach means adding a new piece of equipment or upgrading your ERP does not require rebuilding the quality system — only updating the specific connector in the middleware layer.
How does the system support management review per AS9100D clause 9.3?
AS9100D clause 9.3 requires management review at planned intervals with specific inputs that go beyond ISO 9001:2015. In addition to the standard ISO 9001 management review inputs (internal audit results, customer feedback, process performance, nonconformity and corrective action status, previous management review actions), AS9100D requires review of on-time delivery performance, risks identified during operational risk management activities per clause 8.1.1, and the effectiveness of actions taken to address risks and opportunities. The system generates management review packages automatically, pulling data from every quality module into a consolidated dashboard and report. Nonconformance trending by type, operation, part number, and supplier. Corrective action status showing open CAPAs, overdue investigations, and effectiveness verification results. On-time delivery metrics from ERP integration. Customer scorecard data from quality portal integrations. Supplier quality metrics showing reject rates, delivery performance, and corrective action responsiveness. Internal audit findings with closure status and recurring finding analysis. Risk register status showing new risks, changed risk levels, and open mitigation actions. OASIS findings from your most recent surveillance audit with corrective action progress. The system also tracks management review action items — decisions and actions assigned during the review — with due dates, responsible parties, and completion verification, ensuring that management review produces documented results per clause 9.3.3 rather than meeting minutes that are never followed up.

Stop Working For Your Software

Make your software work for you. Let's build a sensible solution.