The U.S. aerospace and defense industry contributed $374 billion to GDP in 2022, employing 2.2 million workers across manufacturing, MRO, and engineering services (Aerospace Industries Association). Yet these companies operate with software systems often 15-20 years old, creating vulnerabilities in supply chain visibility, manufacturing traceability, and compliance documentation that can ground production lines or delay contract fulfillment.
At FreedomDev, we've spent over 20 years building software for manufacturers and complex operations across West Michigan—a region with deep aerospace heritage from suppliers to Lockheed Martin, Boeing, and defense contractors. We understand the reality: you can't simply swap out a CNC machine control system running on Windows XP, but you can build middleware that securely bridges it to modern ERP platforms while maintaining AS9100 audit trails.
Aerospace and defense companies face constraints most industries don't understand. A single component in an F-35 can have 300+ compliance touchpoints across its lifecycle. A contract manufacturer supporting multiple primes needs to segregate ITAR-controlled technical data while maintaining efficiency. A composite materials supplier must trace every batch through cure cycles, NDT inspections, and certifications stretching back years. These aren't problems solved by off-the-shelf software.
Our [custom software development](/services/custom-software-development) approach starts with your actual constraints: existing Part 21 systems that can't be replaced, AS9100 audit requirements that demand specific data structures, ITAR access controls that can't use standard cloud architectures, and customer portals where defense primes expect to pull real-time production data. We build systems that work within these boundaries rather than forcing you to redesign operations around software limitations.
We've architected systems that synchronize production data between 1980s-era shop floor systems and modern business intelligence platforms, built ITAR-compliant collaboration portals for engineering teams across multiple clearance levels, and created custom quality management systems that automatically generate the exact documentation formats required by specific customer contracts—because General Dynamics wants FAIRs formatted differently than Northrop Grumman.
The complexity in aerospace and defense isn't just technical—it's operational. A delay finding the right revision of a process specification can hold up a $4 million assembly. A missing calibration certificate discovered during final inspection can trigger a complete batch recall. A miscommunication about a technical drawing change can result in 200 scrapped parts and a delayed delivery that cascades through an entire program schedule. Software should prevent these scenarios, not document them after the fact.
Our [systems integration](/services/systems-integration) expertise connects the fragmented technology landscape typical in this industry: CMM measurement data that lives in proprietary formats, procurement systems that don't talk to production scheduling, quality holds that aren't visible to shipping, ITAR documentation scattered across network drives, and customer portals that require manual data entry because nothing connects. We build the connective tissue that makes information flow without compromising security or compliance posture.
Whether you're a Tier 2 supplier machining structural components, an avionics manufacturer managing complex assembly operations, a composites fabricator tracking batch genealogy, or an MRO facility coordinating certifications across hundreds of airframes, we understand your operational reality. Our solutions are built by engineers who've walked shop floors, reviewed AS9100 audit findings, and debugged integration issues at 2 AM because a production line is waiting.
We don't build software that looks impressive in conference room demos but fails under the pressure of actual production demands. Our systems are documented to the level defense contractors require, with security architectures that satisfy ITAR and CMMC requirements, and interfaces designed for gloved hands on shop floor tablets rather than marketing executives on iPads. We know the difference because we've lived it alongside our clients for over two decades.
The aerospace and defense industry is entering a period of unprecedented demand—Airbus projects needing 40,000 new aircraft over the next 20 years while defense modernization programs require exponential increases in production capacity. Meeting this demand with 1990s-era software infrastructure isn't just inefficient—it's impossible. The companies that will succeed are building the digital infrastructure now, and we're here to make that happen with systems that actually work in your environment. [Contact us](/contact) to discuss your specific operational challenges.
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International Traffic in Arms Regulations (ITAR) requires strict controls over technical data, with penalties up to $1 million per violation. Many aerospace companies struggle with legacy systems where controlled technical data exists alongside uncontrolled business information, making segregation nearly impossible. Email attachments containing technical drawings get forwarded to unauthorized recipients, cloud storage systems don't enforce person-level access controls, and collaboration tools weren't designed for the 'need to know' principle. Standard commercial software often uses offshore support or multi-tenant cloud architectures incompatible with ITAR requirements, forcing companies into expensive workarounds or accepting compliance gaps that increase audit risk.
Critical production systems in aerospace often run on hardware and operating systems decades old—Windows NT servers controlling coordinate measuring machines, DOS-based programs managing tool libraries, proprietary databases with discontinued vendor support. These systems contain institutional knowledge embedded in code that nobody fully understands anymore, yet they control processes that can't stop without halting production. Replacing them isn't feasible when a single production line represents 60% of revenue and downtime costs $50,000 per hour. The challenge is extracting data from these systems, modernizing workflows around them, and building migration paths that don't require shutdowns measured in weeks.
A single aerospace component may require traceability documentation stretching back through multiple tiers of suppliers—raw material certifications, heat treat lot numbers, individual operator certifications, calibration records for every measurement device, environmental condition logs during cure cycles. When an airworthiness directive requires tracking down every part from a specific titanium heat lot delivered in 2017, companies without digital traceability systems face weeks of manual record hunting. The problem compounds when suppliers use different systems, document formats vary by customer, and some records exist only as paper in filing cabinets. One missing certification can ground an entire production batch worth millions.
AS9100 quality management systems generate massive amounts of data—corrective action requests, nonconformance reports, First Article Inspection Reports (FAIRs), measurement data from CMMs, supplier quality issues, internal audit findings. In most companies, these live in disconnected systems: quality management software that doesn't connect to ERP, measurement data trapped in CMM proprietary formats, audit findings in spreadsheets, and corrective actions tracked in email threads. This fragmentation makes trend analysis impossible, hides systemic issues until they become crises, and creates compliance vulnerabilities when auditors ask for complete documentation trails that span multiple disconnected systems.
Major aerospace primes increasingly require suppliers to provide real-time production visibility through dedicated portals—current WIP status, quality metrics, on-time delivery performance, inventory levels of customer-owned material. Suppliers struggle because their internal systems weren't designed for external visibility, production data exists in formats customers can't consume, and manually updating portals diverts resources from production. Boeing's exoVantage portal, Lockheed Martin's Supplier Data Management System, and Raytheon's iSupplier each have unique requirements. Managing these different interfaces while ensuring data accuracy becomes a full-time job, yet providing inaccurate data damages customer relationships that represent multi-year revenue streams.
Aerospace manufacturers typically support multiple programs simultaneously—each with different engineering change notification processes, approval workflows, effectivity tracking requirements, and documentation standards. An engineering change might affect parts in three different aircraft programs, each at different production stages, with different customers requiring different notification timelines. Tracking which revision of a drawing applies to which serial number, ensuring operators have current work instructions, preventing unapproved changes from reaching production, and maintaining audit trails that satisfy multiple customers simultaneously becomes unmanageable without purpose-built systems. A single uncontrolled drawing revision can result in six-figure rework costs.
Aerospace production involves components with lead times ranging from 2 days to 18 months, creating scheduling complexity that overwhelms standard MRP systems. A titanium forging might require 14 months lead time while the hardware kit for the same assembly ships next-day. When a customer accelerates a delivery by 3 weeks, planners must trace through multi-level BOMs identifying which long-lead items will become constraints, which suppliers can expedite, and which assemblies need to be pulled from other orders. Without sophisticated scheduling systems that model these constraints realistically, companies either carry excessive safety stock (tying up millions in working capital) or face production stops when critical components aren't available.
The aerospace workforce is aging—the average machinist in defense manufacturing is 56 years old—and critical institutional knowledge exists primarily in workers' heads rather than documented systems. When an inspector who's been doing receiving inspections for 30 years retires, their ability to spot potential issues by feel and experience walks out the door. New workers enter an environment where training often means shadowing experienced employees and work instructions exist as 40-page PDF documents written in 1995. Companies need systems that capture expert knowledge in usable formats, guide workers through complex processes with contextual information, and make tribal knowledge accessible before it disappears. Without this, quality suffers and training periods stretch from months to years.
FreedomDev understood our AS9100 requirements from day one. They built integration that pulls data from our legacy CMM software and automatically generates customer-specific FAIRs—saving our quality team 15 hours per week and eliminating the documentation errors that were causing audit findings. The system has been running flawlessly through two surveillance audits.
We build custom collaboration systems specifically architected for ITAR requirements—on-premises or private cloud deployments with person-level access controls, document management with automatic classification workflows, and audit logging that tracks every access to controlled technical data. These aren't generic SharePoint implementations; they're purpose-built platforms where technical drawings are automatically watermarked with recipient identity, access expires based on program assignment, and sharing controlled documents outside approved channels is technically prevented rather than just policy-prohibited. We implement role-based access that aligns with your security clearance structure and customer-specific access requirements, ensuring that subcontractors see only their relevant data while primes can pull comprehensive program information.
Our [systems integration](/services/systems-integration) approach treats legacy systems as permanent fixtures rather than targets for replacement, building middleware that extracts data without modifying or risking critical production systems. We've created bridge applications that pull measurement data from 1990s-era CMM software into modern SPC platforms, built APIs around proprietary database formats to feed ERP systems, and developed screen-scraping solutions for DOS applications that have no export capabilities. For a West Michigan aerospace supplier, we built integration that synchronized shop floor data from a 25-year-old manufacturing execution system with their modern ERP, enabling real-time production visibility without touching code nobody fully understood. The legacy system continues running while modern analytics and reporting happen in parallel.
We develop custom traceability systems that create complete digital threads from raw material receipt through final delivery—capturing material certifications, linking process parameters to serial numbers, recording operator certifications at each operation, and maintaining measurement data with device calibration status. These systems understand aerospace-specific concepts like lot traceability, batch processing with time/temperature profiles, and the difference between traceability (tracking forward from materials) and genealogy (tracking backward from finished goods). When a customer issues a technical directive requiring identification of all parts from a specific material heat, queries that would take weeks of manual record searching return results in seconds, with automatically generated reports in the exact format your customer requires.
Rather than implementing commercial QMS packages that don't quite fit aerospace requirements, we build integrated quality ecosystems connecting inspection data, nonconformance tracking, corrective actions, and audit management with your existing ERP and production systems. Our [database services](/services/database-services) create unified data models where a nonconformance automatically triggers traceability queries to identify affected inventory, generates hold notifications visible in production scheduling, and creates corrective action workflows routed to appropriate personnel based on root cause. We've built systems that automatically generate AS9102 First Article Inspection Reports by pulling data from CMM measurement files, inserting part drawings, and formatting to exact customer specifications—reducing 8 hours of manual work to 15 minutes of review.
We create integration layers that automatically populate customer portals with data from your internal systems—eliminating manual data entry while ensuring accuracy and timeliness. For each major prime's portal system, we build connectors that transform your internal data formats into their required schemas, handling authentication, error recovery, and audit logging. Similar to our work on the [Real-Time Fleet Management Platform](/case-studies/great-lakes-fleet) where we enabled real-time visibility into complex operations, we build systems that expose the exact production metrics your customers demand while maintaining security boundaries around sensitive internal information. When Boeing's portal requires daily updates on 47 different data points, automation ensures compliance without dedicating staff to portal management.
Our custom ECN/ECO management systems understand that aerospace changes aren't simple approval chains—they're complex workflows involving effectivity planning, impact analysis across programs, customer notification requirements, and revision control that must maintain perfect audit trails. We build systems where proposing a change automatically triggers impact analysis across all active BOMs, routes approvals through appropriate stakeholders based on change classification, generates customer notifications in required formats, and controls release to production based on effectivity rules. The system prevents production from accessing superseded documents, maintains complete revision history, and generates the documentation trail auditors expect—because we've reviewed enough AS9100 audit findings to know exactly what's required.
We develop planning systems specifically designed for aerospace's long-lead-time reality, building finite capacity schedulers that understand both machine capacity and material constraints. These systems model realistic lead times, track customer-owned material separately from standard inventory, handle kit shortages intelligently, and provide visibility into constraint-based delivery dates rather than wishful MRP calculations. When a customer requests acceleration, planners see immediately which long-lead components are the limiting factors, which suppliers have capacity for expediting, and the real cost/feasibility of meeting the request. Our approach, similar to our [ERP development](/services/erp-development) work, creates systems that match your operational reality rather than forcing operations to match software assumptions.
We build guided work instruction systems that replace 40-page PDF documents with interactive, context-aware digital guidance on shop floor tablets. These systems present only relevant information for the current operation, include embedded photos and videos from expert workers, prompt for required data collection, and prevent progression to the next step until critical checks are verified. For knowledge capture, we create structured systems where expert workers can easily document tricks and techniques—'If the part resonates during this cut, reduce spindle speed to 2400 RPM'—making institutional knowledge searchable and accessible. Integrated with operator certification tracking, the system ensures only qualified personnel perform critical operations while collecting data for continuous process improvement.
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