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Aircraft Structure, Surfaces, Rigging, and Systems Assemblers

SOC Code: 51-2011.00

Production

Aircraft structure, surfaces, rigging, and systems assemblers build the airframes, wings, fuselages, and control systems that comprise modern aircraft. With a median salary around $61,250, these highly skilled manufacturing specialists work on production lines at companies like Boeing, Lockheed Martin, Northrop Grumman, Spirit AeroSystems, and other aerospace manufacturers. Their precision hand work — drilling, riveting, bonding composites, running wiring, and installing systems — literally holds aircraft together, making this a critical manufacturing role that demands exacting standards and meticulous attention to detail.

Salary Overview

Median

$61,680

25th Percentile

$53,180

75th Percentile

$75,240

90th Percentile

$94,950

Salary Distribution

$46k10th$53k25th$62kMedian$75k75th$95k90th$46k – $95k range
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Job Outlook (2024–2034)

Growth Rate

-14.5%

New Openings

2,800

Outlook

Decline

Key Skills

Quality Contro…Reading Compre…Active ListeningCritical Think…MonitoringRepairingWritingSpeaking

Knowledge Areas

Education and TrainingMechanicalProduction and ProcessingMathematicsEnglish LanguageDesignComputers and ElectronicsPublic Safety and SecurityEngineering and TechnologyCustomer and Personal ServiceAdministration and ManagementChemistry

What They Do

  • Inspect or test installed units, parts, systems, or assemblies for fit, alignment, performance, defects, or compliance with standards, using measuring instruments or test equipment.
  • Cut, trim, file, bend, or smooth parts to ensure proper fit and clearance.
  • Assemble parts, fittings, or subassemblies on aircraft, using layout tools, hand tools, power tools, or fasteners, such as bolts, screws, rivets, or clamps.
  • Read blueprints, illustrations, or specifications to determine layouts, sequences of operations, or identities or relationships of parts.
  • Adjust, repair, rework, or replace parts or assemblies to ensure proper operation.
  • Clean, oil, or coat system components, as necessary, before assembly or attachment.
  • Attach brackets, hinges, or clips to secure or support components or subassemblies, using bolts, screws, rivets, chemical bonding, or welding.
  • Fabricate parts needed for assembly or installation, using shop machinery or equipment.

Tools & Technology

Microsoft Excel ★Microsoft Office software ★Microsoft Outlook ★Microsoft Word ★SAP software ★Computer aided design CAD softwareElectrical power management system softwareEnterprise resource planning ERP softwareSpreadsheet softwareWord processing software

★ = Hot Technology (in-demand)

Education Requirements

Typical entry-level education: High School Diploma

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A Day in the Life

A fuselage assembler might begin their shift by reviewing the day's work instructions and engineering drawings on a digital workstation, gathering the required tools, rivets, sealant, and components from the tool crib. They move to their assigned position on the assembly line — perhaps working inside a fuselage section, installing structural frames and stringers using precision pneumatic rivet guns. Each hole is drilled to exact specifications, deburred, and inspected before permanent fasteners are installed. Another assembler works on wing skin panels, applying sealant between composite layers and aluminum fittings, torquing fasteners to specified values, and documenting each step for quality traceability. Rigging assemblers install and adjust control cables, push-pull rods, and actuators that connect the cockpit controls to flight surfaces. Breaks bring conversations with quality inspectors reviewing completed work and engineering liaisons clarifying drawing interpretations. The pace varies — high-rate production lines like Boeing's 737 assembly require consistent throughput, while military aircraft may involve more complex, lower-volume work.

Work Environment

Work takes place in large factory environments — aerospace assembly facilities can span millions of square feet. The work is physical, involving climbing scaffolding, working overhead, reaching into confined spaces inside fuselages and wings, and using pneumatic tools that generate noise and vibration. Hearing protection, safety glasses, and composite dust masks are standard PPE. Clean rooms for composite work require full coveralls and controlled environments. Standard shifts are common, but production surges may require overtime and weekend work. The environment emphasizes quality and safety — tools are inventoried to prevent foreign object debris (FOD), and every operation is documented for regulatory traceability. Team dynamics are important on production lines where multiple assemblers work on the same aircraft simultaneously. Many facilities are climate-controlled, though large factory doors create temperature variations.

Career Path & Advancement

Most assemblers enter through aerospace company training programs, community college aviation manufacturing programs, or aerospace assembly courses at technical schools. No formal degree is required, though coursework in blueprint reading, sheet metal fabrication, and composite materials is valued. New hires typically undergo 2-6 months of company-specific training before working on production aircraft. With 3-5 years of experience, skilled assemblers specialize in specific sections, systems, or processes and may earn higher labor grades with premium pay. Advancement includes lead assembler, team leader, manufacturing engineer technician, and quality inspector positions. Some experienced assemblers move into production planning, manufacturing engineering support, or training instructor roles. A few pursue engineering degrees and transition to manufacturing engineering.

Specializations

Structural assemblers build the primary load-bearing components — frames, ribs, spars, skins, and bulkheads — using riveting, bonding, and mechanical fastening techniques. Wing assembly specialists handle the complex integration of wing structures, fuel tanks, leading edge devices, and flight control surfaces. Fuselage assemblers work on body sections, installing floors, cargo liners, doors, and structural components. Composite assemblers lay up, cure, and finish carbon fiber and fiberglass components using specialized tools and clean room procedures. Electrical and systems installers route wiring harnesses, install avionics racks, plumbing, hydraulic lines, and environmental control systems. Final assembly technicians complete the integration of major sections and perform functional testing of installed systems.

Pros & Cons

Advantages

  • Above-average manufacturing salary with overtime opportunities during production surges
  • Building aircraft with your own hands — tangible, impressive products
  • No four-year degree required — technical training provides entry pathway
  • Strong demand driven by commercial aviation growth and defense programs
  • Visible career progression through skill specialization and labor grade advancement
  • Aerospace manufacturing skills are portable across major employers
  • Union representation at many facilities provides wage protection and benefits

Challenges

  • Physically demanding — climbing, reaching, lifting, and working in tight spaces
  • Repetitive tasks on production lines can become monotonous over time
  • Noise, vibration, composite dust, and chemical exposure require consistent PPE use
  • Production rate fluctuations and program changes can cause layoffs
  • Strict quality and documentation requirements create additional work beyond assembly
  • Geographic concentration near major aircraft manufacturing facilities limits options
  • Standing for full shifts and working in awkward positions causes ergonomic strain

Industry Insight

Boeing and Airbus maintain multi-year backlogs of commercial aircraft orders, supporting strong demand for assemblers. However, production rates fluctuate — the Boeing 737 MAX grounding and supply chain disruptions have created volatility. Defense programs (F-35, B-21, KC-46, MQ-25) provide more stable demand with long-term contracts. The industry is gradually increasing automation — robotic drilling, automated fiber placement, and collaborative robots (cobots) are being introduced — but the complexity and variability of aircraft assembly means human hands remain essential for most operations. Composite materials continue replacing aluminum in newer aircraft designs, shifting the required skill set. Workforce aging and retirement are creating replacement needs, while aerospace companies invest in training partnerships and apprenticeship programs to build the next generation of assemblers.

How to Break Into This Career

Community college programs in aerospace manufacturing technology provide the strongest foundation — courses in blueprint reading, sheet metal fabrication, composite materials, electrical assembly, and specifications (MIL-specs and Boeing/Airbus specs) prepare graduates for production positions. Some aerospace companies partner with community colleges for direct-entry training programs. Manufacturing experience in automotive, metal fabrication, or general assembly demonstrates relevant hand skills. Military aircraft maintenance experience is valued. Companies look for candidates with manual dexterity, spatial reasoning, ability to read complex engineering drawings, and willingness to work in physically demanding positions. Pre-employment testing may include dexterity assessments, blueprint reading tests, and basic math evaluations. Background checks and drug testing are standard for aerospace manufacturing.

Career Pivot Tips

Aircraft assemblers develop precision manufacturing, blueprint reading, quality documentation, and mechanical assembly skills that transfer to automotive manufacturing, medical device assembly, semiconductor equipment assembly, and precision manufacturing. Composite fabrication skills are valued by the wind energy, marine, and motorsports industries. Electrical assembly experience translates to industrial electrical work, elevator installation, and HVAC systems. Quality inspection experience transfers to any regulated manufacturing environment. Those seeking to enter aerospace assembly from other manufacturing backgrounds should emphasize precision, documentation rigor, and willingness to learn aerospace-specific processes. The FAA-regulated quality culture in aerospace manufacturing — where every fastener must be tracked and every operation recorded — is the biggest adjustment for those from less regulated industries.

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