Will AI replace aircraft structure, surfaces, rigging, and systems assemblers?

AI already handles some of this work on its own in real use, for tasks like “Read blueprints, illustrations”. That's 35m of a typical shift; 7h 25m still has no AI or robot evidence. BLS expects about 5.6% fewer of these jobs by 2035.

Time card for aircraft structure, surfaces, rigging, and systems assemblers showing a typical 8-hour shift: 7h 25m done by people, 35m by AI.
Each mark is 5 minutes of a typical shift for aircraft structure, surfaces, rigging, and systems assemblers, colored by who does that task today. Estimates from O*NET tasks and Anthropic Economic Index data. How it's made

Home / Production & factory / Aircraft Structure, Surfaces, Rigging, and Systems Assemblers

Assemble, fit, fasten, and install parts of airplanes, space vehicles, or missiles, such as tails, wings, fuselage, bulkheads, stabilizers, landing gear, rigging and control equipment, or heating and ventilating systems.

Time card

Untick tasks you don't do, or set your own times.
MineTask, by time spentHumanWith AIAIRobot
Assemble parts, fittings, or subassemblies on aircraft, using layout tools, hand tools, power tools, or fasteners, such as bolts, screws, rivets, or clamps.1h 16m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Read blueprints, illustrations, or specifications to determine layouts, sequences of operations, or identities or relationships of parts.35m a shift · Observed in AI use
Why this label?Marked AI because this task shows up regularly in real AI conversations (Anthropic Economic Index, 2025 usage), and in most of them AI does the task on its own rather than helping a person. Many workplaces may not use AI for it at all. How labels work
Inspect or test installed units, parts, systems, or assemblies for fit, alignment, performance, defects, or compliance with standards, using measuring instruments or test equipment.35m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Adjust, repair, rework, or replace parts or assemblies to ensure proper operation.35m a shift · No AI or robot evidence found
Why this label?This is physical work, and no robot has been shown doing it yet. How labels work
Assemble prefabricated parts to form subassemblies.29m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Align, fit, assemble, connect, or install system components, using jigs, fixtures, measuring instruments, hand tools, or power tools.29m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Attach brackets, hinges, or clips to secure or support components or subassemblies, using bolts, screws, rivets, chemical bonding, or welding.23m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Cut, trim, file, bend, or smooth parts to ensure proper fit and clearance.23m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Position and align subassemblies in jigs or fixtures, using measuring instruments and following blueprint lines and index points.23m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Layout and mark reference points and locations for installation of parts or components, using jigs, templates, or measuring and marking instruments.18m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Set, align, adjust, or synchronize aircraft armament or rigging or control system components to established tolerances or requirements, using sighting devices and hand tools.18m a shift · No AI or robot evidence found
Why this label?This is physical work, and no robot has been shown doing it yet. How labels work
Join structural assemblies, such as wings, tails, or fuselage.18m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Fabricate parts needed for assembly or installation, using shop machinery or equipment.12m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Clean, oil, or coat system components, as necessary, before assembly or attachment.12m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Manually install structural assemblies or signal crane operators to position assemblies for joining.12m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Place and connect control cables to electronically controlled units, using hand tools, ring locks, cotter keys, threaded connectors, turnbuckles, or related devices.12m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Install mechanical linkages and actuators, using tensiometers to verify tension of cables.12m a shift · No AI or robot evidence found
Why this label?This is physical work, and no robot has been shown doing it yet. How labels work
Fit and fasten sheet metal coverings to surface areas or other sections of aircraft prior to welding or riveting.12m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Assemble prototypes or integrated-technology demonstrators of new or emerging environmental technologies for aircraft.6m a shift · No AI or robot evidence found
Why this label?This is physical work, and no robot has been shown doing it yet. How labels work
Set up or operate machines or systems to crimp, cut, bend, form, swage, flare, bead, burr, or straighten tubing, according to specifications.6m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Clean aircraft structures, parts, or components, using aqueous, semi-aqueous, aliphatic hydrocarbon, or organic solvent cleaning products or techniques to reduce carbon or other harmful emissions.6m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Mark identifying information on tubing or cable assemblies, using etching devices, labels, rubber stamps, or other methods.6m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Verify dimensions of cable assemblies or positions of fittings, using measuring instruments.6m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Weld tubing and fittings or solder cable ends, using tack welders, induction brazing chambers, or other equipment.6m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Capture or segregate waste material, such as aluminum swarf, machine cutting fluid, or solvents, for recycling or environmentally responsible disposal.6m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Cut cables and tubing, using master templates, measuring instruments, and cable cutters or saws.6m a shift · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work
Install accessories in swaging machines, using hand tools.time not estimated · Robots only in factory cells
Why this label?Robots have done this only in factory setups built around the machine, so it stays Human for aircraft structure, surfaces, rigging, and systems assemblers. How labels work

Clock history

  1. 35m touchedFirst published: O*NET 30.1, Anthropic Economic Index (2025 usage and September 2026 robot study), BLS May 2025

When new data changes this clock, the date, the new numbers and the reason are logged here. Company news alone never moves the clock.

On the floor

No company news tracked for this job yet. New stories are added as they happen.

Ask the clock

Will AI replace aircraft structure, surfaces, rigging, and systems assemblers?

Unlikely, though parts of the work are changing. About 35m of an 8-hour shift goes to tasks touched by AI working on its own. The other 7h 25m (93%) stays with people. Separately, BLS expects about 5.6% fewer of these jobs by 2035 (all jobs: +3.5%).

What can AI already do for aircraft structure, surfaces, rigging, and systems assemblers?

AI shows up regularly in 1 of 27 tasks, about 35m of a typical shift. The biggest ones:

  • Read blueprints, illustrations, or specifications to determine layouts, sequences of operations, or identities or relationships of parts. (35m a shift, AI mostly does it alone)
Where do robots fit in?

Not in workplaces like this one, based on a 2026 review of robot deployments. 22 more tasks have only been done in factory setups built around the machine, so they stay with people here. For 4 physical tasks, no robot has shown it can do the work yet.

What still needs a person?

7h 25m of a typical shift, or 93%, goes to tasks with no AI or robot evidence yet. No AI usage or robot deployment has shown up for these so far. The biggest:

  • Assemble parts, fittings, or subassemblies on aircraft, using layout tools, hand tools, power tools, or fasteners, such as bolts, screws, rivets, or clamps. (1h 16m a shift)
  • Inspect or test installed units, parts, systems, or assemblies for fit, alignment, performance, defects, or compliance with standards, using measuring instruments or test equipment. (35m a shift)
  • Adjust, repair, rework, or replace parts or assemblies to ensure proper operation. (35m a shift)
  • Assemble prefabricated parts to form subassemblies. (29m a shift)
  • Align, fit, assemble, connect, or install system components, using jigs, fixtures, measuring instruments, hand tools, or power tools. (29m a shift)
Why is that work hard to automate?

Much of it comes down to where and how the work happens. In-person, hands-on and high-stakes work is where AI and robots have made the least headway so far. In the official O*NET survey of people in this job:

  • 100% use their hands on tools, objects or controls more than half the time
  • 80% talk face to face with others every day
  • 66% work at arm's length or closer to other people
Are employers still hiring aircraft structure, surfaces, rigging, and systems assemblers?

On Indeed, job postings in the Production & Manufacturing sector are at 124% of their February 2020 level (all U.S. postings: 104%), up 12.6% from a year earlier, as of Oct 9, 2026. BLS separately expects about 3,100 openings a year in this job through 2035. Across all U.S. postings, 7.3% now mention AI skills. Sector postings cover more than this one job and move for many reasons besides AI.

How much do aircraft structure, surfaces, rigging, and systems assemblers make?

The median pay is about $65,380 a year ($31.43 an hour), 28% above the median for all U.S. jobs ($50,980). Most people in this job earn between $47,310 and $107,500 a year; that range covers the middle 80%. Pay figures are from BLS, May 2025, and vary a lot by state and employer. Pick a state to compare:

Is this job growing or shrinking?

BLS projects a decline of 5.6% from 2025 to 2035, compared with 3.5% growth for all jobs. That's about 33,000 jobs in 2035. Even so, it expects about 3,100 openings a year, mostly from people retiring or changing careers. These projections don't single out AI as a cause.

How many aircraft structure, surfaces, rigging, and systems assemblers are there in the U.S.?

About 34,000 people in the U.S., roughly 0.02% of all workers (BLS, May 2025). That makes it the 453rd largest of the 796 jobs on this site. BLS expects about 33,000 in 2035.

What training do aircraft structure, surfaces, rigging, and systems assemblers need?

The most common requirement is a high school diploma: about 55% of people in the job said so in the official O*NET survey. O*NET rates the job at level 2 of 5 for preparation, which usually means: high school diploma, some training. Requirements vary by state and employer, especially for licensed work.

What should I learn to stay ahead of AI?

These come from the job's official skill ratings and from the tasks that AI and robots touch least today. Building them keeps you strong in the parts of the work that still need a person:

  • Skills that matter more here than in most jobs: Equipment Maintenance, Quality Control Analysis, Time Management, Complex Problem Solving
  • Get strong at the parts of the job that stay with people (listed above), which take 7h 25m of a typical shift
  • Tools employers list: Microsoft Excel, Microsoft Office software, Microsoft Outlook, Microsoft Word, SAP software
  • Learn to use AI well on the tasks where it already shows up in this job (listed above)
What other jobs could aircraft structure, surfaces, rigging, and systems assemblers move into?

These use similar skills. Matches come from 109 official ratings of skills, knowledge and work activities, and each needs the same or less preparation unless the official list relates the jobs directly:

  • Computer Numerically Controlled Tool Operators (1h 22m touched, $51k median pay)
  • Rolling Machine Setters, Operators, and Tenders, Metal and Plastic (1h 4m touched, $50k median pay)
How solid are these numbers?

Each task carries its own evidence label. For this job: 1 observed in real AI use, 26 with no AI or robot evidence found. The minutes per task are estimates, not measured hours, and "no evidence" doesn't prove a task is safe.

Tools in demand

  • SAP software

Plus everyday office tools: Microsoft Excel, Microsoft Office software, Microsoft Outlook, Microsoft Word.

Also called

A&P Technician (Airframe and Powerplant Technician), Aerospace Assembler, Aircraft De-Icer Installer, Aircraft Fuselage Framer, Aircraft Layout Worker, Aircraft Line Assembler, Aircraft Part Assembler, Aircraft Parts Assembler, Aircraft Powerplant Repairer, Aircraft Riveter, Aircraft Sheet Metal Mechanic, Aircraft Structure Assembler, Aircraft Structures and Surfaces Assembler, Armament Aircraft Mechanic