Will AI replace riggers?

What AI already does in this job

Software and sensor technologies have already made inroads into preliminary rigging workflows. Lift directors and project engineers regularly use 3D simulation platforms such as AutoCAD, 3D Lift Plan, and crane manufacturer software to model complex tandem lifts and verify clearance around power lines before rigging ever touches steel. Algorithms assist in calculating load weights, finding centers of gravity on asymmetrical equipment, and determining sling angles to avoid catastrophic failure. On modern job sites, smart rigging gear features wireless load shackles and tension sensors that transmit stress data via Bluetooth to handheld tablets, warning crews if lines near working load limits. RFID tags and computerized asset management platforms track the inspection histories, wear cycles, and certifications of wire rope slings, synthetic roundslings, and chain hoists. These tools accelerate safety checks and engineering calculations, but they do not replace the hands-on setup performed by certified riggers in the field.

Where humans still win

Physical adaptability and real-time sensory judgment create a formidable barrier against automation. Securing an unbalanced generator, turbine rotor, or structural truss requires nuanced spatial reasoning to judge sling choke angles and balance points that CAD models might oversimplify. Robotic manipulators lack the fine motor dexterity required to inspect wire ropes for broken strands, wrap softeners around sharp steel flanges, and thread heavy bow shackles in tight quarters. Furthermore, dynamic lift environments change instantly; sudden wind gusts, shifting ground beneath outriggers, or minor crane boom deflection demand immediate split-second adjustments. When guide lines and tag lines are live, riggers rely on sight, sound, and tactile feedback to counter sway. They must also execute clear standard OSHA hand signals and two-way radio communications amid deafening background noise from diesel engines, tasks where automated communication systems fail to match human situational awareness.

This job in 2035

Through 2035, employment for riggers is projected to grow by 3.9%, a steady rate driven by infrastructure renewals, renewable energy installations, and large-scale industrial manufacturing. The median pay of $56,420 will likely hold strong or rise for tradespeople who master emerging hybrid workflows. Instead of eliminating headcounts, technology will redefine daily responsibilities. Riggers will spend less time doing manual math on clipboards and more time verifying automated lift plans and interpreting sensor telemetry from smart spreader beams. Wind farm construction, offshore marine platforms, and complex modular building projects will supply steady demand for field labor that algorithms cannot deliver. Robotic lifting devices may handle repetitive pick-and-place tasks inside climate-controlled factories, but uncontrolled construction zones, shipyards, and entertainment staging venues will continue to require human crews. Workers with advanced safety credentials and heavy-rigging experience will see sustained demand as projects push toward tighter tolerances.

Skills that protect you

• Asymmetrical rigging technique, because manually identifying balance points and choke hitches on irregular machinery resists generic automated programming.
• Tagline tension management, because feeling load drift and counteracting swing in variable winds requires human tactile responsiveness.
• Hardware non-destructive field inspection, because detecting internal strand fatigue or damaged pin threads demands tactile inspection and nuanced visual judgment.
• OSHA-standard signaling and communication, because guiding crane operators through blind lifts via hand gestures and radio demands split-second trust and spatial clarity.
• Critical lift rigging plan execution, because reconciling theoretical computer models with real-world site obstructions requires practical on-site troubleshooting.

If you want to move

If you are a rigger looking to build career resilience, specialize in high-consequence niches rather than standard utility lifting. Pursue NCCCO or NCCER Level II rigging and signalperson certifications to position yourself for heavy industrial, nuclear, and offshore crane operations. If you prefer to transition into less physically taxing work, leverage your spatial rigging foundation to become a certified crane operator, safety inspector, or lift director who drafts site-specific lift plans. You could also move laterally into millwright work or structural ironworking, both of which utilize rigging skills while expanding your exposure across diverse mechanical and construction disciplines that software cannot touch.