Electrocution Is Now the Top Killer on Powered Access Equipment
Ask a crew what kills people on a boom lift and you will hear the same two answers: falling out of the basket, or tipping the machine over. Both are real. Neither is first anymore.
The International Powered Access Federation published its Global Safety Report in September 2026, covering calendar year 2025. Electrocution and electric shock came in ahead of both.
By the numbers
IPAF recorded 76 fatalities involving powered access equipment worldwide in 2025, down from 100 in 2024, a 24 percent decrease.
There were 170 incident reports, down from 201, involving 192 people across 25 countries.
Electrocution and electric shock was the leading cause of fatal and major incidents, with 28 reports from six countries and 20 fatalities in that category.
The United States accounted for roughly 71 percent of reported electrocution incidents.
Construction sites were the most common setting, at 37 percent of incidents, with arboriculture and rental at 13 percent each.
Fatalities involving mast climbing work platforms and construction hoists rose sharply, to 8.
Two cautions on those figures, because they matter for how you use them. IPAF's data is voluntarily reported, so it is a floor rather than a census, and reporting rates differ by country. And the 28 reports and the 20 fatalities are two separate counts in the same category, not a subset of one another: a single report can carry more than one death. The ranking is what to take away, not a precise body count.
The direction is still the useful part. Total deaths fell hard. The electrical share did not fall with them.
Why lifts and power lines keep finding each other
A boom lift is the only piece of equipment on most sites that changes its own working envelope continuously, under the control of a person whose attention is on the work in front of him rather than on the machine. A scissor lift goes up and down in a column. A crane has a lift plan, a signal person and a rigging discussion. A boom lift gets driven to a spot, and then the operator articulates his way toward whatever he came to touch.
The clearance you had at 20 feet is not the clearance you have at 40. Sag on an overhead conductor is greatest at midspan and changes with temperature and load, so the line is not where the drawing put it. And you do not need to touch a conductor to be electrocuted from a platform: arcing across an air gap at distribution voltage is enough, which is why the requirement is stated as an approach distance and not as contact.
Add the ordinary conditions of a jobsite. The lift gets repositioned by somebody other than the person who did the morning survey. The work runs late and the light goes. A second lift shows up and takes the good approach, so the first one comes in from a different angle. Every one of those is a change in the electrical exposure, and none of them triggers a new plan on most sites.
What OSHA actually requires, and what it does not
Aerial lifts in construction are covered by 29 CFR 1926.453, in Part 1926 Subpart L. It is worth knowing exactly what that section does and does not say, because contractors routinely assume more is in there than is.
1926.453(b)(2) sets the operating rules: lift controls tested each day before use, only authorized persons operating, no belting off to an adjacent pole or structure, employees standing firmly on the floor of the basket with no planks or ladders used for a work position, a body belt worn with a lanyard attached to the boom or basket, manufacturer load limits observed, brakes set and outriggers on pads or a solid surface, and no altering the insulated portion of a lift in any way that reduces its insulating value.
What 1926.453 does not contain is a table of minimum clearance distances from energized lines. That is the gap people trip on. The clearance obligation in construction comes from Subpart K instead.
29 CFR 1926.416(a)(1) prohibits an employer from permitting an employee to work in such proximity to any part of an electric power circuit that the employee could contact it in the course of work, unless the employee is protected against electric shock by deenergizing and grounding the circuit, or by guarding it effectively by insulation or other means.
29 CFR 1926.416(a)(3) is the one that should drive your morning. Before work is begun, the employer shall ascertain by inquiry or direct observation, or by instruments, whether any part of an energized electric power circuit, exposed or concealed, is so located that the performance of the work may bring any person, tool, or machine into physical or electrical contact with it. Inquiry, observation, or instruments. Not assumption.
Two related points. The tabulated minimum approach distances in 29 CFR 1926.1408 are written for cranes and derricks in Subpart CC and are not a lift standard, though many contractors adopt them as an internal reference for other equipment.
And ANSI/SAIA A92.22, the safe use standard for mobile elevating work platforms, requires a site risk assessment and a trained, familiarized operator. A92 is a consensus standard rather than a regulation, but owners write it into contracts and OSHA will read it as industry practice.
Before the lift moves: a five-minute survey
Walk the full travel path and the full work radius on foot before the machine is positioned, and look up the entire time. Mark every overhead conductor, service drop and communications line you find.
Treat every line as energized at its highest plausible voltage until the utility says otherwise in writing. A service drop into a temp pole is not obviously low voltage from 30 feet below it.
Set the approach distance as a number, write it on the daily plan, and say it out loud to the operator. A distance nobody has spoken is not a control.
Assign a dedicated spotter whose only job is watching the boom against the line, not watching the load or the work. Agree on a stop signal before the boom leaves the cradle.
Re-survey every time the machine is repositioned, the work scope changes, or a new operator takes the controls. The survey belongs to the setup, not to the day.
If the approach distance cannot be maintained, stop and get the line deenergized, covered, or moved. Insulated line hose and cover-up is utility work, not something a crew improvises.
Frequently asked
Does an insulated boom protect the operator from contact with a power line?
Not reliably, and not as a control you plan around. Insulated aerial devices are rated for specific voltages and depend on their insulating section being intact, clean, dry and tested. 1926.453(b)(2)(xi) prohibits altering the insulated portion in any manner that might reduce its insulating value, which tells you how fragile that protection is. On a general construction lift, treat insulation as a last defense, not a clearance substitute.
Is a body harness required in an aerial lift?
1926.453(b)(2)(v) requires a body belt worn with a lanyard attached to the boom or basket. OSHA has long accepted, and industry practice and ANSI A92 now expect, a full body harness with a work-positioning or restraint lanyard, and body belts are not acceptable for fall arrest under 1926.502(d)(16). On a boom lift the goal is restraint that keeps you in the basket, since the hazard is being catapulted out.
Does the crew need to be trained on the specific machine?
1926.453(b)(2)(ii) limits operation to authorized persons, and ANSI A92.24 covers training with a separate familiarization requirement for each specific model. Being trained on a scissor lift does not authorize somebody on an articulating boom.
Who is responsible for identifying the overhead lines?
The employer, under 1926.416(a)(3), before work begins. It is not the lift operator's personal responsibility to discover the hazard on his way up.
Key Takeaways
Electrocution and electric shock led IPAF's 2025 causes of fatal and major powered access incidents, ahead of falls from the platform and overturns.
Total powered access fatalities fell 24 percent year over year, to 76. The electrical share did not fall with the total.
29 CFR 1926.453 governs aerial lift operation but contains no minimum clearance distances from energized lines.
The clearance obligation comes from 1926.416(a)(1), and 1926.416(a)(3) requires the employer to identify energized circuits by inquiry, direct observation or instruments before work begins.
Re-survey overhead hazards every time the machine is repositioned. The exposure belongs to the setup, not to the shift.
Related reading
Put the overhead survey where the crew will see it
An overhead hazard survey that lives in a binder is not a control. TriCore Safety writes aerial lift and electrical safety procedures that fit on a daily plan, and produces short training video with Spanish subtitles filmed as controlled reenactments using your own equipment and access routes, so the crew is watching their own site rather than a stock clip. Request a quote at tricoresafety.com.
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