Diversified fall protection: every method OSHA requires and when to use each

Last updated 2026-07-09

What is diversified fall protection and why does OSHA care so much about it?

Diversified fall protection means matching the control to the task instead of buying one solution and slapping it on every job. The word "diversified" earns its place because no single method works everywhere. A fixed guardrail that protects a worker on a permanent mezzanine is useless on a steel erection project. A full-body harness that saves a roofer's life is a nightmare for someone who has to move nonstop down a warehouse aisle.

Falls kill more construction workers than anything else, and they rank near the top across every industry. The Bureau of Labor Statistics counted 865 fatal occupational falls in 2022, out of 5,486 total workplace deaths.^[1] That is roughly one in six workers who died on the job. OSHA's fall protection standards sit at the top of the agency's most-cited list nearly every year: 29 CFR 1926.501 (duty to have fall protection) and 29 CFR 1926.502 (fall protection systems criteria) together drew more than 10,000 citations in fiscal year 2023, the single most-cited cluster the agency tracks.^[2]

The stakes are that plain. OSHA will not let you pick one method and call it done. The agency wants you to assess each task, find the height exposure, and select from a hierarchy of controls. That hierarchy, and the technical spec behind each method, is what this article covers.

What are the OSHA height thresholds that trigger fall protection requirements?

The trigger height changes by industry and task, and mixing them up writes its own citation. General industry starts at 4 feet, construction at 6, longshoring at 8. Here is the full picture.

Setting	Standard	Trigger Height
General industry (walking/working surfaces)	29 CFR 1910.28	4 feet
Construction	29 CFR 1926.501	6 feet
Scaffolds (construction)	29 CFR 1926.451	10 feet
Steel erection	29 CFR 1926.760	15 feet (some tasks)
Longshoring	29 CFR 1918.85	8 feet
Shipbuilding	29 CFR 1915.73	5 feet

General industry got its 4-foot rule under the 2016 walking-working surfaces update, effective January 17, 2017.^[3] Before that, the rules were scattered and contradictory. Now 29 CFR 1910.28 sets one baseline: any unprotected side, edge, or opening at or above 4 feet above the lower level needs protection.

Construction holds at 6 feet under 1926.501, but the task-specific carve-outs will bite you. Residential construction has run under a set of compliance alternatives since a 2011 directive, though OSHA has leaned harder on enforcement since. Roofers on low-slope roofs can use a warning line and a safety monitor if they stay back from the edge, but that option vanishes the second anyone steps past the line.^[13]

Here is the threshold that trips people up. Under 1910.28(b)(3), any hole in a walking surface needs a cover rated to twice the maximum intended load, or guardrails around it, no matter how far the floor below sits. The height trigger does not apply to floor openings. A hole is a hole.

What are the main fall protection methods and what does each actually require?

OSHA recognizes five main methods across its standards. Each carries its own design spec, and each earns its keep in a different situation.

1. Guardrail systems

Guardrails are the control I reach for first. They protect workers passively, need no training to work, and never depend on someone remembering to clip in. Under 29 CFR 1926.502(b), construction guardrails run 42 inches tall (plus or minus 3 inches), take a 200-pound outward force at the top rail, and carry midrails or equivalent infill. General industry under 29 CFR 1910.29 sets the same 42-inch height and 200-pound top-rail strength.

Guardrails get hard on uneven surfaces, at leading edges in construction, and on tasks where hanging the rail is as risky as the work. That is your cue to move to the next option.

2. Personal fall arrest systems (PFAS)

A PFAS has three parts: a full-body harness, a connecting subsystem (lanyard, self-retracting lifeline, or rope grab), and an anchorage. All three have to meet spec. Under 29 CFR 1926.502(d) and 29 CFR 1910.140, PFAS anchorages must support 5,000 pounds per attached worker, or be designed by a qualified person to a 2:1 safety factor. That 5,000-pound number surprises people. A 3/8-inch structural steel beam welded into a building frame usually clears it. A pipe railing or a run of HVAC duct usually does not.

Free-fall distance is the other half of the math. The system has to limit free fall to 6 feet and keep the worker off the lower level. Add it up: free fall (up to 6 feet) + deceleration distance (up to 3.5 feet) + harness stretch (up to 1 foot) + safety margin (at least 1 foot). That is roughly 11.5 feet of minimum clearance under the anchor. If you cannot guarantee that clearance, a PFAS alone is the wrong tool.

3. Safety net systems

Nets go below the work and catch both workers and debris. Under 29 CFR 1926.502(c), a safety net must sit as close as possible below the work surface and never more than 30 feet below it. It has to extend at least 8 feet past the edge on each side when it hangs less than 5 feet below the work level, and at least 13 feet out when it hangs 5 to 10 feet below. Every net gets a drop test with a 400-pound sandbag before first use on a job and after any repair.

Nets show up on bridge work, high-rise concrete, and any job where workers cannot each tie off. They cost real money to rig and inspect, so plenty of small contractors rent them from specialty rigging outfits.

4. Covers

Floor hole covers are simple, but simple is not the same as casual. They have to support twice the maximum intended load, be secured so they cannot slide loose, and be marked "HOLE" or "COVER" on construction sites under 1926.502(i). General industry under 1910.28(b)(3) does not spell out the marking language, but the cover still has to be secured and load-rated.

The cover failure I see most in inspection write-ups: a sheet of plywood with no fastener, no marking, and nobody on site who knew what load it could take.

5. Warning line systems and safety monitors

These are cheap and heavily fenced with limits. Warning lines (rope, wire, or chain strung 34 to 39 inches high, on stanchions that hold 16 pounds of force) draw a visual boundary. They are allowed on low-slope roofs in construction under 1926.502(f), but only when no mechanical equipment runs inside the warning line area. A safety monitor is a designated competent person who watches workers near an unprotected edge and does nothing else while watching.

Both are last resorts, not opening moves. OSHA has said in several letters of interpretation that you have to document why conventional fall protection is infeasible before you fall back on them.^[4]

When is a written fall protection plan actually required by OSHA?

OSHA requires a written fall protection plan when you claim that conventional protection (guardrails, PFAS, or nets) is infeasible or would create a greater hazard. That claim comes up most in steel erection and leading-edge work. Everywhere else, you use conventional systems and skip the formal plan.

For construction, 29 CFR 1926.502(k) lays out the terms: the plan has to be prepared by a qualified person, be site-specific, and stay on the job site. It names each location where conventional systems cannot work, explains why, and describes the alternative measures in place. You update it whenever conditions change.

Steel erection carries its own planning rules under 29 CFR 1926.760. Connectors working up to 30 feet on their connecting activity get some modified rules, but modified is not the same as exempt. The planning still applies.

General industry does not demand a written fall protection plan in the same explicit way. But the written hazard assessment required under 29 CFR 1910.132(d) for PPE selection pushes you to document your fall protection choice for any harness-based system anyway. When an inspector asks why you picked that method, you want the reasoning already on paper.

Small businesses skip this step because it feels like paperwork for its own sake. It is not. If a worker falls and you have no written plan showing you assessed the hazard and chose on purpose, OSHA's willful or repeat citation threshold turns into a live problem, and so does a civil suit. If building a site-specific program sounds like a weekend you will never get back, the SafetyFolio program generator builds a compliant fall protection program in about 15 minutes.

What does a qualified person versus a competent person mean for fall protection?

OSHA uses both terms, and they are not interchangeable. A competent person spots and fixes hazards on site. A qualified person has the credentials to design the fix.

A "competent person" under 29 CFR 1926.32(f) can identify existing and predictable hazards and has the authority to take corrective action. For fall protection, the competent person inspects equipment, oversees assembly of scaffolds and safety nets, and acts as the safety monitor if you use that method. No certification or formal credential required. What they need is real knowledge and authority the company actually granted them.

A "qualified person" under 29 CFR 1926.32(m) holds a recognized degree, certificate, or professional standing, plus the knowledge, training, and experience to solve fall protection problems. When OSHA says a fall protection plan has to be "prepared by a qualified person," it means someone whose standing you could defend, like a licensed engineer or a certified safety professional.

Here is how it shakes out at a small business. Your site foreman is probably your competent person for daily inspections. Your fall protection plan, if you need one, probably needs a PE or a BCSP-credentialed safety professional to sign it. That review costs money. It costs far less than a willful citation, which can run $16,131 per violation as of 2024.^[2]

What OSHA training does fall protection require, and who needs it?

Training rules live in 29 CFR 1926.503 for construction and 29 CFR 1910.30 for general industry. Both say the same core thing: a qualified person has to train every worker who might face a fall hazard, and that training happens before the exposure, not after.

The training has to cover:

• The nature of fall hazards in the work area
• Correct procedures for erecting, maintaining, disassembling, and inspecting fall protection systems
• The use and operation of guardrail systems, personal fall arrest systems, safety nets, warning lines, and safety monitoring systems
• Each worker's role in the safety monitoring system, if you use one
• Correct handling and storage of equipment
• The limits on mechanical equipment during roofing work on low-slope roofs

Retraining kicks in when an employer believes a worker has lost the understanding or skill to use the systems correctly. The standard sets no minimum interval. It is competence-based. So when someone has an incident or a near-miss, retrain them and write it down.

Construction fall protection training does not require a set number of hours or a card. It is outcome-based: the worker has to understand the hazards and the systems, full stop. That said, workers who complete OSHA 30 training cover fall protection in depth, and that documented training helps show due diligence when an inspector shows up. A solid OSHA training foundation pays off here.

Records matter. 29 CFR 1926.503(b) requires written certification of training with the worker's name, the date trained, and the signature of whoever ran it. Keep them on file. Inspectors ask for them by name.

How do you inspect and maintain fall protection equipment?

Inspection is not a suggestion. OSHA requires it before each use under 29 CFR 1910.140(c)(20) for general industry harnesses and under 29 CFR 1926.502(d)(21) for construction PFAS components. A competent person also has to inspect the full system periodically.

On a full-body harness, look for frayed webbing, cracked or broken buckles, bent or dead D-rings, burns, chemical damage, UV degradation (fading or stiffening), and cuts. Find any of these and the harness comes out of service on the spot. Do not repair webbing. Retire it.

Self-retracting lifelines need a pull test on each use. Yank the lanyard out about 12 inches, fast. The lock should catch within a few inches. If it does not catch, the SRL is defective and done.

Anchorage points get inspected before you attach anything. A corroded pipe, a rotted wood beam, or an HVAC support that never carried a human load can fail all at once. When you are not sure, pay a structural engineer to check the capacity.

Most harness manufacturers say retire a harness 5 to 10 years from the date of manufacture, use or no use, because the material breaks down. They also say retire it after any fall, any chemical exposure, and any inspection that turns up damage. Check the label sewn into the harness. The manufacture date is usually stamped right there.

Guardrails get a look before each shift. Watch for loose connections, damaged posts, missing midrails, and toeboard integrity. A guardrail clipped by equipment, bent, and left unrepaired is a citation sitting in plain sight.

What are the most common fall protection violations OSHA cites, and how do you avoid them?

OSHA's top 10 most-cited list has carried fall protection in the top two spots for more than a decade.^[2] These are the specific write-ups that show up over and over.

Missing fall protection entirely. Workers exposed to a fall hazard with nothing in place. It is the most basic violation and the hardest to defend. "We were just about to install it" is not a defense OSHA accepts.

Inadequate anchorage. A harness clipped to ductwork, conduit, or a railing that was never rated for arrest loads. Document your anchorage evaluation before anyone ties off.

Wrong harness fit. A harness too big can let a worker slip through during arrest. Train people to cinch out the slack so no webbing hangs loose.

Lanyard too long. A 6-foot lanyard off an anchor that does not give you 11.5 feet of clearance below. This is a math problem, and you solve it before anyone gets hurt.

Uncovered floor holes. Plywood covers that are not fastened and not marked. Or covers pulled during work and never put back.

No training records. Workers who got trained, but the company kept no paper. Produce the record or pay the citation.

Guardrail height and strength off spec. A rail at 36 inches instead of 42, or a construction rail that folds when you push it. Spec compliance is the whole point.

Beating these comes down to a written procedure, pre-task inspections, and training on the specifics, rather than handing someone a harness and hoping. An incident report after a near-miss is how good programs catch the gap before it kills someone.

Does OSHA allow personal fall restraint systems instead of fall arrest?

Yes, and the difference is the whole point. A personal fall restraint system keeps the worker from reaching the fall hazard at all. A personal fall arrest system stops the fall after it starts. One prevents. One catches.

Under 29 CFR 1910.140, general industry, OSHA recognizes personal fall restraint systems outright. The system has to limit the worker's movement so they cannot reach the unprotected edge, hole, or other hazard. Here is the key contrast with a PFAS: the restraint lanyard does not have to be rated for arrest forces, because if it is sized right, it never sees arrest forces. The anchorage still has to hold the load imposed on it.

Restraint works great for boom lift operation (worker tethered inside the basket, unable to climb out) or work on a flat roof set well back from any edge. It fails the moment the task puts the worker at the edge.

One warning. A restraint system pressed into service as an arrest system is dangerous. If a worker clips into a restraint lanyard and then leans over an edge far enough to fall past the anchor, the arrest forces blow past what the system was built for. Train the difference out loud, every time.

How do different industries approach fall protection differently?

The physics of a fall are the same everywhere. OSHA's specific rules and the practical fixes are not. Here is how the main sectors diverge.

Construction (29 CFR 1926 Subpart M): The most detailed and most-cited set of fall protection rules. Covers roofing, scaffolding (Subpart L/Q), steel erection (Subpart R), and leading-edge work. Scaffolding carries its own standard at 29 CFR 1926.451(g), requiring guardrails and/or PFAS at 10 feet above the lower level.

General industry (29 CFR 1910 Subpart D): The 2016 update overhauled these rules. Covers fixed ladders (new ladders installed after November 19, 2018, need a personal fall arrest system or ladder safety system instead of cages), mezzanines, dock edges, and floor openings.

Shipyard employment (29 CFR 1915): Falls from staging and inside confined spaces are the big hazard. 1915.73 covers scaffolding, and the trigger is 5 feet.

Longshoring (29 CFR 1918): Work on vessels and docks, often with loads swinging overhead. The 8-foot trigger reflects the surfaces people actually work on.

Agriculture (29 CFR 1928): OSHA's ag standards are thin, and farm workers stay among the least protected under federal rules. Some state-plan states, California and Washington among them, run stronger agricultural fall protection requirements.^[5]

If your business crosses industries, say a contractor who does both factory maintenance and new construction, you have to know which standard governs each task. It follows the nature of the work. Repairing machinery in a plant is general industry. Building a new structure is construction, even inside an existing building.

What does a fall protection program actually need to include?

A written fall protection program is not the same as a written fall protection plan. The plan is that narrow document you need only when conventional methods are infeasible. The program is the management system that governs how your whole company handles fall hazards, day in and day out.

At minimum, a solid program includes:

1. Scope and purpose. Which operations and locations does this cover? 2. Hazard identification procedure. How do you assess each site or work area before work starts, and who does it? 3. Selection criteria. When do you use guardrails versus PFAS versus nets? What is your decision logic? 4. Equipment inventory and inspection schedule. What the company owns, when you bought it, when it is next due for inspection, and who is on the hook. 5. Training requirements. Who needs training, what it covers, how it gets documented. 6. Rescue procedures. If a worker hangs in a harness after an arrest, how do you get them down fast? This one is required outright: 29 CFR 1926.502(d)(20) says the employer must provide for prompt rescue. Suspension trauma can turn life-threatening in as little as 15 minutes.^[6] 7. Incident reporting and investigation. Near-misses and incidents are how the program gets better. 8. Program review schedule. Annual at minimum, and after any relevant incident.

If you need a starting point, the SafetyFolio program generator builds fall protection programs that hit every one of these, tuned to your industry and operations.

For how OSHA enforces written program requirements across the board, the OSHA basics section covers the enforcement fundamentals.

How much does fall protection equipment actually cost, and where do small businesses cut corners they shouldn't?

Here is honest pricing. These are street prices as of 2024, and they move with brand, quantity, and supplier.

Equipment	Typical Cost Range
Full-body harness	$50 to $200 per unit
Shock-absorbing lanyard (6 ft)	$30 to $100 per unit
Self-retracting lifeline (20 ft)	$150 to $600 per unit
Portable anchorage connector	$75 to $400 per unit
Temporary horizontal lifeline system	$500 to $3,000+ depending on span
Prefabricated guardrail system (portable)	$800 to $2,500 per section
Safety net (per 10x10 ft panel)	$300 to $700 per panel

The compliance math is not subtle. A basic PFAS for one worker (harness, lanyard, anchorage) runs $150 to $700. The average federal OSHA fall protection citation penalty was $4,786 per violation in fiscal year 2023, and a serious violation can hit $16,131.^[2] A single workplace fatality costs an employer an estimated $1.2 million in direct costs, per OSHA's own figures.^[7] Do that arithmetic once and the harness looks cheap.

Where small businesses cut corners they should not: buying the cheapest harness without checking the fit range (a one-size unit rated for 130 to 220 pounds will not fit a 260-pound worker right), buying a fixed 6-foot lanyard for every situation and skipping the SRL (which wrecks your clearance math), and never budgeting for rescue gear. A suspended worker with no rescue plan is a second emergency stacked on the first.

Where you can economize without risk: rent safety nets instead of owning them, rent temporary horizontal lifelines for short jobs, and buy harnesses in bulk at contractor pricing. OSHA does not require the priciest gear. It requires gear that meets the spec. A mid-range harness from a reputable maker clears the same standard as a premium one.

What should you do immediately after a fall or a near-miss?

The first 30 minutes after a fall set the course for everything after: the medical outcome, your OSHA reporting obligations, workers' comp, and litigation exposure. Move in this order.

Step one is obvious but say it anyway: get the worker medical care. If the arrest engaged and the worker is hanging, get them down now. Suspension trauma can be fatal, so move the worker to a horizontal position fast and get emergency care even if they swear they feel fine, because the symptoms can lag.^[6]

Step two: report it if it qualifies. A fatality goes to OSHA within 8 hours. An in-patient hospitalization, amputation, or loss of an eye goes to OSHA within 24 hours. Report by calling 1-800-321-OSHA or through OSHA's online reporting tool.^[8]

Step three: secure the scene. Do not move equipment or change conditions until you have documented everything with photos, measurements, and witness statements. Investigators go straight to the physical evidence.

Step four: preserve the gear. A PFAS that arrested a fall comes out of service immediately, per manufacturer guidance and 29 CFR 1910.140(c)(20). Tag it, bag it, do not toss it.

Step five: run an investigation, not a blame session. A real root-cause pass: What was the task? What protection was in place? What failed? What change stops it from happening again? Write it down and update your program. Good incident report procedures are the backbone of your OSHA recordkeeping too.

Frequently asked questions

What is the difference between fall prevention and fall protection?

Fall prevention removes the hazard entirely, like using a scissor lift instead of working at a roof edge. Fall protection assumes the hazard exists and controls the risk if someone falls, through guardrails, harnesses, or nets. OSHA's hierarchy prefers prevention first, but most real jobs need a mix of both. Prevention is always cheaper than arrest, and it never depends on someone clipping in.

Do OSHA fall protection rules apply to workers using ladders?

Yes, with task-specific rules. Portable ladder use falls under 29 CFR 1926.1053 (construction) and 29 CFR 1910.23 (general industry), which cover angle, condition, tie-off, and load ratings. Fixed ladders on new general industry installations must have a personal fall arrest system or ladder safety system under the 2016 walking-working surfaces update if they extend more than 24 feet.

Can a worker refuse to work without fall protection in place?

Yes. Workers can refuse work they reasonably believe poses imminent danger of death or serious physical harm, under Section 11(c) of the OSH Act. OSHA also prohibits retaliation against workers who raise safety concerns. The refusal should be in good faith and communicated to the employer before walking off. Documenting the refusal and the reason protects the worker if it comes to a dispute.

How often does fall protection equipment need to be formally inspected by a competent person?

OSHA sets no calendar interval for competent-person inspections of harnesses or anchorages beyond the "before each use" self-check. Most harness manufacturers recommend a formal annual inspection by a competent person on top of pre-use checks, and some specify shorter intervals for high-use gear. Check the manufacturer's documentation. OSHA defers to it on maintenance schedules.

What is suspension trauma and why does it matter for fall protection planning?

Suspension trauma, also called harness-induced pathology, is what happens when blood pools in the legs while a worker hangs motionless in a harness after an arrest. It can cause unconsciousness and cardiac events within 15 to 30 minutes. OSHA requires employers to plan for prompt rescue under 29 CFR 1926.502(d)(20). A rescue plan is not optional. It is part of every compliant program.

Are subcontractors covered by a general contractor's fall protection program?

In construction, the general contractor carries site-wide responsibility under the multi-employer citation policy. A GC can be cited for hazards created by or affecting subs if the GC knew or should have known about the condition. Both the creating employer and the controlling employer can catch citations for the same violation. Do not assume a sub's program covers everyone on site.

What is the OSHA standard for fall protection on roofs specifically?

29 CFR 1926.501(b)(10) covers low-slope roofs (4:12 pitch or less). Workers within 6 feet of the edge need a guardrail, safety net, or PFAS. Beyond 6 feet, a warning line plus safety monitoring is allowed, or any conventional system. Steep-pitch roofs over 4:12 require conventional fall protection at all times. Residential construction has some compliance alternatives under a 2011 OSHA directive.

How do you select the right anchorage point for a personal fall arrest system?

Anchorages must support at least 5,000 pounds per attached worker, or be designed by a qualified person to a 2:1 safety factor, per 29 CFR 1926.502(d)(15). Set the anchor as high and as directly above the work position as you can, to cut free-fall distance. Never use pipe railings, HVAC ductwork, or conduit unless a structural evaluation confirms capacity. When you are uncertain, hire an engineer.

Does OSHA require fall protection for workers using aerial lifts like boom lifts or scissor lifts?

Yes. Under 29 CFR 1926.453, workers in aerial work platforms need platform guardrails plus a personal fall arrest system or restraint attached to the boom or basket. Never tie off to an adjacent structure, because platform movement can create a sudden fall hazard. Scissor lifts require workers to stand on the platform floor, not on the guardrails.

What recordkeeping does OSHA require for fall protection training?

29 CFR 1926.503(b) requires written certification of fall protection training for each worker. The certificate has to list the worker's name, the date of training, and the signature of whoever conducted it. No prescribed form exists, so a simple log works. Keep records for as long as the worker is employed, and longer if you can, in case of a delayed inspection or a lawsuit.

Can employers use a combination of fall protection methods on the same job site?

Not only can they, they usually have to. Different tasks on one site need different fixes. A mezzanine edge gets a permanent guardrail. A leading-edge worker ties off with a PFAS. A floor hole gets a cover. The duty is to protect each worker from each hazard with the method that fits that exposure. Mixing methods is normal and expected.

What OSHA penalties apply to fall protection violations?

As of 2024, OSHA's maximum penalty for a serious violation is $16,131 per violation. Willful or repeated violations reach $161,323 per violation. Fall protection violations often land as serious or willful, especially when the employer was cited before for the same issue. Penalties adjust every year for inflation under the Federal Civil Penalties Inflation Adjustment Act.

How does OSHA's general duty clause relate to fall protection?

Section 5(a)(1) of the OSH Act, the general duty clause, requires employers to protect workers from recognized serious hazards even when no specific standard applies. OSHA cites employers under it for fall hazards that no standard explicitly covers, like unusual work surfaces or novel equipment setups. Having no applicable standard is not a defense. If the hazard was recognized and serious, you owed protection.

Sources

1. Bureau of Labor Statistics, National Census of Fatal Occupational Injuries 2022: 865 fatal occupational falls in 2022, out of 5,486 total workplace fatalities
2. OSHA, Top 10 Most Cited Standards FY2023: Fall protection standards 29 CFR 1926.501 and 1926.502 were the top-cited standards; serious violation maximum penalty is $16,131; willful/repeated is $161,323
3. OSHA, Final Rule Walking-Working Surfaces and Personal Protective Equipment (Federal Register Vol. 81, No. 219, November 18, 2016): 29 CFR 1910.28 sets fall protection trigger at 4 feet in general industry, effective January 17, 2017
4. OSHA, Letter of Interpretation: Use of warning line systems and safety monitors in lieu of conventional fall protection (2013): Employers must document why conventional fall protection is infeasible before relying on warning lines and safety monitors
5. California Department of Industrial Relations, Cal/OSHA: California and other state-plan states have stronger agricultural fall protection requirements than federal OSHA
6. OSHA, Quick Card: Suspension Trauma/Orthostatic Intolerance: Suspension trauma can become life-threatening in as little as 15 minutes; OSHA requires prompt rescue planning under 29 CFR 1926.502(d)(20)
7. OSHA, Adding It Up: The Cost of Falls in Construction (OSHA 3885): OSHA estimates the average direct cost of a single workplace fatality at approximately $1.2 million
8. OSHA, Reporting a Fatality or Severe Injury: Fatalities must be reported to OSHA within 8 hours; in-patient hospitalizations, amputations, and loss of eye within 24 hours
9. OSHA, 29 CFR 1926.502, Fall Protection Systems Criteria and Practices: Construction guardrails must be 42 inches tall, withstand 200-pound force; PFAS anchorages must support 5,000 pounds; safety nets must be drop-tested before first use
10. OSHA, 29 CFR 1910.140, Personal Fall Protection Systems: General industry harnesses must be inspected before each use; anchorages must support 5,000 pounds per worker; equipment must be removed from service after a fall
11. OSHA, 29 CFR 1926.503, Training Requirements for Fall Protection: Written certification of fall protection training required, including worker name, date, and trainer signature
12. OSHA, 29 CFR 1910.28, Duty to Have Fall Protection and Falling Object Protection: Floor holes regardless of height require a cover rated to twice the maximum intended load, or guardrails
13. OSHA, 29 CFR 1926.501, Duty to Have Fall Protection: Construction fall protection trigger is 6 feet; low-slope roofs within 6 feet of edge require guardrail, safety net, or PFAS