Temporary fall protection: what OSHA requires and how to do it right

Last updated 2026-07-09

What is temporary fall protection and when does OSHA require it?

Temporary fall protection is any system installed for a limited time to keep workers from falling off an elevated surface, into a hole, or into a dangerous lower level. It is not permanent railing bolted to a finished structure. It is the guardrail you erect around a roof opening while crews work nearby, the cable strung along the leading edge of a steel frame, or the personal fall arrest system a window installer clips into before stepping onto a scaffold.

OSHA's trigger heights depend on the type of work. For construction (29 CFR 1926.501), the threshold is 6 feet above a lower level ^[1]. For general industry (29 CFR 1910.28), it drops to 4 feet ^[2]. Longshoring is 8 feet. Scaffolding has its own rules at 29 CFR 1926.451. The practical upshot: if you run a construction crew doing anything above ground level, the 6-foot rule controls, and you hit it faster than most employers expect.

Temporary protection is also required at the edges of excavations deeper than 6 feet, at floor holes big enough for a person to fall through, and around open-sided platforms regardless of depth if there is a hazard below (machinery, chemicals, traffic). OSHA does not require any single method. The standard at 29 CFR 1926.502(a) says you must provide one of the accepted systems. Choose the one that fits the task.

One more thing worth knowing: "temporary" is not a loophole. Fall protection has been the single most cited OSHA standard every year since 2011 ^[3]. The word "temporary" describes the installation, not the employer's commitment to it.

What types of temporary fall protection systems does OSHA accept?

OSHA recognizes several accepted systems under 29 CFR 1926.502 for construction and 29 CFR 1910.29 for general industry. Each carries specific performance requirements, not a general description.

Guardrail systems are the most common temporary option on construction sites. The top rail must withstand 200 pounds of force applied in any direction ^[1]. For construction, the top rail sits at 42 inches (plus or minus 3 inches), a midrail at about 21 inches, and the whole assembly must prevent deflection below 39 inches under load. You can use wire rope, pipe, wood, or prefabricated panels, but you have to meet those load specs regardless of material.

Personal fall arrest systems (PFAS) include a full-body harness, a connecting lanyard or self-retracting lifeline, and an anchor point. The anchor must support at least 5,000 pounds per worker attached, or be engineered to a safety factor of 2 with a qualified person's sign-off ^[1]. PFAS must stop a fall within 3.5 feet of free fall and limit total fall distance so the worker does not hit a lower level. That last point is the one people mess up: calculate your clearance before you pick a lanyard length.

Safety nets hang below the work area and must be installed as close as practical below the work surface, no more than 30 feet below ^[1]. Nets need drop tests every 6 months using a 400-pound bag of sand. They show up less often in small-business settings because they take engineering and installation expertise.

Warning line systems are allowed only on low-slope roofs in construction, and only when no mechanical equipment runs between the warning line and the roof edge. The line must be at least 6 feet from the edge (or 10 feet if mechanical equipment is present), rigged at 34 to 39 inches high, and flagged every 6 feet ^[1]. Warning lines do not physically stop a fall. They mark a positioning boundary, and they require a designated person to monitor compliance.

Safety monitoring systems (a competent person watching workers) are an option only on low-slope roofs under narrow conditions, and only when no other system is feasible. Regulators scrutinize these hard because they rely entirely on human vigilance. I would not lean on a safety monitor as your primary protection if any other system is physically possible.

A comparison of the main options:

System	Trigger conditions	Min. anchor/load	Key limitation
Guardrail	Open edge or hole	200 lb top rail force	Fixed work area only
PFAS (harness)	Leading edge, mobile work	5,000 lb per worker	Clearance math required
Safety net	Below work surface	5,000 lb corner load	Requires drop testing
Warning line	Low-slope roof only	16 lb at 200 lb tension	Not a physical barrier
Cable system	Leading edge, wide spans	5,000 lb anchors	Qualified rigging needed

How do cable fall protection systems work and what are OSHA's specs?

A fall protection cable system is a wire rope, typically 3/8-inch to 1/2-inch diameter galvanized steel, strung horizontally between anchor points. It works either as the top rail of a guardrail system or as a horizontal lifeline that workers clip their lanyards to. The two uses carry completely different engineering requirements, and mixing them up is a serious safety error.

Used as a guardrail, the wire rope must be flagged at intervals no greater than 6 feet, and it must meet the same 200-pound load threshold as any other top rail ^[1]. The cable has to be taut enough that it does not sag below 39 inches under a 200-pound load. Rigging tension matters enormously here. A cable that looks tight at installation can sag badly under force. Most cable guardrail systems specify a minimum installation tension, often in the 200 to 250-pound range depending on span length.

Used as a horizontal lifeline, the engineering changes entirely. Horizontal lifelines are not guardrails. Workers clip their lanyards to the cable and move along it. When a fall happens, the forces are not 200 pounds. They can exceed 900 pounds at the cable depending on the fall factor and the number of workers attached. OSHA requires horizontal lifelines to be designed, installed, and used under the supervision of a qualified person ^[1]. That typically means a licensed engineer stamps the design.

Cable systems earn their keep on wide spans, steel erection, and bridge construction where you cannot attach guardrails to an unfinished structure. They are reusable, fast to install once you know the rigging, and they clear the work area better than stanchion-based systems. The tradeoff is the clearance math, which you owe every worker, every time. Cable sag under load adds to the fall distance, and if the anchor points sit below shoulder height, the geometry can drop a worker below the lower level even with a correctly functioning system.

For small businesses, the most practical cable systems are the packaged kits sold by manufacturers like DBI-SALA, Miller by Honeywell, or 3M (I have no affiliation with any of these). They include the cable, end terminals, intermediate cable guides, and turnbuckles, along with load charts for common spans. Still, if you are running the cable as a horizontal lifeline rather than a guardrail rail, get an engineer to review it. An engineering letter costs far less than a fatality or a serious citation.

What does a competent person have to do for temporary fall protection?

OSHA uses the term "competent person" throughout the fall protection standards. The definition at 29 CFR 1926.32(f) is specific: someone who can identify existing and predictable fall hazards, and has the authority to take prompt corrective measures ^[9]. This person does not need a license or a certificate, but they must have demonstrated knowledge, and they must actually hold the power to stop work when they see a hazard.

For temporary fall protection, the competent person's job includes inspecting all equipment before each use, deciding whether a warning line system or safety monitoring system is appropriate (or whether a more protective system is required), supervising installation of guardrails and net systems, and running daily visual checks of anchor points, cable tension, and harness condition.

A competent person is not the same as a qualified person. A "qualified person" under OSHA holds recognized professional credentials, typically an engineer's license, and is required specifically for horizontal lifeline design and certain net installations. Most small business operations need a competent person (which can be trained in-house) plus an engineer's sign-off on anything involving horizontal lifelines.

Do three things: designate your competent person in writing, document their training, and give them real authority. OSHA inspectors ask to speak with the competent person on site. If your crew cannot name one, or if that person cannot articulate the hazards and control measures, you are exposed to a citation regardless of whether the physical systems look okay.

If you need to document your fall protection program quickly, the SafetyFolio program generator can build a written program in about 15 minutes, including the competent person designation and site-specific hazard assessment fields OSHA looks for during an inspection.

What anchor point strength does temporary fall protection require?

The anchor is the weak link most employers underestimate. OSHA's rule is direct: personal fall arrest system anchors must support at least 5,000 pounds per worker attached ^[1]. That is roughly the weight of a mid-size SUV, applied at a single connection point. Most concrete columns and structural steel members handle that load. Wood framing, roof decking, and HVAC curbs often cannot.

If you cannot find a structural anchor that meets the 5,000-pound standard, OSHA allows an alternative: an engineered anchor with a safety factor of at least 2, certified by a qualified person. In practice, a licensed professional engineer assesses the anchor capacity, confirms the safety factor, and documents it. This is not optional, and it is not something you can eyeball.

Temporary roof anchors (the type that screw into a structural member through the decking) are rated by the manufacturer for specific applications. Never exceed the rated load. Never install them in decking alone without hitting a structural member. Inspect them before each use. Many roof anchor failures happen because the installer drove the anchor into the decking substrate rather than into a purlin or rafter.

For cable systems used as horizontal lifelines, anchor loads can run much higher than 5,000 pounds, because the cable geometry amplifies force during a fall. The engineer's design specifies anchor capacity, span length limits, and the maximum number of workers who can attach at once. Ignore any of those limits and the math falls apart.

What OSHA training is required for workers who use temporary fall protection?

Training is a separate requirement from having the equipment in place. Under 29 CFR 1926.503, employers must train each worker who might be exposed to fall hazards ^[8]. The training must cover recognition of fall hazards, the procedures for minimizing them, and how to correctly use the specific fall protection systems in use at that site.

OSHA does not set a minimum number of training hours for fall protection. The standard requires that the training be adequate to the hazard, and that a competent person conduct or supervise it. Retrain any worker whose behavior suggests they do not understand the requirements, and any time site conditions change enough to make previous training outdated.

You must document fall protection training. The record needs the worker's name, the date, and the subject matter covered. If you cannot produce training records during an inspection, OSHA treats it the same as no training at all.

For broader context on OSHA's training framework, see our guide on OSHA training. If your crews rotate or you bring on new workers often, building fall protection training into onboarding is far more reliable than doing it site by site.

One training point gets overlooked constantly: workers must be trained on the rescue plan. If someone goes into suspension in a harness, you have a very short window before suspension trauma becomes a medical emergency. Your training needs to cover what to do after a fall arrest, not only how to prevent one.

What are the most common OSHA citations for temporary fall protection?

Fall protection has topped OSHA's most-cited list every year since the agency began publishing citation data publicly. In fiscal year 2023, fall protection in construction (29 CFR 1926.501) ranked number one with over 7,000 citations ^[3]. The general industry walking-working surfaces standard (29 CFR 1910.28) shows up in the top 10 year after year.

The citations that appear most often in construction fall protection inspections:

• No fall protection at all for workers above 6 feet (the most frequent)
• Inadequate guardrail height or load capacity
• Missing midrails
• Anchor points not meeting the 5,000-pound requirement
• PFAS worn incorrectly (dorsal D-ring not at back, leg straps crossed or loose)
• No training records
• No competent person identified or present
• Horizontal lifelines rigged without engineering

For general industry, the 4-foot threshold catches employers who never thought about mezzanine edges, loading dock doors, or maintenance platforms as fall hazards requiring protection.

Penalties are not trivial. A serious violation carries a maximum penalty of $16,550 per violation as of 2024, and willful or repeated violations can reach $165,514 per violation ^[4]. If OSHA finds a pattern, expect a repeat violation classification, which multiplies the base penalty by a factor of up to 10.

An honest observation: most temporary fall protection citations do not come from employers who do not care. They come from employers who figured the work would take a few minutes, or who assumed a subcontractor had it covered. Neither assumption survives an inspection.

Can you use a warning line instead of guardrails on a roof?

Yes, under specific conditions. OSHA allows warning line systems on low-slope roofs (a slope of 4 in 12 or less) when the work is roofing work and no mechanical equipment runs between the warning line and the roof edge ^[1]. Low-slope roofs cover a large share of commercial flat-roof work, so this option applies more often than you might think.

The warning line must sit at least 6 feet from the roof edge for manually performed work. If mechanical equipment operates near the edge, the line must be at least 10 feet back. The line itself must be flagged at intervals not exceeding 6 feet, rigged to stanchions that each resist a minimum of 16 pounds of force, and kept at a height between 34 and 39 inches ^[1].

Here is the limitation that matters: a warning line does not physically stop anyone. If a worker crosses it, there is nothing between them and the edge. OSHA requires that when workers work between the warning line and the edge, they must use personal fall protection. If your crew might drift toward the edge for any reason (chasing a seam, retrieving a tool, plain inattention), the warning line alone is not adequate.

I would pair a warning line with a designated safety monitor for any crew larger than two or three people on a roof, even where OSHA requires only one or the other. The monitor watches for workers approaching the danger zone and has authority to stop work. It costs nothing except the monitor's attention, and it adds a real layer of protection.

How do you inspect temporary fall protection equipment before use?

Pre-use inspection is required, and it has to be done by someone who knows what to look for. For harnesses and lanyards, that means checking every strap for cuts, fraying, chemical burns, and heat damage; checking every buckle and D-ring for deformation, cracks, and corrosion; and verifying that the stitching at load-bearing points is intact. A harness that has arrested a fall comes out of service immediately, even if it looks fine, because the webbing absorbs energy in a way you cannot see.

For cable systems, inspect the wire rope for broken wires (more than 2 broken wires in any 10-diameter length is a discard criterion), kinks, bird-caging (separation of strands), corrosion, and end termination integrity. Check turnbuckles for proper engagement and locking. Verify that intermediate cable guides are clipped in place and have not slid out of position.

For guardrails, confirm that all connection points are secure, that the system has not been partly dismantled and left unreassembled, and that gates or chains across access points work. On sites where trades rotate, one crew removing a guardrail section to move material and forgetting to reinstall it is surprisingly common.

Document your inspections. This does not need to be elaborate. A dated entry in a site log noting what was inspected and the inspector's name covers most OSHA inspections. What you cannot afford is an inspection showing no records at all. See how to structure your documentation in our guide on incident report practices, which covers the related documentation chain if something does go wrong.

After any weather event (high wind, ice, heavy rain), inspect again before work resumes. Weather can shift anchor points, loosen cable tension, and compromise guardrail stanchion bases in ways you will not spot at a glance.

What written program and documentation does OSHA require for fall protection?

OSHA does not require a written fall protection plan for all employers, but it does require one under specific circumstances. Under 29 CFR 1926.502(k), a written fall protection plan is required when an employer decides to use a non-conventional system because conventional means (guardrails, PFAS, nets) are infeasible or would create a greater hazard ^[11]. The plan must explain why conventional systems are not used, describe the alternative measures in place, and be site-specific and job-specific.

Even when a written plan is not technically mandated, you need documentation of your hazard assessment, your selection of the protection method, training records for each exposed worker, inspection records for all equipment, and designation of your competent person. An OSHA inspector doing a records review will ask for all of it.

For general industry employers dealing with walking-working surfaces under 29 CFR 1910.28 and 1910.29, the standard requires written certification of training and periodic equipment inspections, but the standard text does not explicitly require a full written program. Even so, a written program is the practical way to show compliance and give supervisors clear guidance.

Building a written fall protection program from scratch takes time. SafetyFolio's safety program generator covers fall protection inside a full written program, and it generates the hazard assessment, competent person designation, and training documentation fields that make up the bulk of what OSHA looks for.

The written program should also include your rescue procedure. OSHA expects a plan for retrieving a worker who has fallen and is suspended in their harness. "Call 911" is not an adequate rescue plan, because suspension trauma can cause death within minutes to a few hours ^[5]. Your plan needs to spell out how you will get the worker down, who is responsible, and what equipment is on site.

How much does temporary fall protection cost for a small business?

The range is wide, because the right system depends on your work type, height exposure, and how often you move between sites. Here is an honest breakdown of what you can expect to spend.

A basic PFAS kit (full-body harness, 6-foot shock-absorbing lanyard, and a single anchor sling) runs $150 to $300 per worker from major manufacturers. Self-retracting lifelines (SRLs), which retract the slack automatically and limit fall distance better than a standard lanyard, cost $200 to $600 each depending on length and rated load.

Prefabricated guardrail systems for flat roofs or mezzanines run $400 to $1,500 for a starter kit covering 50 to 100 linear feet, plus roughly $10 to $25 per additional linear foot of weighted-base or penetrating stanchion. Some suppliers rent these for about 15 to 25 percent of purchase price per month, which is worth considering for short projects.

Cable systems are harder to price without knowing the span and anchor conditions. A simple two-post horizontal lifeline kit with hardware costs $500 to $2,000. If you need engineering sign-off on the anchor capacity (which you do for horizontal lifelines), budget $500 to $2,000 for the engineering letter, depending on your location and the complexity of the install.

Where businesses overspend: leaning on a safety monitor system (essentially free, just a person watching) when they could install a cable guardrail for $800 and free up the monitor for productive work. Where they underspend: skipping the engineering review on horizontal lifelines and hoping the anchor holds.

The average cost of a lost-time workers' compensation claim for a fall injury runs roughly $47,000 based on NCCI data ^[6]. A fatal fall averages over $1 million in direct and indirect costs. The gear is cheap next to the alternative.

What should you do if a worker falls while using temporary fall protection?

First: treat it as a potential medical emergency regardless of whether the worker says they feel fine. A fall arrest drives enormous force through the harness, and internal injuries can occur with no obvious external sign. If the worker is suspended, start rescue immediately. Suspension trauma (also called harness-induced pathology) can cause loss of consciousness within minutes as blood pools in the legs and stops returning to the brain ^[5].

If the fall results in a hospitalization, amputation, or loss of an eye, you must report it to OSHA within 24 hours by calling 1-800-321-OSHA or reporting online ^[7]. A worker fatality must be reported within 8 hours. These are hard deadlines. Miss one and you add a citation on top of whatever hazard caused the incident.

Pull all fall protection equipment involved in the fall out of service immediately. The harness, lanyard, and any anchor hardware that absorbed force must be inspected by the manufacturer or a qualified person before any reuse, but realistically most harnesses that have arrested a fall should be retired. Tag them clearly "DO NOT USE" and physically separate them from serviceable equipment.

Document the incident thoroughly. Your report should capture the exact height of the fall, the fall distance, the anchor point and its condition, the equipment worn, what the worker was doing, and any witnesses. This documentation matters for your workers' compensation claim, any OSHA investigation, and your own root cause analysis.

For guidance on structuring that documentation, see our article on incident report writing. OSHA may run a site visit after a reported injury. Your written program, inspection records, and training documentation will be among the first things an inspector requests.

Frequently asked questions

What height triggers fall protection in construction versus general industry?

Construction requires fall protection at 6 feet above a lower level under 29 CFR 1926.501. General industry requires it at 4 feet under 29 CFR 1910.28. Scaffolding has separate rules under 29 CFR 1926.451, requiring protection at 10 feet. These are minimum trigger heights, not recommendations. OSHA can cite you for a fall hazard even below these thresholds if the hazard is severe enough.

Can wire rope or cable be used as a guardrail top rail for temporary fall protection?

Yes. Wire rope is an acceptable material for guardrail systems under 29 CFR 1926.502. It must be flagged at intervals no greater than 6 feet and must withstand 200 pounds of force in any direction without deflecting below 39 inches. The key is installation tension: the cable must be taut enough to meet that load spec across the full span. Manufacturer load charts for your span length will tell you the required pre-tension.

What is the difference between a horizontal lifeline and a guardrail cable for fall protection?

A guardrail cable is a passive barrier. Workers do not connect to it. It must resist 200 pounds of force. A horizontal lifeline is an anchor point workers clip their lanyards to. Fall forces on a horizontal lifeline can exceed 900 pounds depending on sag angle and fall factor. OSHA requires horizontal lifelines to be designed by a qualified person (typically a licensed engineer), while guardrail cables just need to meet the performance spec.

How often do you need to inspect fall protection equipment?

OSHA requires inspection before each use by a competent person. Harnesses and lanyards need pre-use inspection every day. Safety nets require formal drop tests every 6 months under 29 CFR 1926.502(c). Horizontal lifeline systems should be inspected by a qualified person annually or per manufacturer schedule. After any fall arrest event, all equipment involved must be removed from service and formally inspected before any reuse.

Do you need a written fall protection plan for every job?

Not always. A written fall protection plan is required under 29 CFR 1926.502(k) only when you use non-conventional protection methods because conventional ones are infeasible or create greater hazards. However, you still need documentation of your hazard assessment, protection method selection, training records, and competent person designation for every job where workers face fall exposure. In practice, a standing written program is far easier than creating documentation job by job.

What is the 5,000-pound anchor requirement and does it apply to cable systems?

Under 29 CFR 1926.502, personal fall arrest system anchors must support at least 5,000 pounds per attached worker. This applies to any anchor a worker's harness connects to, including cable horizontal lifeline termination points. For horizontal lifelines, the actual forces can exceed 5,000 pounds depending on geometry, which is exactly why OSHA requires engineering sign-off. The 5,000-pound figure is a minimum for single-point anchors, not a ceiling for cable system design loads.

Can a safety monitoring system replace physical fall protection on a flat roof?

Only under very limited conditions. OSHA allows safety monitoring systems on low-slope roofs in construction when other systems are infeasible, but it is the least protective option and draws heavy scrutiny during inspections. The monitor must be a competent person, must be able to see each worker clearly, and must have no other duties while monitoring. For most crews, a warning line system plus a monitor, or a cable guardrail system, is both safer and easier to defend in an inspection.

What happens to a harness after it catches a fall?

It must be removed from service immediately. Harness webbing absorbs kinetic energy during a fall in ways that permanently damage the fibers, even when no visible damage shows. OSHA does not prohibit reuse after inspection, but every major harness manufacturer recommends retiring a harness after any fall arrest event. Tag the harness clearly, separate it from serviceable equipment, and document the retirement. Never put a post-fall harness back in the storage locker without taking these steps.

What training do workers need before using a fall arrest harness?

Under 29 CFR 1926.503, workers must be trained by a competent person to recognize fall hazards and use the specific fall protection system they will use. For harnesses, training must cover correct fit (dorsal D-ring positioning, leg strap adjustment, buckle engagement), connecting to anchor points, understanding free-fall distance and clearance requirements, and the site's rescue procedure. Training must be documented with the worker's name, date, and topics covered. Retraining is required when conditions change.

What OSHA standards cover temporary fall protection in construction?

The primary standards are 29 CFR 1926.500 (scope and definitions), 29 CFR 1926.501 (duty to have fall protection), 29 CFR 1926.502 (fall protection systems criteria and practices), and 29 CFR 1926.503 (training requirements). Steel erection has additional rules at 29 CFR 1926 Subpart R. Scaffolding is covered at 29 CFR 1926.451. OSHA also issues letters of interpretation on specific scenarios, available at osha.gov, that clarify how the standards apply to edge cases.

How close to a roof edge can a warning line be placed?

For manually performed roofing work on a low-slope roof, the warning line must be at least 6 feet from the unprotected edge under 29 CFR 1926.502(f). If mechanical equipment operates on the roof, the line must be at least 10 feet from the edge on the side where equipment works. The line must be flagged every 6 feet, rigged between 34 and 39 inches high, and resist a minimum of 16 pounds of force at the stanchion connection.

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

Suspension trauma, also called orthostatic intolerance, occurs when a worker hangs motionless in a harness after a fall arrest. Blood pools in the legs, reducing return to the heart and brain. Loss of consciousness can occur within minutes, and death is possible within 30 minutes or less in some cases. OSHA expects employers to have a rescue plan that gets a suspended worker down quickly. Telling workers to call 911 and wait is not an adequate plan.

What is the penalty for an OSHA fall protection citation?

As of 2024, a serious OSHA violation carries a maximum penalty of $16,550. A willful or repeat violation can reach $165,514 per violation. OSHA can classify multiple instances of the same violation (for example, three workers without fall protection on the same job) as separate violations, multiplying the total. Repeat violations, where OSHA found a similar hazard at your business within the prior 5 years, receive enhanced penalties.

Do subcontractors need their own fall protection, or is it the general contractor's responsibility?

Both. OSHA's multi-employer worksite policy holds that a controlling employer (typically the general contractor) can be cited for hazards it created or controlled, even for subcontractor workers. A subcontractor can also be cited for exposing its own workers to fall hazards, even if another party created those hazards. In practice, your subcontract should specify who provides and maintains fall protection for each phase of work, and the GC should verify compliance during site walks.

Sources

1. OSHA, 29 CFR 1926 Subpart M: Fall Protection (Construction): Guardrail top rails must withstand 200 lb force; PFAS anchors must support 5,000 lb per worker; warning lines must be at least 6 ft from edge; horizontal lifelines must be designed by a qualified person
2. OSHA, 29 CFR 1910.28: Duty to Have Fall Protection (General Industry): General industry employers must provide fall protection when workers are exposed to falls of 4 feet or more
3. OSHA, Top 10 Most Frequently Cited Standards FY2023: Fall protection in construction (29 CFR 1926.501) has been the single most cited OSHA standard for over a decade, with over 7,000 citations in FY2023
4. OSHA, Penalties (Civil Penalty Amounts): Serious OSHA violations carry a maximum penalty of $16,550; willful or repeat violations can reach $165,514 per violation as of 2024
5. OSHA, Safety and Health Information Bulletin: Suspension Trauma/Orthostatic Intolerance: Suspension trauma can cause loss of consciousness within minutes and death within a short window when a worker hangs motionless in a harness after a fall arrest
6. National Council on Compensation Insurance (NCCI), Workers Compensation Claim Frequency and Severity: Average cost of a lost-time workers compensation fall claim is approximately $47,000 based on NCCI industry data
7. OSHA, Reporting Fatalities and Severe Injuries: Employers must report a fatality within 8 hours and a hospitalization, amputation, or loss of an eye within 24 hours to OSHA
8. OSHA, 29 CFR 1926.503: Training Requirements for Fall Protection: Employers must train each worker exposed to fall hazards; training must be conducted by a competent person and documented with worker name, date, and topics covered
9. OSHA, 29 CFR 1926.32(f): Definition of Competent Person: A competent person is one capable of identifying existing and predictable hazards and who has authorization to take prompt corrective measures
10. Bureau of Labor Statistics, Census of Fatal Occupational Injuries (CFOI) 2022: Falls remain a leading cause of workplace fatalities in construction; BLS CFOI data tracks fatal falls to a lower level by industry annually
11. OSHA, 29 CFR 1926.502(k): Written Fall Protection Plan Requirements: A written fall protection plan is required when conventional fall protection systems are infeasible or create greater hazards; the plan must be site-specific and job-specific
12. OSHA, 29 CFR 1910.29: Fall Protection Systems and Criteria (General Industry): Specifies criteria for guardrail systems, personal fall protection, and safety nets in general industry settings