OSHA


Which OSHA Regulations Require a Written Plan / Program?

osha written program template sample

When OSHA considers a safety or health hazard to be serious, the agency usually requires written documentation of the steps an employer takes to reduce the risk of injury or protect workers from the hazard. OSHA typically terms this requirement as a written plan (interchangeably known as a written program). While OSHA may reference the need for a program in various regulations, that doesn’t necessarily mean that a business must have that in the form of a written program (think hearing conservation – OSHA says you need to have a program, but does not say that it has to be written).

OSHA Regulations Requiring Written Programs

The following list of general industry regulations require written programs:

  • Hazard Communication (HAZCOM) – 1910.1200
  • Lockout/Tagout (LOTO / Control of Hazardous Energy) – 1910.147
  • Respiratory Protection – 1910.134
  • Process Safety Management (PSM) – 1910.119
  • Personal Protective Equipment (PPE) – 1910.132
  • Bloodborne Pathogens (BBP) – 1910.1030
  • Emergency Action Plans (EAP) – 1910.38
  • Permit Required Confined Spaces (PRCS) – 1910.146
  • Hazardous Waste Operations & Emergency Response (HAZWOPER) – 1910.120
  • Electrical Safety – 1910.304 & 1910.333
  • Fire Prevention Plans (FPP) – 1910.39
  • Laboratory Chemical Safety – Chemical Hygiene Plan (CHP) – 1910.1450
  • Commercial Diving Operations – 1910.420
  • Powered Platforms for Building Maintenance EAP – 1910.66
  • Asbestos – 1910.1001
  • Lead – 1910.1025
  • Silica – 1910.1053

Free Sample OSHA Written Program Templates

If you are looking for sample programs for some of the regulations that require written programs or plans, feel free to download a copy and modify as you see fit.


OSHA Top 10 Citations: 2011-2020

OSHA Top 10 2011 - 2020

2020 OSHA Top Citations – Same as 2019

OSHA announced it’s preliminary findings for the most cited standards for 2020, as revealed in a recent webinar with Safety+Health magazine. Not surprisingly, there were no changes from the 2019 list, with Fall Protection ranking Number 1 for the 10th straight year. Other notable changes were Respiratory Protection (1910.134) jumping to Number 3 from Number 5, Ladders (1926.1053) moving from Number 6 to Number 5, and PPE Eye & Face Protection (1926.102) moving from Number 10 to Number 9.

2020 OSHA Top 10

  1. Fall Protection – General Requirements (1926.501): 5,424 violations
  2. Hazard Communication (1910.1200): 3,199
  3. Respiratory Protection (1910.134): 2,649
  4. Scaffolding (1926.451): 2,538
  5. Ladders (1926.1053): 2,129
  6. Control of Hazardous Energy – Lockout / Tagout (1910.147): 2,065
  7. Powered Industrial Trucks (PITs) (1910.178): 1,932
  8. Fall Protection – Training Requirements (1926.503): 1,621
  9. Personal Protective (PPE) and Life Saving Equipment – Eye and Face Protection (1926.102): 1,369 
  10. Machine Guarding (1910.212): 1,313

Little Change over a 10 Year Period

As you can see from the graphic above (larger version here), only 12 standards have reached the Top 10 over the last decade, with the only changes being:

  • Added:
    • Fall Protection, Training (1926.503)
    • PPE, Eye & Face Protection (1926.102
  • Removed:
    • Electrical, Wiring Methods (1910.305)
    • Electrical, General (1910.303)

Inspections Down in 2020

Inspections by OSHA were down in 2020, primarily due to the impact of the COVID-19 pandemic, and nearly 39% below 2015 levels.


Field Blanks: Why and When to Collect

Quality Assurance in Industrial Hygiene Sampling

Sound industrial hygiene sampling practice requires good quality assurance (QA) practices. QA is defined as:

the maintenance of a desired level of quality in a service or product, especially by means of attention to every stage of the process of delivery or production.

In essence, QA seeks to minimize error and at the same time evaluate sampling performance. Key QA practices include the following:

  • use of standard operating procedures (SOPs) for sample collection and analysis;
  • use of chain-of-custody and sample-identification procedures;
  • instrument standardization, calibration, and verification;
  • technician and analyst training;
  • sample preservation, handling, and decontamination; and
  • use of quality control (QC) samples such as field and transport blanks, duplicates, etc.

Quality Control: Why collect Field Blanks?

One of the methods of quality control in industrial hygiene sampling is through the collection and analysis of “control samples”. Control samples are typically in the form of blanks, duplicates, spiked samples, or split samples. Blanks can be further refined into several categories including: field blanks, transport blanks & media blanks.

  • Field Blanks – determine if there was contamination during the collection stage
  • Transport Blanks – determine if there was contamination during the shipping stage
  • Media Blanks – determine if the media itself is contaminated

Therefore, if quality assurance is our goal, and the use of field blanks (i.e. quality control) are one of our methods for ensuring QA.

How to Collect a Field Blank

Field blanks are clean sampling media and are handled in exactly he same manner as the samples you are collecting, except:

  • No air is drawn through them (for air samples), or no surface is wiped with them (for surface / wipe samples),
  • They are opened and closed quickly in the sampling area and then resealed, and
  • Accompany the actual samples through every stage of the sampling process.

How Many Field Blanks Should I Collect?

The number of field blanks you should collect should be based on a few considerations (in order of importance), including: sample method, reason for sampling, and budget considerations. The sampling method (e.g. NIOSH or OSHA) should dictate how many field blanks you should collect (see image below), based on the number of samples you collect. Typically, the recommended practice is 10% of your number of samples.

What do I do if the Contaminant is Detected in the Field Blank?

If a contaminant is found on the field blank, the field blank contaminant is typically going to be reported as a mass, and not a concentration (remember, no air volume was drawn through the field blank sample). The mass of contaminant found on the field blank will be subtracted from that found on the actual sample before dividing by the air volume to determine the mass concentration of the contaminant. Additionally, it’s important to note the sampling methods often have a permissible limit of contaminant on the field blank. If this level is exceeded, the samples should be discarded and sampling repeated.

If we do not account for the field blank contamination, the industrial hygienist runs the risk of the reported results being biased high, which can lead to: additional sampling or the implementation of potentially unnecessary controls.

Why Don’t Industrial Hygienists Take Field Blanks?

Practicing industrial hygienists don’t take field blanks for several reasons, including: budgets (10% extra costs for “worthless” blanks can seem excessive), improper training, unfamiliarity with the sampling methodology, and they don’t want competence questioned. However, none of these reasons justify forgoing good QA/QC practices to ensure the integrity of your samples.


Can Scaffolding be Used as a Fall Protection Anchor Point?

scaffolding as a fall protection anchor point

Fall Protection Systems – Most Cited, High Risk

Again this year, Fall Protection is #1 in the most frequently cited standards. Combine this fact that 17% of all work related fatalities are related to falls, slips and trips (second only to transportation incidents at 40%) and you can see the importance of ensuring a complete fall protection system is in place to protect our employees. A complete fall protection system can look a number of different ways, including: guardrail systems, safety net systems, and personal fall arrest systems. Scaffolding, when built and used correctly, are considered a guardrail system when completely erected and all safety measures are in place.

Scaffolding & Personal Fall Arrest Systems

Often in industry and construction, employers require the use of a personal fall arrest system (PFAS), more commonly thought of as a harness and lanyard, in two situations when working from scaffolding: 1) because they have a site-wide policy requiring it to be used 100% of the time, or 2) because the scaffolding is incomplete and is missing an element to would classify it as a guardrail system (e.g. top rail missing, one side missing, no swing gate, etc.), resulting in the need to use a combination of approaches (i.e. partial scaffolding & PFAS).

incomplete scaffold tag

ABCD of Personal Fall Arrest Systems

Recall A, B, C, D’s for a personal fall arrest system PFAS.

  • Anchor (rated at least 5,000 pounds per employee or certified and engineer to have a safety factor of two times the applied load).
  • Body Support (full body harness to distribute the load over the entire body).
  • Connecting Devices (think self retracting lifelines or shock absorbing lanyards).
  • Descent / Rescue (what are the tools and training to ensure a safe descent?).

Can Scaffolding be Used as an Anchor Point?

So if we have an employee working from incomplete scaffolding, and we need to ensure a complete fall arrest system, one of the most difficult considerations often focuses around the anchor point. With the most common question being,

Can scaffolding be used as a suitable anchor point? or, Can I tie off to scaffolding with my lanyard?

OSHA addresses this question in a number of letters of interpretation (LoI) for 29 CFR 1926.502 (Fall Protection Systems Criteria and Practices). Below are a few excerpts from some of their LoI.

Does the OSHA Standards Prohibit Tying Off to a Scaffold?

04/11/2005 Q. Do the OSHA standards prohibit tying off to a scaffold?

A. No… It is OSHA’s position that scaffolding can function as a suitable anchorage for fall arrest systems when the scaffolding section so used is erected and braced such that the criteria of §1926.502(d)(15) are met. This applies whether the scaffold is partially built (i.e., being erected or disassembled) or completely built.

Keep in mind, the response states that the criteria of 1926.502(d)(15) must be met. Those criteria include:

Anchorages used for attachment of personal fall arrest equipment shall be independent of any anchorage being used to support or suspend platforms and capable of supporting at least 5,000 pounds (22.2 kN) per employee attached, or shall be designed, installed, and used as follows: as part of a complete personal fall arrest system which maintains a safety factor of at least two; and under the supervision of a qualified person.

OSHA 1925.502

Can Scaffolding function as a Anchorage Point for PFAS?

OSHA is again clear in stating that scaffolding can serve as a suitable anchor, IF, certain conditions are met: it meets the requirements of 1926.502(d)(15).

04/02/1998

It is OSHA’s position that scaffolding can function as a suitable anchorage for fall arrest systems when the scaffolding section so used is erected and braced such that the criteria of 1926.502(d)(15) are met. This applies whether the scaffold is partially built (i.e., being erected or disassembled) or completely built. The provisions of paragraph 1926.502(d)(15) require the anchorage (i.e., the scaffold) either to be capable of supporting at least 5000 pounds, or to be designed, installed, and used as part of a complete personal fall arrest system which maintains a safety factor of at least two.

You are correct that both safety factors — the two to one for the personal fall arrest system and the four to one for the scaffold components — must be maintained. However, the 4 to 1 factor for a component required by section 1926.451(a) applies only to the load which is actually applied or transmitted to the component, not to the total load placed on the scaffold.

While the typical erected scaffold may not withstand the forces imposed by an arrested fall, with proper engineering, a scaffold can be designed so that its components are adequately braced or supported to support such loads. A scaffold should never be used as an anchorage point for a fall arrest system unless it has been properly evaluated by a competent person.

emphasis added

In summary, you must have a competent person “sign-off” on the scaffolding prior to using it as anchor.

Do Scaffolding Manufacturers Allow You to Tie-Off to Their Complete System?

According to Mr. Michael D’Alessio, Director of Engineering at Patent Construction Systems, in the 02/14/1996 LoI, he states,

“No scaffold system in existence in the world today is designed to safely support the kinds of loads that would be imposed upon them by fall arresting systems. For this reason, every major United States manufacturer of scaffolding has signed a letter to the users of our equipment warning against such attachment.”

OSHA responds with an understanding of the concern and reiterates the requirements of 1926.502(d)(15), stating,

“With respect to the question of whether or not scaffolds can be used as anchorage points for personal fall arrest systems, please be advised that we understand the Scaffold Industry Association and the Scaffolding, Shoring & Forming Institute are concerned that scaffolds and scaffold components have not been designed to accept the forces imposed by employee falls. We agree that during the erection and dismantling process the typical scaffold is unable to comply with the criteria of 29 CFR 1926.502(d)(15) which requires the anchorage (i.e. the scaffold) to be capable of supporting at least 5000 pounds per employee attached. The alternative anchorage criteria referenced in 29 CFR 1926.502(d)(15)(i) and (ii) (e.g. a system designed, installed and used under the supervision of a qualified person as part of a complete personal fall arrest system which maintains a safety factor of at least two) may be used if the partially erected or completed scaffold is considered a part of the complete personal fall arrest system criteria and is capable of resisting the forces involved should there be a fall.”

TLDR

In summary, OSHA does not prohibit tying off to scaffolding if the requirements of 1926.502.d.15 are met: anchor capable of supporting at least 5,000 pounds per employee attached, used as part of a complete personal fall arrest system which maintains a safety factor of at least two, and under the supervision of a qualified person.

Additional Reading

Also, check out 5 of the most common OSHA responses to scaffolding questions via OHShub’s post on OSHA Interpretations: 5 Responses to Scaffolding.


Top OSHA Citations for COVID-19 Inspections

Frequently Cited OSHA Standards for COVID-19 Inspections

In conducting COVID-19-related inspections, OSHA has frequently cited employers for violating certain standards. Employers can learn more about those frequently-cited standards and relevant resources in OSHA’s in-depth analysis of Common COVID-19 Citations. Employers must be vigilant to meet all OSHA requirements. The following are examples, to date, of requirements that employers have most frequently failed to follow:

  • Provide a medical evaluation before a worker is fit-tested or uses a respirator.
  • Perform an appropriate fit test for workers using tight fitting respirators.
  • Assess the workplace to determine if COVID-19 hazards are present, or likely to be present, which will require the use of a respirator and/or other personal protective equipment (PPE).
  • Establish, implement, and update a written respiratory protection program with required worksite-specific procedures.
  • Provide an appropriate respirator and/or other PPE to each employee when necessary to protect the health of the employees (ensuring the respirator and/or PPE used is the correct type and size).
  • Train workers to safely use respirators and/or other PPE in the workplace, and retrain workers about changes in the workplace that might make previous training obsolete.
  • Store respirators and other PPE properly in a way to protect them from damage, contamination, and, where applicable, deformation of the facepiece and exhalation valve.
  • For any fatality that occurs within 30 days of a work-related incident, report the fatality to OSHA within eight hours of finding out about it.
  • Keep required records of work-related fatalities, injuries, and illness.

Source: OSHA.gov


How Does OSHA Define Bodily Entry – Confined Space

One of the common questions that OHShub is presented with is, “What does OSHA mean by ‘bodily enter’ when it comes to a confined space?” 

Is this even a confined space?

There are a few different questions here:  The first is defining what it means to “bodily enter” a space when we are looking to determine if that space even meets the OSHA definition of a confined space.  The second is, once we have defined a space as a confined space (or more specifically, a permit required confined space), what constitutes “entering a space.”

Complete body must be able to enter the “confined space”

In the preamble to the Permit Required Confined Space standard, OSHA is clear that for a space to meet the requirement of “large enough and so configured that an employee can bodily enter and perform assigned works”, you must be able to completely bodily enter it.  That is, put your whole body in the space.

While OSHA is concerned that spaces that are too small for complete bodily entry may pose hazards for employees, the Agency did not intend to cover such spaces under the permit space standard. OSHA believes that the NPRM preamble discussion of permit space incidents and of proposed provisions clearly indicates that the proposed rule was intended-to cover only spaces that were large enough for the entire body of an employee to enter.

Source: https://www.osha.gov/FedReg_osha_pdf/FED19930114.pdf

Therefore, as we are attempting to define whether a space is a confined space or not, if I can not put my whole body into the space, I do not meet one of the three requirements for defining as a confined space, therefore it is not a confined space and can not ultimately be a permit required confined space.

Be cognizant of other hazards in a space that is not a confined space

Now this does not mean that this space is “safe”, but far from it.  There may still be hazards associated with the space that we must mitigate to ensure our employees are safe when performing work within it, however, we don’t have to meet the requirements of the permit required confined space standard.

Take a look at OSHA’s Letter of Interpretation providing further guidance (emphasis added):

Scenario: The access to aircraft fuel cells (tanks) are approximately 12 inches wide but many feet in length. Workers remain outside the tank but have their upper extremities and, on occasion, their head extending into the tank to perform the required tasks. The aircraft fuel tank will be drained of its contents, purged of vapor, and monitored for gases and vapors.

Question: Would these tanks be considered confined spaces as defined by OSHA’s Permit-required confined spaces standard, 29 CFR 1910.146.

Reply: If it is possible for the employee to fit his or her entire body within the tanks, then they would be confined spaces under §1910.146. On the other hand, if an employee cannot enter the tanks with his or her entire body due to the size of the tanks’ diameters, then the tanks would not be considered confined spaces. An employee may still be injured or killed as a result of some atmospheric hazard within such a tank; however, the permit-required confined spaces standard is not intended to address all locations that pose atmospheric hazards. Please be advised that the procedures to protect workers from atmospheric hazards within these tanks would be required by other OSHA standards, such as Subpart Z of Part 1910 General Industry Standards.

Source: https://www.osha.gov/laws-regs/standardinterpretations/2008-03-05

Break the plane

The second part of understanding “bodily enter” or “bodily entry” is looking at it from the standpoint of a space that has been defined as a confined space, and more specifically, a permit required confined space.  If the space is question is a permit required confined space, simply breaking the plane of that space is considered entry, and must be done within the requirements as stated in the standard, to include permitting.

Summary: TLDR

Summary: TLDR: If I can’t put my full body in, it can’t be classified as a confined space, therefore bodily entry doesn’t apply. But, break the plane on a confined space, or permit required confined space, and I have bodily entered.


Combustible Dust Accumulations Allowed in the Workplace

If you work in an facility that creates dust, there are several questions you may be asking yourself regarding combustible dust, including:

  • How much dust am I allowed to have on surfaces? Is it 1/4 of an inch, 1/8 of an inch, 1/32 of an inch?
  • Am I at risk for a combustible dust explosion?
  • How do I test to see if my dust is classified as combustible dust?
  • How large of an area can have dust accumulations?
  • How do I determine if I can be cited by OSHA under the walking working surfaces standard (1910.22) or the material handling standard (1910.176).

Combustible Dust, Defined

First off, what is a combustible dust? CCOHS provides the following:

Essentially, a combustible dust is any fine material that has the ability to catch fire and explode when mixed with air. Combustible dusts can be from: most solid organic materials (such as sugar, flour, grain, wood, etc.) many metals, and some nonmetallic inorganic materials.


Some of these materials are not “normally” combustible, but they can burn or explode if the particles are the right size and in the right concentration.


Therefore any activity that creates dust should be investigated to see if there is a risk of that dust being combustible. Dust can collect on surfaces such as rafters, roofs, suspended ceilings, ducts, crevices, dust collectors, and other equipment. When the dust is disturbed and under certain circumstances, there is the potential for a serious explosion to occur. The build-up of even a very small amount of dust can cause serious damage.

Canadian Centre for Occupational Health and Safety

Acceptable Accumulation Levels for Combustible Dust

The Combustible Dust National Emphasis Program references 1/32 inch dust accumulation levels, however this is based on some assumptions, including: uniform distribution of the dust and a bulk density of 75 lb/ft3. However, not all dust meets this density (some are lighter, some are heavier). NFPA 654 allows the dust accumulations to exceed the layer depth criteria of 1/32 inch according to the following equation for materials with bulk densities less than 75 lb/ft3.

Additionally, NFPA 654 states that a dust explosion hazard and dust flash fire hazard are deemed to exist in any building or room where any of the following conditions exists:

  • The total area of nonseparated dust accumulations exceeding the layer depth (LD) criterion is greater than five percent of the footprint area.
  • The area of any single nonseparated dust accumulation exceeding the layer depth (LD) criterion is greater than 1000 ft2.
  • The total volume of nonseparated dust accumulations is greater than the layer depth (LD) criterion multiplied by five percent of the footprint area.
  • The total volume of any single nonseparated dust accumulation is greater than the layer depth (LD) criterion multiplied by 1000 ft2.

Calculate Allowable Combustible Dust Levels

In order to calculate the level of dust accumulations that may be allowed at workplaces for combustible dust you must know the bulk density. Bulk densities depend on may factors, including the type of material (e.g. wood, paper, plastic, other organics, metal, etc.), the dust particle size, and the dust particle shape. However, OSHA compliance officers must take into consideration the bulk density of the dust prior to determining if there is a violation and subsequent citation.

Very low bulk density materials (e.g. paper dust and corn dust – 25 lb/ft3 and 16 lb/ft3, respectively), may not create a deflagration (heating until it burns away rapidly) hazard even at an accumulation level of 1/4 inch, covering over five percent of the floor area or 1000 ft2, whichever is less. Therefore, facilities should determine their dust bulk densities in order to determine the level of accumulation that does not present a combustible dust hazard.

One of the easiest manners to determine bulk densities is to use an online resource, such as:

The referenced bulk densities can then be plugged into the equation below to determine the allowed LD

Example – Allowed Dust Accumulation

For example, for paper dust with a bulk density of 25 lb/ft3, the layer depth criterion is approximately 1/10th of an inch.

Therefore, in this example, a dust explosion hazard and dust flash fire hazard are deemed to exist if:

  • The total area of non separated dust accumulation exceeding 1/10th of an inch over greater than 5 percent of the footprint area, or
  • The area of any single nonseparated dust accumulation exceeding 1/10th of an inch is greater than 1000 ft2, or
  • The total volume of non separated dust accumulations is greater than 1/10th of in inch multiplied by five percent of the footprint area, or
  • The total volume of any single nonseparated dust accumulation is greater than 1/10th of an inch multiplied by 1000 ft2.

How Does OSHA Evaluate Dust Accumulations?

It should be noted that OSHA compliance officers will only likely send samples out for bulk density determination if the material is light (e.g. paper dust, fabric fibers) and the levels of accumulation exceed 1/4 of an inch over 5% of the floor area of a room or building, of 1000 ft2, whichever is less.

However, if dust accumulations are documented to exceed one inch in depth (extending over 5 percent of the floor area or a room or building, or 1000 ft, whichever is less), samples of dust don’t need to be submitted for bulk density determination. The OSHA compliance officer can use the referenced sources as guidance to determine the approximate values for LD and can issue citations without the bulk density determination.

Source: OSHA – Evaluating Hazardous Levels of Accumulation Depth for Combustible Dusts


Training Requirements per the OSHA Standards

Training Requirements in OSHA Standards

Have questions on what training is required for a particular OSHA standard? Look no further.  OSHA has published a resource for all of the OSHA standards.  In this booklet, the training requirements contained in OSHA’s standards are organized into five categories of OSHA standards: General Industry, Maritime, Construction, Agriculture, and Federal Employee Programs. This booklet identifies the training requirements in specific OSHA standards. For information on training techniques and resources for developing training programs, please see Resource for Development and Delivery of Training to Workers. (more…)


FAQ about Tag Lines for Lifts

Definition:  Tag lines, per 1926.1401, means a rope (usually fiber) attached to a lifted load for purposes of controlling load spinning and pendular motions or used to stabilize a bucket or magnet during material handling operations.

  • 1910.180(h)(3)(xvi)  states “…A tag or restraint line shall be used when the rotation of the load is hazardous.”
  • 1926.1417(w) says “A tag or restraint line must be used if necessary to prevent rotation of the load that would be hazardous.”
  • 1926.1431(k)(5) regulates “tag lines must be used when necessary to control the platform.”

When to use:

  • The load suspended by the crane is likely to swing back and forth (due to wind or other external factors) creating a control hazard.
  • The movement or rotation of the load causes a hazardous condition.
  • To help orient a load for proper placement or connection upon landing

(more…)


OSHA Recordkeeping and Recordability: Medical Treatment vs. First Aid

OSHA Recordability Medical Treatment First Aid

Determining what constitutes an OSHA recordable injury can often be a science in itself.  Luckily, the good folks at JJ Keller have put together a list of medical treatments (recordable) vs. first aid (non-recordable) for your reference.  Care categories include:

  • Visits to health care professionals
  • Cuts, lacerations, punctures, abrasions
  • Inoculations
  • Splinters
  • Strains, sprains, dislocations
  • Burns, skin rashes, blisters
  • Bruises, contusions
  • Medications
  • Oxygen
  • Physical therapy (PT)
  • Loss of consciousness

Click below for a .pdf copy of the summary document.

  OSHA Medical Treatment vs. First Aid (52.3 KiB, 1,773 hits)

Want to know what is considered first aid in the eyes of OSHA 29 CFR 1904.7.b.5.ii?  Download OSHA’s first aid list below.

  OSHA First Aid (5.9 KiB, 1,031 hits)

Source: JJ Keller


Occupational Health and Safety Videos for Training and Awareness

worksafebc

If you haven’t had the opportunity, check out WorkSafeBC’s YouTube page.  With over 400 videos, they have something for everyone and are a great training resource.  The subject matter of the videos touches most all areas of occupational health and safety, including:

  • LOTO and electrical safety
  • GHS
  • Forklifts, powered industrial trucks, and mobile equipment
  • Struck-by
  • Fall protection
  • Confined spaces
  • Hot work
  • Asbestos
  • Indoor air quality
  • & much more

Click below to visit WorkSafeBC’s YouTube page

wsbcyoutube

Source: YouTube WorkSafeBC


OSHA Publishes Rule for Confined Spaces in Construction

confinedspace

 
The Occupational Safety and Health Administration issued a final rule to increase protections for construction workers in confined spaces.

Manholes, crawl spaces, tanks and other confined spaces are not intended for continuous occupancy. They are also difficult to exit in an emergency. People working in confined spaces face life-threatening hazards including toxic substances, electrocutions, explosions and asphyxiation.

Last year, two workers were asphyxiated while repairing leaks in a manhole, the second when he went down to save the first – which is not uncommon in cases of asphyxiation in confined spaces.

“In the construction industry, entering confined spaces is often necessary, but fatalities like these don’t have to happen,” said Secretary of Labor Thomas E. Perez. “This new rule will significantly improve the safety of construction workers who enter confined spaces. In fact, we estimate that it will prevent about 780 serious injuries every year.”

The rule will provide construction workers with protections similar to those manufacturing and general industry workers have had for more than two decades, with some differences tailored to the construction industry. These include requirements to ensure that multiple employers share vital safety information and to continuously monitor hazards – a safety option made possible by technological advances after the manufacturing and general industry standards were created.

“This rule will save lives of construction workers,” said Assistant Secretary of Labor for Occupational Safety and Health Dr. David Michaels. “Unlike most general industry worksites, construction sites are continually evolving, with the number and characteristics of confined spaces changing as work progresses. This rule emphasizes training, continuous worksite evaluation and communication requirements to further protect workers’ safety and health.”

Compliance assistance material and additional information is available on OSHA’s Confined Spaces in Construction Web page.