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Personal Protective Equipment

OSHA 1995
Contents
  • Introduction
  • Hazard Assessment
  • Training
  • Head Protection
  • Eye and Face Protection
  • Ear Protection
  • Respiratory Protection
  • Torso Protection
  • Arm and Hand Protection
  • Foot and Leg Protection
  • Other Related Issues
  • Conclusion
  • Other Sources of OSHA Assistance

Introduction
The goal of the Occupational Safety and Health Act of 1970 is to ensure safe and healthful working conditions for working men and women in the nation. This Act, which established the Occupational Safety and Health Administration (OSHA) in the Department of Labor, provides for research, information, education, and training in the field of occupational safety and health and authorizes enforcement of OSHA standards.

The Act covers more than 90 million employees throughout the United States. This landmark legislation, the first national safety and health law, establishes standards requiring employers to provide their workers with workplaces free from recognized hazards that could cause serious injury or death. It also requires the employees to abide by all safety and health standards that apply to their jobs.

Although the aim of this booklet is to assist in providing a safe and healthful workplace, the scope is restricted to preventing employee exposure to unsafe equipment and situations. Words such as "must," "shall," "required," and "necessary" indicate requirements under the OSHA standards. Procedures indicated by "should," "may," "suggested," and "recommended" constitute generally accepted good practices.

Much of the personal protective equipment (PPE) information in this booklet is framed in general terms and is intended to complement relevant regulations and manufacturers' requirements. For more specific information, refer to the OSHA standards collected in Title 29, Code of Federal Regulations (CFR), Parts 1900-1999. In some instances, the standards or this booklet refer to specifications by the American National Standards Institute (ANSI), 11 West 42nd St., New York, NY 10036, and the American Society for Testing and Materials (ASTM), 1916 Race Street, Philadelphia, PA 19103. Employers are encouraged to use the most recent ANSI consensus standards and resolutions to provide protection equal to or greater than Federal OSHA regulations.

Information in this booklet also reflects OSHA's latest revisions to PPE standards (1910.132 through 1910.138) as published in the Federal Register Vol. 59, No. 66, pp. 16334-16364, April 6, 1994. The final rule also contains nonmandatory guidelines for a hazard assessment and a chart identifying the appropriate personal protective equipment for particular hazards.

Personal protective equipment should not be used as a substitute for engineering, work practice, and/or administrative controls. Personal protective equipment should be used in conjunction with these controls to provide for employee safety and health in the workplace. Personal protective equipment includes all clothing and other work accessories designed to create a barrier against workplace hazards. The basic element of any management program for personal protective equipment should be an in-depth evaluation of the equipment needed to protect against the hazards at the workplace. Management dedicated to the safety and health of employees should use that evaluation to set a standard operating procedure for personnel, then train employees on the protective limitations of personal protective equipment, and on its proper use and maintenance.

Using personal protective equipment requires hazard awareness and training on the part of the user. Employees must be aware that the equipment does not eliminate the hazard. If the equipment fails, exposure will occur. To reduce the possibility of failure, equipment must be properly fitted and maintained in a clean and serviceable condition.

Selection of the proper personal protective equipment for a job is important. Employers and employees must understand the equipment's purpose and its limitations. The equipment must not be altered or removed even though an employee may find it uncomfortable. (Sometimes equipment may be uncomfortable simply because it does not fit properly.)

This booklet discusses those types of equipment most commonly used for protection of the head, including eyes and ears and the torso, arms, hands, and feet. The use of equipment to protect against life-threatening hazards also is discussed. Information on respiratory protective equipment may be found in Title 29, CFR, Part 1910.134. The standard should be consulted for information on specialized equipment such as that used by firefighters.


Hazard Assessment
Employers are required to assess the workplace to determine if hazards that require the use of head, eye, face, hand, or foot protection are present or are likely to be present. If hazards or the likelihood of hazards are found, employers must select and have affected employees use properly fitted personal protective equipment suitable for protection from these hazards.

Employers must certify in writing that a workplace hazard assessment has been performed. Defective or damaged personal protective equipment shall not be used.


Training
Before doing work requiring use of personal protective equipment, employees must be trained to know; when personal protective equipment is necessary; what type is necessary: how it is to be worn; and what its limitations are, as well as know its proper care, maintenance, useful life, and disposal. In many cases more than one type of personal protective equipment will provide adequate protection. In those instances employees should be given a choice.

Employers are required to certify in writing that training has been carried out and that employees understand it. Each written certification shall contain the name of each employee trained, the date(s) of training, and identify the subject of the certification.


Head Protection
Prevention of head injuries is an important factor in every safety program. A survey by the Bureau of Labor Statistics (BLS) of accidents and injuries noted that most workers who suffered impact injuries to the head were not wearing head protection [1, p. 2]. The majority of workers were injured while performing their normal jobs at their regular worksites.

The survey showed that in most instances where head injuries occurred employers had not required their employees to wear head protection. Of those workers wearing hard hats, all but 5 percent indicated that they were required by their employers to wear them [1, p. 2]. It was found that the vast majority of those who wore hard hats all or most of the time at work believed that hard hats were practical for their jobs. According to the report, in almost half of the accidents involving head injuries, employees knew of no actions taken by employers to prevent such injuries from recurring.

The BLS survey noted that more than one-half of the workers were struck on the head while they were looking down and almost three-tenths were looking straight ahead. While a third of the unprotected workers were injured when bumping into stationary objects, such actions injured only one-eighth of hard hat wearers [1, p.1]. Elimination or control of a hazard that led to or might lead to an accident should, of course, be given first consideration, but many accidents causing head injuries are of a type difficult to anticipate and control. Where these conditions exist, head protection must be provided to eliminate injury.

Head injuries are caused by falling or flying objects, or by bumping the head against a fixed object. Head protection, in the form of protective hats, must do two things resist penetration and absorb the shock of a blow. This is accomplished by making the shell of the hat of a material hard enough to resist the blow, and by utilizing a shock-absorbing lining composed of headband and crown straps to keep the shell away from the wearer's skull. Protective hats also are used to protect against electrical shock.

The standards recognized by OSHA for protective hats purchased prior to July 5, 1994, are contained in ANSI Requirements for Industrial Head Protection, Z89. 1-1969, and ANSI Requirements for Industrial Protective Helmets for Electrical Workers, Z89.2-1971. The standards for protective helmets purchased after July 5, 1994, are contained in ANSI Personnel Protection -- Protective Headwear for Industrial Workers-Requirements, Z89.1-1986. These and later editions of these standards are available and acceptable for use if they are as effective as the 1986 edition, and should be consulted for details.


Selection
Each type and class of head protector is intended to provide protection against specific hazardous conditions. An understanding of these conditions will help in selecting the right hat for the particular situation.

Protective hats are made in the following types and classes:

  • Type 1 - helmets with full brim, not less than 1 and 1/4 inches wide;
  • Type 2 - brimless helmets with a peak extending forward from the crown.

For industrial purposes, three classes are recognized:

  • Class A - general service, limited voltage protection;
  • Class B - utility service, high-voltage protection; and
  • Class C - special service, no voltage protection.

For firefighters, head protection must consist of a protective head device with ear flaps and a chin strap that meet the performance, construction, and testing requirements stated in Title 29 CFR, 1910.156 (e)(5).

Hats and caps under Class A are intended for protection against impact hazards. They are used in mining, construction, shipbuilding, tunneling, lumbering, and manufacturing.

Class B utility service hats and caps protect the wearer's head from impact and penetration by falling or flying objects and from high-voltage shock and burn. They are used extensively by electrical workers.

The safety hat or cap in Class C is designed specifically for lightweight comfort and impact protection. This class is usually manufactured from aluminum and offers no dielectric protection. Class C helmets are used in certain construction and manufacturing occupations, oil fields, refineries, and chemical plants where there is no danger from electrical hazards or corrosion. They also are used on occasions where there is a possibility of bumping the head against a fixed object.

Materials used in helmets should be water-resistant and slow burning. Each helmet consists essentially of a shell and suspension. Ventilation is provided by a space between the headband and the shell. Each helmet should be accompanied by instructions explaining the proper method of adjusting and replacing the suspension and headband.

The wearer should be able to identify the type of helmet by looking inside the shell for the manufacturer, ANSI designation and class. For example:

Manufacturer's Name
ANSI Z89.1-1969 (or later year)
Class A


Fit
Headbands are adjustable in 1/8-size increments. When the headband is adjusted to the right size, it provides sufficient clearance between the shell and the headband. The removable or replaceable type sweatband should cover at least the forehead portion of the headband. The shell should be of one-piece seamless construction and designed to resist the impact of a blow from falling material. The internal cradle of the headband and sweatband forms the suspension. Any part that comes into contact with the wearer's head must not be irritating to normal skin.
Inspection and Maintenance
Manufacturers should be consulted with regard to paint or cleaning materials for their helmets because some paints and thinners may damage the shell and reduce protection by physically weakening it or negating electrical resistance.

A common method of cleaning shells is dipping them for at least a minute in hot water (approximately 140 F ) that contains a good detergent. Shells should then be scrubbed and rinsed in clear hot water. After rinsing, the shell should be carefully inspected for any signs of damage.

All components, shells, suspensions, headbands, sweatbands, and any accessories should be visually inspected daily for signs of dents, cracks, penetration, or any other damage that might reduce the degree of safety originally provided.

Users are cautioned that if unusual conditions occur (such as higher or lower extreme temperatures than described in the standards), or if there are signs of abuse or mutilation of the helmet or any component, the margin of safety may be reduced. If damage is suspected, helmets should be replaced or representative samples tested in accordance with procedures contained in ANSI Z89.1-1986. This booklet references national consensus standards, for example, ANSI standards, that were adopted into OSHA regulations. Employers are encouraged to use up-to-date national consensus standards that provide employee protection equal to or greater than that provided by OSHA standards.

Helmets should not be stored or carried on the rear-window shelf of an automobile, since sunlight and extreme heat may adversely affect the degree of protection.


Eye and Face Protection
Eye and face protective equipment is required by OSHA where there is a reasonable probability of preventing injury when such equipment is used. Employers must provide a type of protector suitable for work to be performed, and employees must use the protectors. These stipulations also apply to supervisors and management personnel, and should apply to visitors while they are in hazardous areas.

The BLS study found that about 60 percent of workers who suffered eye injuries were not wearing eye protective equipment [2, p.12]. When asked why they were not wearing face protection at the time of the accident, workers indicated that face protection was not normally used or practiced in their type of work, or it was not required for the type of work performed at the time of the accident [2, p. 2; 3, p. 12].

Suitable eye protectors must be provided where there is a potential for injury to the eyes or face from flying particles, molten metal, liquid chemicals, acids or caustic liquids, chemical gases or vapors, potentially injurious light radiation or a combination of these. Protectors must meet the following minimum requirements:

  • Provide adequate protection against the particular hazards for which they are designed;
  • Be reasonably comfortable when worn under the designated conditions;
  • Fit snugly without interfering with the movements or vision of the wearer;
  • Be durable;
  • Be capable of being disinfected;
  • Be easily cleanable; and
  • Be kept clean and in good repair.

Every protector shall be distinctly marked to facilitate identification of the manufacturer.

Each affected employee shall use equipment with filter lenses that have a shade number appropriate for the work being performed for protection from injurious light radiation. The following is a listing of appropriate shade numbers for various operations.


 
            Filter Lenses for Protection Against Radiant Energy
OPERATION      ELECTRODE SIZE (1/32)	  AMPS        MINIMUM PROTECTIVE* 
 
 Shielded       Less than 3/32		Less than 60	          7
 metal arc      3/32-5/32		60-160			  8
 welding 	5/32-8/32		160-250			 10
 	        More than 8/32		250-500			 11	
  
  
 Gas metal				Less than 60		  7
 arc welding				60-160			 10 
 and flux				160-250			 10
 cored arc				250-500			 10
 welding     
  
  
  
 Gas tungsten				Less than 50		  8
 arc welding				50-150			  8
  					150-500			 10 
  
  
 Air carbon	   Light		Less than 500		 10
 arc cutting       Heavy		500-1000	         11
  

  
 Plasma arc				Less than 20		  6
 welding				20-100			  8
  					100-400     		 10 
         				400-800			 11
   
  
 Plasma arc	   Light**              Less than 300		  8
 cutting	   Medium**		300-400			  9
          	   Heavy**	        400-800			 10
  
  
 Torch                           				  3	
 brazing
  
  
 Torch								  2	
 soldering
  
  
 Carbon								 14
 arc welding
  
  
 OPERATION          INCHES           MILLIMETERS      MINIMUM PROTECTIVE* 
                                                            SHADE 
 Gas welding:
 Light 		   Under 1/8		Under 3.2	    4	
 Medium		   1/8-1/2		3.2-150		    5	
 Heavy		   Over 1/2		Over 12.7	    6 	
  
  
  
 Oxygen cutting:
 Light		   Under 1		Under 25	    3
 Medium		   1-6			25-50		    4	
 Heavy		   Over 6		Over 150            5		
 
  
  *  As a rule of thumb, start with a shade that is too dark to
  see the weld zone (the darkest lens carries a value of 10).
  Then go to a lighter shade which gives sufficient view of the
  weld zone without going below the minimum. In oxyfuel gas
  welding or cutting where the torch produces a high yellow
  light, it is desirable to use a filter lens that absorbs the
  yellow or sodium line in the visible light of the (spectrum)
  operation.
  
  **  These values apply where the actual arc is clearly seen.
  Experience has shown that lighter filters may be used when
  the arc is hidden by the workpiece. 
  

OSHA and the National Society to Prevent Blindness recommend that emergency eyewashes be placed in all hazardous locations. First-aid instructions should be posted close to potential danger spots since any delay to immediate aid or an early mistake in dealing with an eye injury can result in lasting damage.
Selection
Each eye, face, or face-and-eye protector is designed for a particular hazard. In selecting the protector, consider kind and degree of hazard, and select the protector accordingly. Where a choice of protectors is given, and the degree of protection required is not an important issue, worker comfort may be a deciding factor. The BLS survey showed that few workers ever complained about poor vision or discomfort with personal eye protection equipment.

The survey noted that the typical injury was caused by flying or falling blunt metal objects. Lacerations, fractures, broken teeth, and contusions were common types of injuries reported.

Persons who use corrective spectacles and those who are required by OSHA to wear eye protection must wear face shields, goggles, or spectacles of one of the following types:

  • Spectacles with protective lenses providing optical correction;
  • Goggles of face shields worn over corrective spectacles without disturbing the adjustment of the spectacles; or
  • Goggles that incorporate corrective lenses mounted behind the protective lenses.

When limitations or precautions are indicated by the manufacturer, they should be communicated to the user and strictly observed.

Over the years, many types and styles of eye and face-and-eye protective equipment have been developed to meet the demands for protection against a variety of hazards.

Goggles come in a number of different styles: eyecups, flexible or cushioned goggles, plastic eyeshield goggles, and foundrymen's goggles. Goggles are manufactured in several styles for specific uses such as protecting against dusts and splashes, and in chipper's, welder's, and cutter's models.

Safety spectacles require special frames. Combinations of normal streetwear frames with safety lenses are not in compliance.

Many hard hats and nonrigid helmets are designed with face and eye protective equipment.

Design, construction, tests, and use of eye and face protection purchased prior to July 5, 1994, must be in accordance with ANSI Z87.1-1968 USA Standard Practice for Occupational and Educational Eye and Face Protection. Protective eye and face devices purchased after July 5, 1994, must comply with ANSI Z87.1-1989, American National Standard Practice for Occupational and Educational Eye and Face Protection.


Fit
Fitting of goggles and safety spectacles should be done by someone skilled in the procedure. Prescription safety spectacles should be fitted only by qualified optical personnel.
Inspection and Maintenance
It is essential that the lenses of eye protectors be kept clean. Continuous vision through dirty lenses can cause eye strain often an excuse for not wearing the eye protectors. Daily inspection and cleaning of the eye protector with soap and hot water, or with a cleaning solution and tissue, is recommended.

Pitted lenses, like dirty lenses, can be a source of reduced vision. They should be replaced. Deeply scratched or excessively pitted lenses are apt to break more readily.

Slack, worn-out, sweat-soaked, or twisted headbands do not hold the eye protector in proper position. Visual inspection can determine when the headband elasticity is reduced to a point below proper function.

Goggles should be kept in a case when not in use. Spectacles, in particular, should be given the same care as one's own glasses, since the frame, nose pads, and temples can be damaged by rough usage.

Personal protective equipment that has been previously used should be disinfected before being issued to another employee.

Also, when each employee is assigned protective equipment for extended periods, it is recommended that such equipment be cleaned and disinfected regularly.

Several methods for disinfecting eye-protective equipment are acceptable. The most effective method is to disassemble the goggles or spectacles and thoroughly clean all parts with soap and warm water. Carefully rinse all traces of soap, and replace defective parts with new ones. Swab thoroughly or completely and immerse all parts for 10 minutes in a solution of germicidal deodorant fungicide. Remove parts from solution and suspend in a clean place for air drying at room temperature or with heated air. Do not rinse after removing parts from the solution because this will remove the germicidal residue which retains its effectiveness after drying.

The dry parts or items should be placed in a clean, dust-proof container, such as a box, bag, or plastic envelope, to protect them until reissue.


Ear Protection
Exposure to high noise levels can cause hearing loss or impairment. It can create physical and psychological stress. There is no cure for noise-induced hearing loss, so the prevention of excessive noise exposure is the only way to avoid hearing damage. Specifically designed protection is required, depending on the type of noise encountered and the auditory condition of employee.

Preformed or molded earplugs should be individually fitted by a professional. Waxed cotton, foam, or fiberglass wool earplugs are self-forming. When properly inserted, they work as well as most molded earplugs.

Some earplugs are disposable, to be used one time and then thrown away. The non-disposable type should be cleaned after each use for proper protection. Plain cotton is ineffective as protection against hazardous noise.

Earmuffs need to make a perfect seal around the ear to be effective. Glasses, long sideburns, long hair, and facial movements, such as chewing, can reduce protection. Special equipment is available for use with glasses or beards.

For more specific information on a hearing conservation program see Title 29 CFR 1910.95 - Occupational Noise Exposure.


Respiratory Protection
Respirators shall be provided by the employer when such equipment is necessary to protect the health of the employee. The employer shall provide the respirators which are applicable and suitable for the purposes intended.

Respirators shall be used in the following circumstances:

  • Where exposure levels exceed the PEL, during the time period necessary to install or implement feasible engineering and work practice controls;
  • In those maintenance and repair activities and during those brief or intermittent operations where exposures exceed the PEL and engineering and work practice controls are not feasible or are not required;
  • In regulated areas; Where the employer has implemented all feasible engineering and work practice controls and such controls are not sufficient to reduce exposures to or below the PEL;
  • In emergencies.

Torso Protection
Many hazards can threaten the torso: heat, splashes from hot metals and liquids, impacts, cuts, acids, and radiation. A variety of protective clothing is available: vests, jackets, aprons, coveralls, and full body suits.
Selection
Wool and specially treated cotton are two natural fibers that are fire-resistant and comfortable since they adapt well to changing workplace temperatures.

Duck, a closely woven cotton fabric, is good for light-duty protective clothing. It can protect against cuts and bruises on jobs where employees handle heavy, sharp, or rough material.

Heat-resistant material, such as leather, is often used in protective clothing to guard against dry heat and flame. Rubber and rubberized fabrics, neoprene, and plastics give protection against some acids and chemicals.

It is important to refer to the manufacturers' selection guides for the effectiveness of specific materials against specific chemicals.

Disposable suits of plasticlike or other similar synthetic material are particularly important for protection from dusty materials or materials that can splash. If the substance is extremely toxic, a completely enclosed chemical suit may be necessary. The clothing should be inspected to ensure proper fit and function for continued protection.


Arm and Hand Protection
Examples of injuries to arms and hands are burns, cuts, electrical shock, amputation, and absorption of chemicals.

There is a wide assortment of gloves, hand pads, sleeves, and wristlets for protection against various hazardous situations.

Employers need to determine what hand protection their employees need. The work activities of the employees should be studied to determine the degree of dexterity required, the duration, frequency, and degree of exposure to hazards and the physical stresses that will be applied.

Also, it is important to know the performance characteristics of gloves relative to the specific hazard anticipated; e.g., exposure to chemicals, heat, or flames. Gloves' performance characteristics should be assessed by using standard test procedures.

Before purchasing gloves, the employer should request documentation from the manufacturer that the gloves meet the appropriate test standard(s) for the hazard(s) anticipated.

The protective device should be selected to fit the job. Employees may need to use gloves--such as wire mesh, leather, and canvas--that have been tested and provide insulation from burns and cuts. The employee should become acquainted with the limitations of the clothing used.

Certain occupations require special protection. For example, electricians need special protection from shocks and burns. Rubber is considered the best material for insulating gloves and sleeves from these hazards. Rubber protective equipment for electrical workers must conform to the requirements established in ANSI as specified in the following list:

  ITEM                                      STANDARD
                            
  Rubber insulating gloves                ASTM D 120-87.
  Rubber matting for use around               
   electrical apparatus                ASTM D 178-88 or 178-93.
  Rubber insulating blankets            ASTM D 1048-93 or 1048-88A.
  Rubber insulating hoods               ASTM D 1048-88 or 1049-93.
  Rubber insulating line hose             ASTM D 1050-90.
  Rubber insulating sleeves               ASTM D 1051-87.
  
  (See 29 CFR 1910.137, Federal Register 59 (20); 4436,
  January 31, 1994)
  

Selection
A number of factors need to be taken into account when choosing a glove for a particular application. In the initial selection process the following are of primary importance:

  • The toxic properties of the chemical or chemicals. In particular, the ability of the chemical to cause local effects on the skin and/or to pass through the skin and cause systemic effects should be known;
  • The work activities being undertaken. These must be studied and account taken of the degree of dexterity required, the duration, frequency and degree of chemical exposure and the physical stresses which will be applied; and
  • The performance characteristics of the gloves. These should be assessed using standard test procedures. Characteristics to be considered include chemical, puncture, tear and abrasion resistance.

Foot and Leg Protection
According to the BLS survey, most of the workers in selected occupations who suffered foot injuries were not wearing protective footwear. Furthermore, most of their employers did not require them to wear safety shoes. The typical foot injury was caused by objects falling fewer than 4 feet and the median weight was about 65 pounds [4, p. 1]. Again, most workers were injured while performing their normal job activities at their worksites.

For protection of feet and legs from falling or rolling objects, sharp objects, molten metal, hot surfaces, and wet slippery surfaces workers should use appropriate footguards, safety shoes, or boots and leggings. Leggings protect the lower leg and feet from molten metal or welding sparks. Safety snaps permit their rapid removal.

Aluminum alloy, fiberglass, or galvanized steel footguards can be worn over usual work shoes, although they may present the possibility of catching on something and causing workers to trip. Heat-resistant soled shoes protect against hot surfaces like those found in the roofing, paving, and hot metal industries.

Safety shoes should be sturdy and have an impact-resistant toe. In some shoes, metal insoles protect against puncture wounds. Additional protection, such as metatarsal guards, may be found in some types of footwear. Safety shoes come in a variety of styles and materials, such as leather and rubber boots and oxfords.

Safety footwear is classified according to its ability to meet minimum requirements for both compression and impact tests. These requirements and testing procedures may be found in American National Standards Institute standards. Protective footwear purchased prior to July 5, 1994, must comply with ANSI Z41.1-1967, USA Standard for Men's Safety-Toe Footwear. Protective footwear purchased after July 5, 1994, must comply with ANSI Z41-1991, American National Standard for Personal Protection-Protective Footwear.


Other Related Issues
A Coast Guard-approved life jacket or buoyant work vest should be used if there is danger of falling into water while working. For emergency rescue operations, boats and ring buoys with at least 90 feet of line must be provided.

Night workers and flagmen who might be struck by moving vehicles need suits or vests designed to reflect light.


Cost Assumption
OSHA interprets its general personal protective equipment standard, as well as specific standards, to require employers to provide and to pay for personal protective equipment required by the company for the worker to do his or her job safely and in compliance with OSHA standards. Where equipment is personal in nature and usable by workers off the job, the matter of payment may be left to labor-management negotiations.

OSHA's 29 CFR 1910.132 through .138 establishes the employer's obligation to provide personal protective equipment to employees as follows:

"Protective equipment, including personal protective equipment for eyes, face, head and extremities, protective clothing, respiratory devices and protective shields and barriers, shall be provided, used and maintained in a sanitary and reliable condition wherever it is necessary by reasons of hazards of processes or environment, chemical hazards, radiological hazards or mechanical irritants encountered in a manner capable of causing injury or impairment in the function of any part of the body through absorption, inhalation, or physical contact."

In order to accommodate work situations in which it is customary, as an exception, for workers in a particular trade to provide their own personal protective equipment, OSHA acknowledges that employees may provide their own equipment, but does not specify that practice as the norm. Instead, the agency underscores the employer's obligation to assure that such equipment is adequate and that it is properly maintained.


Conclusion
To have an effective safety program, one manager must be responsible for its coordination. First-line supervisors must be convinced of the hazard and must be held accountable for their employees' use of personal protective equipment. A safety program for new employees is a necessary part of any orientation program. An on-going safety program should be used to motivate employees to continue to use protective gear.

Teaming the correct personal protective equipment with a good training program can give the worker a large measure of safety where other controls are inadequate or not feasible.

Personal protective equipment can be effective only if the equipment is selected based on its intended use, employees are trained in its use, and the equipment is properly tested, maintained, and worn.

In the final analysis, the best protection comes from an interested management and work force committed to sound work practices.


Other Sources of OSHA Assistance
Safety and Health Management Program Guidelines

Effective management of worker safety and health protection is a decisive factor in reducing the extent and severity of work-related injuries and illnesses and their related costs. To assist employers and employees in developing effective safety and health programs, OSHA published recommended Safety and Health Program Management Guidelines (Federal Register 54(18): 3908-3916, January 26, 1988). These voluntary guidelines apply to all places of employment covered by OSHA.

The guidelines identify four general elements that are critical to the development of a successful safety and health management program:

  • Management commitment and employee involvement;
  • Worksite analysis;
  • Hazard prevention and control; and
  • Safety and health training.

The guidelines recommend specific actions, under each of these general elements, to achieve an effective safety and health program. A single free copy of the guidelines can be obtained from U.S. Department of Labor, OSHA/OSHA Publications, P.O. Box 37535, Washington DC 20210 by sending a self-addressed mail label with your request.


References
  • U.S. Department of Labor. Bureau of Labor Statistics. Accidents Involving Head Injuries. Report 605. Washington, DC: U.S. Government Printing Office, July 1980. 17 Pp.
  • Accidents Involving Eye Injuries. Report 597. Washington, DC: U.S. Government Printing Office, April 1980. 23 Pp.
  • Accidents Involving Face Injuries. Report 604. Washington, DC: U.S. Government Printing Office, May 1980. 20 Pp.
  • Accidents Involving Foot Injuries. Report 626. Washington, DC: U.S. Government Printing Office, January 1981. 22 Pp.


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