13 The Case for Personal Protective Equipment
Stephanie Oostman
PPE in the Welding Industry
Personal protective equipment (PPE) is equipment whose design and intention is to protect an individual’s body from the hazards involved in their job or workplace. For welders this includes dust, flying particles, debris, burns, noise, light, radiation, contaminants, and many more. But by wearing proper protection and getting appropriate training, it is possible to work safely in this dangerous field.
PPE Regulations
In Chapter 2, Physical Hazards in the Welding Environment we discussed what welders must be protected from and why. We also introduced the Occupational Safety and Health Administration OSHA), which provides regulations that employers and jobsites in the United States must follow to ensure a safe workplace for employees. Oftentimes this involves things like putting safety guards in place on tools and equipment or requiring fall protection for individuals working above a certain height. But there are times when safety guards, guide rails, and harnesses are not a plausible solution for the hazard at hand, like protecting a welder from the ultraviolet (UV) and infrared (IR) rays on a welding arc. For these hazards, there is PPE for the body to mitigate the risk to the health and well-being of the worker.
There is a list of OSHA regulations regarding proper PPE. We will look over a few specific ones here. But know that this text provides some basic information and knowledge for a new welder to start to work safely. This does not take the place of OSHA or other safety training regarding PPE and its proper use and care.
PPE must meet OSHA 29 CFR 1910.132, which states that PPEt for the face, eyes, head, and extremities must be provided, used, and maintained in a sanitary, reliable condition whenever specific hazards are present.
This means that not only does a worker need to have the required PPE for the task at hand, but it also needs to be kept clean and in working condition for the original purpose the item was designed for. Wearing a fall protection harness is not adequate if the harness is too big or held together with duct tape. It would no longer be in proper working order or capable of doing the task it was designed to do.
OSHA Standard 1910 also states that the employee must be provided training on how to use the equipment, clean it, and fit it properly. It also regulates that the equipment be replaced if the version is considered obsolete or damaged unintentionally on the job. An employer is not required to replace the item if it was intentionally damaged or lost. Employers can also choose to require additional training for the PPE if the employee cannot demonstrate its proper use or changes their jobsite or job.
The American National Standards Institute (ANSI) is another agency that regulates PPE and job safety standards. However, they cannot enforce their requirements; OSHA can regulate enforcement because it is the law. ANSI is often seen as a more specific set of standards created for a certain task, whereas OSHA can be very detailed and provide legal requirements employers must adhere to. Additionally, other federal safety regulations take precedence or are not governed by OSHA regulations. For instance, the Federal Aviation Administration whas its own PPE and safety regulations.
This is a list of OSHA regulations that are directly relevant to welding:
- 1910.252: general requirements for welding, cutting, and brazing;
- 1910.133: eye and face protection;
- 1910.134: respiratory protection;
- 1910.94: ventilation;
- 1910.95: occupational noise exposure; and
- 1910.137: electrical protective equipment.
Care and Storage of PPE
Proper use, wear, and cleaning of PPE is part of the welder’s responsibility, as is keeping the PPE clean, caring for the equipment while it is in their possession, and storing it away after use. For an illustration of the importance of these tasks, consider respirators. When respirator filters become excessively dirty, they are no longer capable of effectively doing their job, exposing the welder to breathing in the toxic fumes the filter was designed to filter out. Therefore, cleaning and maintaining the filter is essential.
It may be that the welding helmet you use on the job is one of many that get circulated in a small shop. Alternatively, many welders purchase their own welding hood/helmet rather than share. However, there may be a time you forget it, lose it, or it gets damaged during a job and then it becomes your task to replace it. Some jobsites will have a loaner on hand.
Inspect your welding hood. Does the headgear inside work or does it constantly flop down over your face while you are moving? Is the screen clean, or is there major debris and burns? Do you need to replace it? Not all welding hoods are auto-darkening and may not have certain features like grind mode, sensitivity settings, or the ability to change to different lens shades. If your hood does have those features, consider whether your battery works.
Over time, electronic welding helmets need to be replaced when the optics no longer work as designed. Working in the wrong optic mode because the needed one stopped working properly can cause damage to your eyes or prevent you from seeing the area to be welded.
If you have a helmet without electronic features, you are less likely to run into some of these issues. Regardless of the type of headgear used, it is important to keep your welding screen clean, clear, and without cracks.
When not worn, safety glasses should be stored in a soft cloth bag so that the lenses don’t get scratched. Hearing protection must be cleaned and replaced frequently. Welders also need to keep their arms, legs, and head covered from sparks and molten metal.
If a company requires certain PPE, they must pay for and provide it—employees should not have to purchase these items themselves. This and other PPE can be a welder’s cap, a bandana, gloves, jeans, a long-sleeved shirt, or a welding jacket. These items may not require special care in keeping them clean after use. However, proper storage of the welding jacket, gloves, boot covers, etc. might be as simple as hanging them in your work locker.
1F: Flat Fillet Test Position
1G: Flat Groove Test Position
2F: Horizontal Fillet Test Position
2G: Horizontal Groove Test Position
3F: Vertical Fillet Test Position
3G: Vertical Groove Test Position
4F: Overhead Fillet Test Position
4G: Overhead Groove Test Position
5F: Multiple Position Fillet Test Position (Pipe axis is horizontal and pipe not rotated)
5G: Horizontal Position Groove Test Fixed Position
6G: Inclined Groove Test Position
6GR: Inclined Groove Test Position with a Restriction Ring
A: Amps
AAC: Air Arc Cutting
ABANA: Artists-Blacksmiths Association of North America
ABS: American Bureau of Shipping
AC: Alternating Current
AD: Anno Domini, medieval latin for in the year of our Lord
AISC: American Institute of Steel Construction
ALARA: As Low As Reasonably Achievable
AM: Additive Manufacturing
ANSI: American National Standards Institute
AOC: United States Architect of the Capitol
API: American Petroleum Institute
ASME: American Society of Mechanical Engineers
ASNT: American Society of Nondestructive Testing
ASTM: American Society of Testing and Materials
AWS: American Welding Society
BBQ: Barbeque
BHN: Brinell Hardness Number
BLM: Bureau of Land Management
BPVC: ASME Boiler and Pressure Vessel Code
°C: Degree Centigrade
CAC: Carbon Arc Cutting
CAC-A: Carbon Arc Cutting - Air
CAD: Computer Aided Design
CAW: Carbon Arc Welding
CBO: United States Congressional Budget Office
CC: Constant Current
cm: centimeter
CV: Constant Voltage
CDC: United States Centers for Disease Control and Prevention
CFH: Cubic Feet Per Hour
CFM: Cubic Feet per Minute
CFR: US Code of Federal Regulations
CJP: Complete Joint Penetration
CL: Center Line
CLAMS: Current, Arc Length, Angle, Manipulation, and Travel Speed
CNC: Computerized Numerical Control
CP: Constant Potential
CPSC: United States Consumer Product Safety Commission
CTWD: Contact Tip to Work Distance
CWI: Certified Welding Inspector
dB: decibel
DC: Direct Current
DCEN: Direct Current Electrode Negative
DCEP: Direct Current Electrode Positive
DCSP: Direct Current Straight Polarity
DCRP: Direct Current Reverse Polarity
DE: Destructive Examination
DIY: Do It Yourself
DLA: United States Defense Logistics Administration
DOC: United State Department of Commerce
DoD: United States Department of Defense
DOE: United States Department of Energy
DOI: United States Department of the Interior
DOL: United States Department of Labor
DOSH: Division of Occupational Safety and Health
DOT: United State Department of Transportation
DP: Deep
DT: Destructive Testing
EBW: Electron Beam Welding
ECT: Eddy Current Testing
°F: Degree Fahrenheit
FCAW: Flux Cored Arc Welding
FCAW-G: Flux Cored Arc Welding - Gas Shielded
FCAW-S: Flux Cored Arc Welding - Self Shielded
FHWA: Federal Highway Administration
FMA: Fabricators & Manufacturers Association of America
FRP: Fiber Reinforced Plastics
FSW: Friction Stir Welding
ft: feet
FW: Flash Welding
GAWDA: Gas and Welding Distributors Association
GMAW: Gas Metal Arc Welding
GMAW-P: Gas Metal Arc Welding - Pulse Spray Transfer
GMAW-S: Gas Metal Arc Welding - Short Circuit
GTAW: Gas Tungsten Arc Welding
HAZ: Heat Affected Zone
HIC: Hydrogen Induced Cracking
Hz: Hertz
IFI: Industrial Fasteners Institute
IIW: International Institute of Welding
INL: Idaho National Laboratory
IPM: Inches Per Minute
IR: Infrared
IQI: Image Quality Indicator
kg: kilogram
ksi: thousand pounds per square inch
L&I: Labor and Industries
LANL: Los Alamos National Laboratory
lbs: pounds
LBW: Laser Beam Welding
LOC: United States Library of Congress
LOF: Lack of Fusion
LLC: Limited Liability Corporation
LLNL: Lawrence Livermore National Laboratory
LT: Leak Testing
m: meter
MAG: Metal Active Gas
MIG: Metal Inert Gas
mm: millimeter
MT: Magnetic Particle Testing
NASA: National Aeronautics and Space Administration
NASCAR: National Association for Stock Car Auto Racing
NAVEDTRA: Naval Education and Training Center
NAVSEA: Naval Sea Systems Command
NDE: nondestructive Examination
NDT: nondestructive Testing
NHRA: National Hot Rod Association
NIOSH: National Institute for Occupational Safety and Health
NPS: National Park Service
NREL: National Renewable Energy Laboratory
NRR: Noise Reduction Rating
OAC: Oxy-acetelyne Cutting
OAW: Oxyacetylene Welding
OFC: Oxy Fuel Cutting
ORNL: Oak Ridge National Laboratory
OSHA: United States Occupational Safety and Hazards Administration
PAC: Plasma Arc Cutting
PAPR: Positive Air Purifying Respirator
PAUT: Phased Array Ultrasonic Testing
PAW: Plasma Arc Welding
PJP: Partial Joint Penetration
PNNL: Pacific Northwest National Laboratory
PPE: personal protective equipment
psi: pounds per square inch
psig: pounds per square inch gauge
PT: Die Penetrant Testing
PW: Projection Welding
PWHT: Post Weld Heat Treatment
pWPS: preliminary Welding Procedure Specification
REA: United States Rural Electrification Administration
RPM: Revolutions per Minute
RSEW: Resistance Seam Welding
RT: Radiographic Testing
RW: REsistance Welding
SAR: Supplied Air Respirator
SAW: Submerged Arc Welding
SDS: Safety Data Sheet
SMAW: Shielded Metal Arc Welding
SS: Stainless Steel
TIG: Tungsten Inert Gas
TSP: Tri Sodium Phosphate
TWA: Time Weighted Average
TYP: Typical
UN: Unless Noted
UNO: Unless Noted Otherwise
USGS: United States Geological Survey
UT: Ultrasonic Testing
UV: Ultraviolet
V: Volts
VT: Visual Testing or Examination
W: Watts
WA: Washington State
WABO: Washington Association of Building Officials
WFS: Wire Feed Speed
WISHA: Washington Industrial Safety and Health Act
WPS: Welding Procedure Specification
WSDOT: Washington State Department of Transportation
WWI: World War I
WWII: World War II