Category Archives: Protective Clothing

A GUIDE TO LAB LABELING AND BLOODBORNE PATHOGENS (GUEST POST)

A Guide to Lab Labeling & Blood Borne Pathogens  By Jack Rubinger, www.DuraLabel.com, 503-469-3024, jarubinger@graphicproducts.com

Beware of blood borne pathogens. “Fortunately, all bloodborne pathogens including Hepatitis B, Hepatitis C, HIV and other infectious agents transmitted as BBPs can be prevented by use of PPE, engineering controls, work practice controls and strict compliance with safety standards,” said Linda L. Williford, Ph.D. 

One of the most critical applications in laboratories is BBPs which should be identified and labeled. The OSHA BBP standard is a federal law which requires employers and employees to follow certain precautions which contribute to infection control practices. 

Also, OSHA requires labeling specimen containers used for storage, transport or shipping. Traditional paper biohazard labels typically cannot withstand temperature changes without damage. Using BS5609 certified (marine grade) vinyl labeling materials, which withstand temperature and moisture changes, is a better choice for this type of application. 

Steve Halvorson, Assistant Laboratory Director, department of Molecular Virology and Biology at Baylor College of Medicine in Texas, conducts research for clinical studies involving patients and basic science. He tells his story about creating a safety labeling “culture” at his lab. 

Steve trains laboratory staff to comply with the chemical labeling requirements for secondary containers containing common lab reagents. The graduate students in his department learn about the NFPA Diamond system and apply that knowledge in the laboratory setting.   Because he works with graduate students on the road from a Bachelor’s Degree to a PhD, as well as newly arriving faculty, the natural turnover is high and there’s a tremendous loss of institutional knowledge. This requires constant training in the requirements for NFPA labels on secondary containers because many times, clinicians and medical research staff sub-aliquot reagents from industrial bottles.  

“Label durability and clarity is important for laboratorians or researchers that move reagents through a variety of temperatures such as -80C to room temperature. The easier and more useful labeling becomes, the more likely it is to be implemented,” said Dr. Perry Scanlon, Program Director, Associate Professor, Medical Laboratory Science Program, Department of Allied Health Sciences, Austin Peay State University. 

Research labs are dynamic environments with continually changing activities and requirements. At times proper labeling is delayed, forgotten, or takes a back seat to other requirements.  In addition, laboratory staff may not be aware of various labeling materials and their suitability for different environments. For example, containers will sweat when moved from a cold environment to an ambient temperature location. This can result in labels being damaged, the printing smearing, or the label falling off. It is important to use label materials that will withstand moisture and temperature changes. 

Clinical Lab Scientist Alicia D. Santos, M.S.M.T., handles the pre-analytic phase of specimen testing. Her lab labeling challenges are different from Halvorson’s and are important to note.   “We handle specimens with barcode labels drawn by phlebotomists and nurses on the floor. We often see improperly placed barcode labels. The specimen barcode labels are placed in reversed positions, placed too high or too low on the tubes, wrapped around the tube so you cannot see the integrity of the specimen inside, or applied sloppily. All these will cause a barcode not being read or scanned tests will not be run causing delays in testing and patient care,” she warned. 

“A culture of safety must be strongly promoted in all research and clinical laboratories. After all, it is the law. I believe that both basic science and clinical research laboratories should adhere, without exception, to OSHA regulations concerning hazard labeling,” said Williford. 

Halvorson’s group produces many chemicals and reagents in the lab, but often times they may not be fully aware that the hazard characteristics of a substance may need to be communicated to first responders. For example, a 1X PBS (Phosphate Buffered Saline) solution in a laboratory is recognized by most researchers as a non-hazardous reagent used to gently buffer cells. It seems silly to a researcher to place an NFPA label on a bottle of 1X PBS when plain water can be more hazardous to some cells.  

Emergency responders may not know whether IX PBS is hazardous or benign. The NFPA label informs them that this is a substance they do not need to be concerned about. In the near future, the Globally Harmonized System of Chemical Classification (GHS) will use a common and consistent approach to labeling and classifying chemical hazards to ensure optimal environmental health and workplace safety across the world. 

So what’s the big takeaway?   There’s an ongoing need for education, training and review. Constant awareness about proper labeling assures safety within the laboratory environment.

Thanks very much, Jack, for bringing this important issue to our readers.  Any substance improperly marked in a lab could be a huge problem. pb

SAFETY TIPS FOR TWO-WHEELERS!

 

The Month of May recognizes two types of riders: first, Motorcycle Safety Awareness Month, and second, Bike Month.  We felt that this would be a good time to feature both forms of riding,  and the safety factors involved to keep all cyclists safe on the roads. 

The National Highway Traffic Safety Administration (NHTSA) supports Motorcycle Safety Awareness Month.  Temperatures are on the rise and motorcyclists and bicyclists are taking to the roads.  This is the time to remind all drivers to share the highways and streets.  The League of American Bicyclists sponsors Bike Month. This year Bike to Work Week is May 14-18, (so think about it), and Bike to Work Day is Friday, May 18th.  The inaugural Bike to School Day is May 9, 2012.  This is a chance to celebrate the unique power of the bicycle and the many reasons we ride.  Regardless of your reason to ride – commuting to work or school, saving money or time, preserving your health or the environment, exploring your community –  get involved in Bike Month, and possibly recruit more people in your community to ride bikes, as well! 

First, we want to furnish safety tips for bicycle riders; however, many of them apply to motorcyclists, as well. 

  • Follow the rules of the road.
  • Ride with traffic and obey the same laws as motorists.
  • Use the rightmost lane that heads in the direction that you are traveling.
  • Always look back and use hand and arm signals to indicate your intention to stop, merge, or turn.
  • Obey all traffic control devices, such as stop signs, lights, and lane markings.
  • Be visible.
  • Ride where drivers can see you.
  • Wear brightly colored clothing at all times.
  • At night, use a white front light and red rear light or reflector.  Wear reflective tape or clothing.
  • Be Predictable.
  • Ride in a straight line and don’t swerve between parked cars.
  • Do not ride on the sidewalk.
  • Make eye contact with motorists to let them know you are there.
  • Anticipate conflicts.
  • Be aware of traffic around you and be prepared to take evasive action.
  • Be extra alert at intersections.
  • Learn braking and turning techniques to avoid crashes.
  • Wear a helmet.
  • Make sure that the helmet fits on top of your head, not tipped back or forward.
  • After a crash or any impact that affects your helmet, visible or not, replace it immediately. 

Are you aware that over two-thirds of vehicle-motorcycle accidents are caused by drivers, not motorcyclists, and lead to more serious injuries and deaths?  The main reason is that drivers tend to look for other vehicles and don’t notice cyclists until it is too late.  There are no seatbelts on motorcycles, of course, so a rider can easily be thrown off in an accident.  Here are some safety tips for motorcyclists:

  • Practice defensive riding.  Avoid riding in blind spots, use turn signals, and extra caution when passing a vehicle.
  • Position yourself to be seen.  Lane placement will help you see further and others see you.
  • Protective eyewear and protective clothing will serve as a buffer from the impact of an accident.
  • Wear a helmet even if it is not required in your state.  Generally speaking, those who wear a helmet suffer far less head injuries and/or are less seriously injured. 

Last, but not least, here are some safety tips for drivers of automobiles and trucks:

  • Be aware of motorcycles and bicycles at intersections and when they may be making a left turn or changing lanes.
  • Anticipate a rider’s maneuver: obstructions that you do not notice may be deadly for a rider.
  • Don’t follow too closely behind a motorcycle; allow plenty of room. 
  • Be courteous to bicycle riders.
  • Be mindful that motorcyclists and bicyclists have the same rights and privileges as other drivers. 

Increased safety will result in increased awareness.  Drive friendly!  Let’s make it a safe summer for everyone.

 

Source: League of American Bicyclists; NHTSA

MAY IS NATIONAL ELECTRIC SAFETY MONTH

The theme of this year’s National Electrical Safety Month is “Be in the Know about the New.”  Sponsored by the Electrical Safety Foundation (ESFI), a non-profit organization dedicated exclusively to promoting electrical safety in the home, school, and workplace.  This month’s observance is to increase public awareness of electrical hazards in order to reduce the number of electricity-related fires, fatalities, injuries, and property loss.  We often take electricity for granted.  There are new ways of furnishing electricity, such as solar power and wind power.  The electricity that you use in your home travels through an electrical grid, going through an interconnected network of generating plants, transformers, and transmission lines.  

Solar power is derived from sunlight.  Sunlight can be directly utilized, converted in electrical energy, or converted into mechanical energy.  This is an important source of sustainable alternate energy.  Three common types of solar power are:

  •         Passive Solar
  •         Photovoltaic (Solar Cells)
  •         Solar Thermal (Electric Power Plants)

Solar power is advantageous for its cost effectiveness and environmental friendliness.  However, before choosing to install a solar power system for your home there are a variety of considerations.

  •          Your property should have open rooftop space or land that is free of shade five hours per day. 
  •          You should have your home evaluated by a licensed, qualified professional to ensure it can support this new technology.
  •          Only professionals should be hired to install and repair solar panels at your home or workplace.
  •          Building, electrical, and plumbing codes also apply to solar power installations.
  •         Solar power systems present unique safety challenges for fire fighters.  In the event of a fire, inform all officials of the use of solar panels as well as  identify the type used, in order to help them assess the risks. 

Wind power has become more mainstream in recent years.  The power of the wind is harnessed and transformed into electrical energy through the use of wind turbines; when wind blows over the blades of the wheel, it creates lift, causing them to turn.  The blades are connected to a shaft, which turns an electric generator, thus converting kinetic energy into electric energy.

Here again, there are certain aspects that homeowners should consider, such as:

  •          An average annual wind speed of at least 10 mph is considered necessary to make a small wind system economical.
  •          Determine the requirement and costs for connecting your system to the grid by checking with your utility company.
  •          Be sure of your household electricity needs and purchase the correct size wind turbine. 

We have named a couple of new sources of electric energy.  One thing remains: electricity is dangerous.  Here are some things you should know about electrical safety: 

  •          Arcing faults are one of the major causes of more than 50,000 home electrical fires that occur each year in the United States.  This is a dangerous problem caused by damaged, overheated, or stressed electrical wiring or devices.
  •          GFCI’s (Ground Fault Circuit Interrupters are designed to protect people from shock and electrocution.  They constantly monitor electricity flowing in a circuit, and switch off power if they sense any loss of current.  According to the Consumer Product Safety Commission, GFCI’s could prevent over two-thirds of home electrocutions that occur each year.
  •         TRR’s (Tamper Resistant Receptacles) look like regular outlets, but are designed with spring-loaded receptacle cover plates that close off the receptacle openings, or slots.  The 2011 National Electrical Code (NEC) requires installation of TRRs in all new homes because they have proven to be so effective.
  •          Every year in the U.S. more than 2,400 children under ten years old are treated in emergency rooms for electric shock or burns caused by tampering with a wall outlet, which could have been prevented by having TRRs in the home. 

It is estimated that electricity causes 140,000 fires each year.  Electricity kills almost 400 people and injures thousands more annually.  Most could have been avoided with an increased awareness of electrical safety.  Power line contact with construction equipment, ladders, and gardening tools are among the leading cause of electrocutions.  Flickering lights, overloaded circuits, and discolored outlets and light switch faceplates indicate the need for electrical upgrades.  By addressing these hazards, lives can be saved, injuries reduced, and economic losses caused by electrical fires will be lessened.

Utility company personnel are required to wear several types of Personal Protective Equipment, such as special safety glasses with dielectric hinges designed without metal parts, hard hats, antistatic shoes and antistatic coveralls (flame retardant).  

This article was shared with Jack Rubinger,  http://graphicproducts.blogspot.com/2012/04/may-is-national-electrical-safety-month.html 

Source: Electrical Safety Foundation International (ESFI)

 

 

 

HOW TO IMPROVE SAFETY IN THE WORKPLACE (GUEST POST)

Free PPE Guide from Graphic Products Lists 12 Major Workplace Hazard Categories and Required PPE for Each Category

By Jack Rubinger, jarubinger@graphicproducts.com, 503-469-3024

Safety in the workplace is easy to neglect but the price of doing so can be high. Think increased Worker’s Comp and debilitating injuries. Certain procedures have been proven to increase workplace safety. So if you’re serious about safety, conduct an Industrial Facility Safety Audit at your workplace.  One reason? In the U.S. in 2005, OSHA conducted more than 38,700 inspections and over 85,000 violations were issued – almost half were un-programmed or surprise inspections.

Getting Started

Have you stopped and thought about facility-wide safety? If so, what activities were checked and implemented?  The following criteria should determine the task prioritization:

  • ·Accident frequency and severity
  • ·Potential for severe injuries and illness
  • ·New jobs
  • ·Infrequently performed jobs

Encourage co-workers to get on board with safety. Take a closer look at your facility and equipment. Then, re-read all the applicable documentation and chat with coworkers who work in these areas.

When evaluating the facility, assess the following:

  • ·Are workers wearing appropriate PPE – hard hats, boots, reflective vests?
  • ·Warehouse signage. Hazardous carbon monoxide fumes may be present around loading docks and forklifts. Clear all aisles for better traffic flow.
  • · Go through chemical storage areas. Look for spills, exposure to flammable materials, proper air flow and leaks.
  • ·Maintenance shops must be examined for chemicals hazards such as gas, solvents and cleaning supplies and possible electrical (arc flash) and mechanical hazards that need to be identified.
  • ·Ensure large format RTK and arc flash labels (6” x 9” and larger) are used in locations where greater visibility is needed.
  • · Turn off and lock out energy sources when machines are serviced to prevent accidents. Energy sources that can’t be locked out must be tagged out.
  • ·Buildings must comply with the Americans with Disabilities Act (ADA) and Life Safety Code 101. Check exits and restrooms for proper and required signage.
  • ·Conduct a Job Hazard Analysis (JHA).

Consultant James Pryor has conducted and been on the receiving end of many industrial facility safety audits. “The JHA, if conducted properly, is the single most important tool in preventing accidents,” explained Pryor.

JHA steps include:

  • ·Selecting job to be analyzed
  • ·Breaking job into sequences
  • ·Identifying hazards
  • ·Determining preventive measures to overcome hazards

It doesn’t help to develop a to-do list that winds up on a manager’s shelf. Safety action plans should be a work in progress. After the audit has been conducted and changes and corrections have been made, document the following in a safety log book and make it available:

  • ·Have injuries decreased?
  • ·Has exposure to potential hazards decreased?
  • ·Have attitudes changed? This is hard to gauge unless surveys and open discussions are conducted and recorded.
  • ·Have changes been made to increase safety?

While an industrial facility safety audit should result in a mutually-agreeable number of restorative phases to apply, consider this: Do you feel safe at work? If the answer “no,” then you’ve got your work cut out for you.

# # #

Texas America Safety Company and Blog4Safety wish to thank Jack for these instructions on how to keep your workers safe and compliant.  We appreciate the information and hope you will think about following his instructions for a safe workplace. 

OFFSHORE DRILLING SAFETY – Joint Post

Offshore Rig Safety – Joint Post

Pat Brownlee writes for  Texas America Safety Company, (Blog4Safety), http://www.tasco-safety.com/ and David Beastall writes on behalf of Acre Resources,  who recruit for health and safety jobs.

Offshore drilling provides 24 percent of U.S. oil and 25 per cent of U.S. gas supply, but not without inherent occupational risks.

Personnel who work on offshore rigs normally work two weeks on and two weeks off. Their mode of transportation to and from platforms is usually by helicopter, unless situated close enough they can travel by vessel. As a result every employee must be trained on how to be deployed to and from helicopters.

The Gulf of Mexico has a constant flow of helicopter traffic, and the weather over the Gulf varies from fog to strong winds, thunderstorms, and hurricanes. In the United States, personnel safety for offshore drilling requires proper training in compliance with OSHA and American Petroleum Institute Standards.

The Health and Safety Executive in the UK recorded a fall in unintended oil and gas leaks in 2011 with the trend still present leading into the first quarter of 2012. However the HSE findings were that there are still further steps that need to be taken in order to reduce the risk of unnatural environmental disasters and occupational health and safety risks for drilling crews and energy professionals out in the field.

The number of leaks from hydrocarbons is seen as an important KPI and indication of how successful the offshore industries around the world are at managing major risks. Accidents and loss of life show a strong correlation to unintended sea oil and gas leaks.

So how is the offshore energy industry tackling health and safety responsibilities?

Rig specialists in safety are usually required to have a bachelor’s or associate degree in occupational health or public safety. These safety officers or advisors are responsible for emergency planning and implementation, conducting safety audits, and seeing that any safety-related problems are corrected. Offshore rig workers have a different kind of safety culture, as they not only must contend with the hazards of a land-based drilling rig, but the responsibilities that accompany working in a marine environment, and the costs of mistakes that might be made. They must be prepared on what to do in case of a fire or blow-out or other incident.

Demand for health and safety professionals who can provide foresight, analysis and manage the risks heavily involved and associated with high risk occupations and jobs are shown to be increasing demand. This is in part because natural carbon resource and energy suppliers are keen to avoid the potential fallout rather than investing in post disaster management. Such incidents that result in the loss of billions of dollars to put things back on the right track are often later revealed to have been avoidable in the first place were health and safety not ignored or corners cut in an attempt to squeeze down costs.

The last line of defense when something goes wrong on any job, is personal protective equipment, (PPE). Employers are responsible for training workers on how to use their safety gear and enforce the use of these pieces of equipment, which include hardhats, goggles or safety glasses, safety shoes, flotation devices, fire-retardant coveralls, and more.  The PPE any man or woman wears can be the difference between sustaining a minor injury to receiving a permanent disability. The protection it provides is limited, but the use of PPE is crucial.

Ensuring workers are comprehensively trained in how to use the personal protective equipment and potentially lifesaving resources available to them however can make a huge difference when the unexpected happens.

Nearly a year on from the Gulf of Mexico oil spill, the attitudes and corporate culture surrounding the offshore energy industry are now seen to be changing, partly in response to some of the worst man-made environmental disasters experienced within the industry. The Deep Water Horizon oil spill in the Gulf of Mexico involved BP and one of their leased deep sea drilling rigs located within close proximity to the United States. When this exploded, 11 men were killed and many others sustained serious injury in the process alongside the consequences and environmental damage still being felt to this day.

PERSONAL PROTECTIVE CLOTHING ANSWERS

While researching protective clothing,  I checked our parent company,  Texas America Safety Company,( www.tasco-safety.com) and borrowed these charts that will be helpful to those who purchase protective clothing for their employees.  These figures may not be of interest to those who do not require this type of P.P.E.; however, I hope it will help others learn more about all the requirements and research that goes into keeping employees protected from the particular hazards they encounter in their every day jobs.

Industrial Standards

When the Environmental Protection Agency (EPA) designated the Occupational Health and Safety Administration (OSHA) to be responsible for the health and safety of workers in and around areas of hazardous materials and contaminated waste, OSHA responded by formulating an all encompassing compendium of safety regulations that prescribe operating standards for all aspects of OSHA projects. Almost 2 million people are affected by the OSHA Standard today.In 1990, additional standards proposed and developed by the National Fire Protection Association (NFPA) and the American Society for Testing and Materials (ASTM) were accepted by OSHA. NFPA Standard 1991 set performance requirements for totally encapsulated vapor tight chemical suits and includes rigid chemical and flame resistance tests and a permeation test against 21 challenge chemicals.The basic OSHA Standard calls for 4 levels of protection, A through D, and specifies in detail the equipment and clothing requited to adequately protect the wearer at corresponding danger levels.  
  Level A represents the greatest danger of respiratory, eye or skin damage from hazardous vapors, gases, particulates, sudden splash, immersion or contact with hazardous materials. It calls for total encapsulation in a vapor tight chemical suit with self-contained breathing apparatus (SCBA) or supplied air and appropriate accessories. Level A chemical protective clothing can also be manufactured to meet NFPA 1991 specifications.
  Level B situations call for the highest degree of respiratory protection but a lesser need for skin protection. It calls for SCBA or positive pressure supplied air respirator with escape SCBA, plus hooded chemical resistant clothing (overalls and long sleeved jacket; coveralls; one or two piece chemical-splash suit; or disposable chemical-resistant coveralls.

Glossary of Terms

Polypropylene – A breathable material used for non-hazardous environments. Provides protection against dry particulates, paint, and light chemicals.

Tyvek – A material that provides protection in all kinds of industrial applications. Provides an excellent barrier in light splash situations, and dry particulates such as asbestos, lead dust and radioactive dusts. Also provides protection in food processing and painting.

Tyvek QC – Polyethylene coated. Provides excellent lightweight splash protection from many acids and other liquid chemicals, and pesticides.

PE Coated – A polyethylene coating which provides lightweight industrial chemical protection. Not suggested for use with extreme chemicals.

Tychem 9400 – A tough, durable, tear-resistant material which provides excellent protection against a broad range of chemicals.

Tychem SL – A lightweight fabric providing effective and economical protection against a broad range of industrial chemicals, including those used in agriculture and petroleum markets.

Vinyl Aprons, Hemmed – Made of high quality virgin vinyl resistant to acids, alkalis, solvents, chemicals, oils, fats, grease and salt. Provide reliable tear, abrasion and puncture resistance. Used in food processing, meat packing, assembly, restaurant work, and industrial maintenance.

Unhemmed Aprons – Identical to the above, but unhemmed. Used mainly with food processing, industrial maintenance, and other hygienic applications. Unhemmed are more economical.

Die-cut Aprons – Provide medium-duty splash protection and flexibility in industrial applications. Neck straps and tie straps are incorporated in this one-piece design making it even more economical.

Urethane Aprons – These aprons are lightweight, long lasting and very economical where water splash is likely. Ideal for food processing and heavy industrial abrasion areas.

PVC Aprons – Made from a thick 20 mil. PVC material. Used in rigorous work environments. Recommended for use in aircraft production, or battery manufacturing.

Hycar Aprons – Nitrile blend provides reliable abrasion and cut resistance for longer protection against oils, fats, chemicals, acids and grease. These rubber protective aprons can withstand the deteriorating effects of animal fats and greases while remaining flexible in cold environments.

Particulate Holdout – The filtration efficiency of a material, measured by the number of particulates per 100 that can be pulled through the material. Reported for 2 micron size particles.

Penetration Resistance – Material resistance to liquid penetration is measured using ASTM F903 – the outside surface of the material in question is exposed to the test chemical for one hour.

Permeation Resistance – ASTM F739 is used to measure the permeation resistance of materials. Permeation is the molecular movement of chemicals through a material. If exposure to chemical vapors is a concern, this data should be analyzed.

Tensile Strength – The force required to break a material apart by pulling it from opposing directions. Measured in pounds and is reported in two directions.

Burst Strength The force required to break through a material.

MATERIAL PROPERTIES
  DuPont Tyvek® DuPont Tyvek® QC DuPont Tychem® SL
(SARANEX)
DuPont Tychem® BR
(9400)
Basis Weight
(ASTM D3776-85; oz./yd.)
1.2 2.1 3.1 5.3
 
Thickness
(ASTM D1777; mils)
5.3 6 7.1 21
 
Strip Tensile
(ASTM D1682; MD lbs./in./CD lbs.)
7.9/7.6      
 
Work to Break
(ASTM D1682; MD in.-lbs./CD in.-lbs.)
2.4/2.1      
 
Tongue Tear
(ASTM D2261; MD lbs./in./CD lbs./in.)
2.2/2/4      
 
Breaking Strength–Grab
(ASTM D1682-64, Sec. 5.3; MD lbs./CD lbs.)
  25/35 43/45 99/95
 
Mullen Burst
(ASTM D3786-87; psi)
  66 65 190
 
Tearing Strength–Trapezoid
(ASTM D1117-80; MD lbs./CD lbs.)
  7//5 11//10 25/24
 
Flammability
(CS-191-53; Section 1610)
Class 1 Class 1 Class 1 Class 1
 
Shelf Life
(Years)
5 10 4 10
  SARANEX 23P SARANEX 23P SARANEX 23P SARANEX 23P
WHICH GARMENTS SUIT YOUR WORK ENVIRONMENT?
TYPE MATERIAL USAGE FEATURES
Dry Particulate DuPont Tyvek® Limited Excellent barrier to many harmful dry particulates including asbestos, lead dust, glass-reinforced fibers and radioactive dusts.
  Polypropylene Limited Greater breathability than Tyvek, but not the same protection. Use for non-hazardous, low-linting applications; i.e. non-toxic spraying.
 
Chemical Protective Polycoated Du Pont Tyvek® QC Limited Tyvek which has been “quality coated” with 1.25 mils polyethylene. Offers splash protection against many inorganic acids, bases and other liquid chemicals.
  Dupont Tyvek®/Saranex® 23-P Limited A laminate of Dupont Tyvek® and Saranex 23-P film. Offers an effective barrier against a broader range of chemicals than polycoated Tyvek.
  Dupont Tychem® BR
(9400)
Limited Excellent chemical resistance against a broad range of chemicals. Strong and durable, and offers the low cost, convenience and safety of a limited-use fabric. Used in Haz- Mat, industrial & other chemical applications.
  Hycar Reusable Nitrile rubber offers excellent chemical resistance and maximum wear.
  Vinyl Reusable Withstands fats, grease & cold; comfortable.
 
Cut & Abrasion Denim Reusable Abrasion resistant.
  Hycar Reusable Nitrile rubber; excellent wear.
  Du Pont KEVLAR® (knit & weave) Reusable Excellent cut resistance.
 
General Purpose Denim & Cotton Reusable Multi-purpose use.
  Poly Cotton Reusable Multi-purpose use.
  Leather Reusable Multi-purpose use.
     

Hopefully, these charts from Texas America Safety Company will answer questions you have regarding the most suitable protective clothing.  Once you have made your choice, training and proper maintenance of the PPE should be mandated.  T.A.S.C.O. can answer your questions about the right selections in all types of safety wear; and, remember, if you mention Blog4Safety with an order, you will receive a 5% Discount!

THE IMPORTANCE OF EYE PROTECTION

Safety standards cover various kinds and classes of eye and face protection, including glasses with and without side shields, eyecup goggles, goggles, welding helmets, and face shields.  Safety glasses are both non-prescription and prescription, and are common items of personal protective equipment, PPE.  Some look like regular glasses, and are available in sleek frames that offer protection, as well as looking stylish, yet less expensive as those found in optical stores.  Special tasks such as grinding, woodworking, chemical spraying, degreasing and gas cutting and welding require safety goggles.  When choosing goggles, be sure that they seal around the face – there should be no gaps.  Goggles should have an adjustable strap.  Do not pull the strap so tight that the lens distorts your vision or the goggles hurt your face. 

Be sure that the safety eyewear is appropriate for the particular hazards of the job.  For those that work where there is debris flying around in the air, goggles would be the best choice.  Some glasses work well with side shields, which fit the temple of the frames and protect the sides of the eyes.  There are safety glasses that fit over prescription glasses (OTG’s).  A qualified person should assist in the proper fitting of protective eyewear.  Special attention must be paid to the eye, temple areas, and bridge.  If glasses are not secure, they will slip down the nose when the head is tilted downward. 

Women who wear safety goggles and glasses often have more problems with fit and comfort.  Some goggles are “one size fits all”, and may be too big.  This can be a serious health and safety hazard if gaps around the seal to the face allow flying objects and particles, sparks, chemicals, or other substances to enter the eye area.  Fogging of the lenses is common and can lead to accidents; this may be the result of poor ventilation.  Mishaps can occur if the wearer takes his/her goggles off to clear them and is hit by flying debris, or if she/he cannot see well enough to do work properly. 

The company should require that their employees have their eyes checked annually by a doctor to determine if and what kind of prescription eyewear is needed.  For those who work outdoors, safety glasses that furnish UV protection are a must.  These lenses are also helpful in protecting the eyes from bright sand, snow, or the reflections off lakes or rivers.    Texas America Safety Company features small safety glasses that fit women, small men and children.    Companies have long been designing vests, coveralls, harnesses, glasses, hardhats, work boots, and all types of safety gear for smaller men and working gals.  Our military,  as well as women in law enforcement, also want their female personnel dressed in appropriately fitting uniforms.  Some or many types of PPE are needed in most occupations.  Look for the best fit in safety glasses to protect your vision for the job you choose.

PLAY IT SAFE WITH HAND TOOLS

If you stop to think about it, how many hand tools do you have around your house?  Most houses have hammers, flashlights, pliers, screwdrivers, knives, scissors, shovels, hoes, staplers, and wrenches.  Tools are such a common part of our lives that it is hard to remember that they could pose hazards.  The tools are designed with safety in mind, but tragically, a serious accident often occurs before steps are taken to search out and avoid or eliminate tool-related hazards. 

In the workplace, to remove or avoid hazards, workers must learn to recognize hazards associated with different types of tools and the safety precautions necessary to prevent those hazards.   Hand tools are non-powered.  This includes everything from axes to wrenches.  Misuse and improper maintenance are two of the greatest hazards posed by hand tools.  The employer is responsible for the safe condition of tools and equipment used by employees – however, the employees are responsible for properly using and maintaining tools. 

Hand tools are indispensable helpmates.  They have played a vital role in helping in endless tasks like cutting, drilling, chopping, slicing, stripping, striking, punching, gripping, etc.  They have a very important place not only in daily routine work and home repairs but also in various industries, farm shops, vehicles, machinery or facility repair.  If they are not used with care and maintained properly, they can lead to serious injuries, such as: loss of eye; puncture wounds, contusions, severed fingers, and broken bones. 

Here are tips for hand tools safety:

  • Always choose the right tool for the right job: for example, don’t use a knife as a saw or a wrench as a hammer or screwdriver as a chisel, etc.
  • Use the right size tool – forcing a small hand tool to do the job of a large one may result in tool damage or injury.
  • Proper training: users should know how to use the tool correctly.  One example: a wood chisel should be driven outward and away from the body.
  • Wear the right protection for the job.  Protective clothing such as safety eyewear and goggles, facemasks, coveralls, and appropriate shoes should be chosen for the particular job.  Gloves can sometimes be bulky and make gripping difficult, so if there is a need for gloves, choose ones that furnish a good grip.
  • Keep cutting tools sharp and in good condition.  Dull tools are considered to be more hazardous than sharp ones.  The tools and work area should always be kept clean.  Dirty, oily and greasy tools should be cleaned after use.
  • Inspect tools before using.  Don’t use tools that are loose or cracked.
  • Tools with “mushroomed heads” during use should be sharpened regularly.
  • Sharp-edged and pointed tools should be handled with care.
  • Store tools and materials vertically, with points and heavy end down.
  • Don’t force screws; make sure that the correct screw for the job is being used.
  • All small work and short work should be secured with a vise or clamp.
  • Never use a screwdriver to check if electrical circuits are hot. (Ouch!)
  • Never use a carpenter’s hammer instead of a machinist’s hammer.
  • Never strike a hardened steel surface using a steel hammer, because a small piece of steel may break off and injure someone.
  • Do not use pliers in place of a wrench.
  • Razor blades, saw blades, knife blades should be disposed of in a puncture-resistant sharps container.
  • Never use wrenches if their jaws are sprung or loose. 

We hope those who use these types of tools in their line of work will take every precaution to work safely.  I, for one, have decided I will let my husband do all the little carpentry work that I thought I could do.  I’ve even stuck myself when chopping ice with an ice pick, so I can only imagine what damage I could do with a saw or wrench!  That’s not to say there aren’t lots of women out there that can compete with the men!  (There’s all sorts of small safety glasses sized for the ladies.  Click on womens gloves to view several items sized especially for the girls).  When you reach for that wrench, knife, shears, bolt cutters, or whatever, use with caution! 

P.S. As stated on our home page, if you need any safety products, go to www.tasco-safety.com, and be sure to mention “safety blog 5% discount offer.”

STEP UP TO FOOT SAFETY!

If your feet hurt, it seems that you hurt all over!  I wonder just how many women have spent years of their working lives in high heels, thinking more about the fashion statement they are making than the toll that their feet are taking?  Many times working men and women suffer injuries to their feet, which can result in time lost, and possible surgery to repair whatever damage has been done. 

OSHA dictates that as in all personal protective equipment, (PPE), companies should choose the appropriate footwear for the hazards of the particular job the employee does.  The standard from OSHA (29 CFR 1910.136) requires protection “where there is danger of foot injuries due to falling or rolling objects, or objects piercing the sole and where..exposed to electrical hazards.”  There are also hazards such as impact when heavy materials are being handled, compression protection for work involving manual material handling carts, bulk rolls, and heavy pipe, and puncture protection from sharp objects, such as nails, screws, tacks, and scrap metal.  

Here are a few problems where the feet are at risk:

  • Chemical hazards; boots and shoes made of rubber, PVC or neoprene are needed.
  • Heavy objects – steel toes are to protect against falling objects, which cause about 60 per cent of all foot injuries.  If there are electrical hazards, a fiberglass toe should replace the typical steel toe.
  • Slips and falls – shoes with good traction are needed. 

There are at least two distinct areas of foot protection that are mentioned in the realm of safety shoe covers.  In industrial and construction situations, OSHA and ANSI are concerned with safeguarding the “impact and compression” of the foot.  Medical, industrial, and laboratory environments are the other areas of foot protection issues.  Shoe covers for medical personnel can protect from spatters, liquid, and chemicals that could pose a danger.  Also, using shoe or boot covers protects others from receiving contaminants from you.  Those that are involved in “clean” manufacturing conditions, such as computer chips, digital medical equipment, precise engineering instruments, etc., must be careful to not transfer contaminants to sensitive objects.  Clean rooms must remain as germ and contaminant free as surgical environments; therefore, shoe covers are an important component. 

Even those involved in sports, such as cycling, can use shoe covers.  While your back, arms, and legs are stressed during high level cycling, nothing takes a worse pounding than your feet.  There are products that offer a line of covers and booties to protect shoes from road abuse from rocks, mud, and other hazards. 

One last “footnote”:  I recently read an article in the AARP Bulletin, written by Candy Sagon, regarding assisting people with dementia or Alzheimer’s who could possibly wander off from caregivers or nursing facilities: a locator shoe with a built-in Global Positioning System device now makes it easier to tract down its wearers.  Manufactured by GTX Corporation, the shoes look like a typical walking shoe but have a miniature GPS unit implanted in the heel.  The cost of the shoes is around $300.  The shoe works by allowing caregivers or family members to set up a perimeter, called a “geo-fence,” allowing wearers to move freely around a specific area.  When they stray beyond the perimeter, a Goggle Maps message pops up on a computer or phone to alert caregivers.  What a great investment to help with the task of keeping these patients safe. 

Regardless of the reason that your company has safety footwear to keep you safe, be sure you wear it every time you are on the job.  Those responsible for choosing footwear or any other type of PPE should select comfortable, and proper fitting protective clothing, head to toe.  There may not be a magic formula for the feet, but there are steps that can be followed to be sure feet are protected.

Source: OSHA, AARP Bulletin

PERSONAL PROTECTIVE EQUIPMENT REDUCES RISKS WHILE WORKING WITH BLOODBORNE PATHOGENS

The appropriate use of personal protective equipment is mandated by OSHA’s Bloodborne Pathogens Standards.  This requires employers to provide proper personal protective equipment and clothing free of charge to employees.  Employees with occupational exposure to bloodborne pathogens must receive extensive training. 

Those who work in the field of healthcare, i.e., medical, dental, nursing homes, EMS, and others such as law enforcement, are trained to take Universal Precaution: the approach to infection control with regard to human blood and potentially infectious materials as if they were known to be infectious.  About 8,700 health care workers each year are infected with HBV, and 200 die from the infection.  It is estimated that 5.6 million workers in the health care industry are at risk of occupational exposure to bloodborne pathogens, such as:

  • Hepatitis B, which is more transmittable than HIV; affects liver.
  • HIV; Human Immunodeficiency Virus;
  • Hepatitis C.  This is the most common chronic bloodborne infection in the United States, most often caused by needlestick injuries.  If not treated properly, it can lead to active liver disease.

Gloves, masks, gowns, lab coats, face shields, goggles, and glasses with sideshields should be utilized as needed, as they drastically reduce health risks to workers.  Other types of PPE that may be required are shoe covers, surgical caps and hoods.  This gear should be readily accessible to employees, and available in appropriate sizes.  The PPE must be removed by the employee before leaving the work area or if the PPE becomes contaminated.  The employer is responsible to clean or launder clothing and equipment, and repair or replace it as necessary.  Hand washing facilities should also be available to employees, and designated areas should be assigned for washing, storage or discarding of PPE. 

Should an employee’s skin or mucous membranes come into contact with blood, he or she is to wash with soap and water and flush eyes with water as soon as possible.  In addition, workers must wash their hands immediately after removing protective equipment.  If soap and water are not available immediately, employers may provide other hand washing measures such as moist towelettes.  Employees still must wash with soap and water as soon as possible.  They must refrain from eating, drinking, applying cosmetics or lip balm, and handling contact lenses in areas where they may be exposed to blood or potentially infectious materials. 

Employers must have Exposure Control Plans and provide post-exposure prophylaxis and follow-up treatment of workers’ exposure incidents. 

Source: OSHA