Driving in Construction Zones – Follow the Signs to Safety

Each year hundreds of American construction workers are killed in traffic accidents while they are on the job.  So many have been killed that a special work zone safety awareness week has been created.  A mobile memorial containing the names of people killed in construction work zones was unveiled in Washington, D.C. in April 2002 and every year since has been on display in various states during the awareness week.

However, it is not just construction workers who have been maimed or killed.  In 2002, 1,181 people were killed in motor vehicle crashes in work zones and more than 52,000 people were injured.  According to transportation safety officials, four out of five work zone fatalities are drivers and passengers.

The good news is that after years of steadily increasing numbers of accidents and fatalities in construction zones, public awareness is increasing and the numbers are beginning to drop.  In 2003, for the first time in more than five years, the number of fatalities decreased from the previous year to 1,082 deaths.

If you want to avoid becoming a construction zone statistic here are a few tips.  First of all obey all signs, especially the ones advising you to slow down.  Always stay within the posted speed limits.  Always follow the flag person’s direction.  They are your guides to help you navigate safely through the construction zone. 

Secondly, stay alert and watch for moving workers and equipment. Do not tailgate the car in front of you or try to pass a slower moving vehicle.  Ensure that there is a safe distance between your vehicle, and everything else.  Be prepared to stop at any moment and with little notice.

Thirdly, take your time.   If you are traveling through a construction work zone, plan ahead, you may be a little delayed.  But if it’s unexpected, then just relax and go with the flow.

Finally, pay attention.  Now may not be the best time to make phone calls or eat lunch.  You will need all your faculties to watch the road conditions for mud, gravel, rough surfaces, potholes or craters.  Watch out for merging traffic, especially when traffic is reducing to fewer lanes.  When taking detours through residential areas, be very cautious and watch out for children.

If you follow these easy tips and all signs and directions, you should be able to drive safely through any construction zone. Take your time and arrive alive.

Protect Yourself Against the Hazards of Welding

Since hazardous conditions like high heat and toxic fumes are central to welding, it is no surprise that without strict safety procedures, injury, short- or long-term illness and potentially even death could occur when welding.  Though there are more than 80 different types of welding processes, each with its own set of concerns, many safety precautions are common. 

The central elements of welding make it dangerous in many different ways.  The welding “smoke” often contains extremely toxic substances such as arsenic, silica, carbon monoxide, lead, chromium and ozone which can produce acute and chronic conditions to just about any part of the body depending on which substance is present.  Conditions associated with welding are asthma, emphysema, lung cancer, skin diseases, hearing loss, chronic gastrointestinal problems and reproductive risks.  Some components of welding fume, for example cadmium, can be fatal in a short amount of time.

Furthermore, the intense heat from welding and sparks can cause burns, eye injuries and heat stroke.  The intense light can cause eye damage and increased skin cancer risk, not just to the welder, but to co-workers if it reflects off surrounding materials.  Excessive noise exposure can permanently damage a welder’s hearing.  Welders also have a high rate of musculoskeletal complaints including back injuries, shoulder pain, tendonitis and carpal tunnel syndrome. 

OSHA standards cover many aspects of welding, including welding safety and safety training, welding in confined spaces, ventilation, fire and electrical safety and protective equipment.  Welders should receive extensive training on the safe use of equipment, safe work practices and emergency procedures, and insist on safe working conditions before they weld.

Before beginning a welding job, the hazards for that particular environment need to be identified since risks vary based on the type of welding, materials to be welded and environmental conditions.  Make sure you know what you are welding before you start.  OSHA requires that employers keep material safety data sheets (MSDSs) to identify the hazardous materials used in welding, and the fumes that may be generated.  Only after identifying the hazard can appropriate safety controls be implemented.

Some general precautions to take include:

·  Keep areas clear of equipment, cables and hoses and use safety lines or rails to prevent slips and falls;

· To prevent fires, only weld in areas that are free of combustible materials;

· Be aware of the symptoms of heat stroke (fatigue, dizziness, loss of appetite, nausea, abdominal pain).  Protect against it through appropriate ventilation, shielding, rest breaks and frequent drinks;

· Wear hearing protection in excessively noisy environments.  OSHA requires employers to test noise levels and, in many instances, provide free hearing protection and annual hearing tests;

· Prevent musculoskeletal injury through proper lifting, changing positions, working at a comfortable height and minimizing vibration;

· Prevent electrical shock by wearing dry gloves and rubber-soled shoes, using an insulating layer on surfaces that can conduct electricity and by grounding the piece being welded and the frame of all electrically powered machines;

· Guard all machines with moving parts to prevent clothing, hair or fingers from getting caught;

· Always wear personal protective equipment including fire-resistant gloves, high-top hard-toed shoes, leather apron, face shields, flame-retardant coveralls, safety glasses and helmets;

· Use shielding to protect other people in the work area from the light of the welding arc, heat and hot spatter;

· Maintain proper local exhaust ventilation and general ventilation;

· Store work clothes separately from street clothes since and have them laundered by the employer since they may be contaminated with highly toxic materials; and

· Receive yearly medical exams.

Because dangerous levels of toxic fumes can build quickly in a confined space, all workers who enter hazardous areas, either on a regular basis or in an emergency situation, should be trained on use of safety equipment, rescue procedures, self-contained breathing apparatus and proper methods of entering and exiting a confined space.  Additional special safety precautions are also necessary for various other specialized welding including high-pressure gas welding, laser welding and electronic beam welding.

Know How to Manage a Chemical Spill to Limit Injury and Exposure

No one plans on a chemical spill but because accidents can occur, the time to figure out how to manage a chemical spill isn’t after a spill happens but before.  Because different chemicals can have different harmful effects and must be handled in a unique way, contingency planning is the best way to minimize potential problems.

It goes without saying that our work around hazardous substances should always be designed to minimize the risk of their accidental release.  Prior to working in a specific environment around specific chemicals, you should make sure you understand the physical, chemical and toxicological properties of the potentially hazardous substances and the appropriate emergency procedures including:

·  How to report the emergency involved (ie. chemical spill, fire and/or injury)

·  The location and use of emergency first aid equipment

·  The location and use of spill control equipment and fire extinguishers

·  Contact information for those responsible for the work site

Handling a spill depends greatly on the scope of the chemical release, other hazardous conditions present and the type of chemical.  Always adhere to the specifics of the safety program.  Some general safety guidelines for small spills that are not immediately dangerous to the environment or individual’s health include:

·  Notifying other personnel in the area about the spill and any appropriate evacuation needs;

·  Attending to any individuals who have been injured or potentially exposed;

·  Taking appropriate measures, without the risk of injury or contamination, to confine the spill; and

·  Cleaning up and disposing of the spill contents using appropriate procedure.

Remember that more widespread or dangerous spills or conditions require a different approach including:

·  Notifying other personnel about the spill and to evacuate the area;

·  Immediately attempting to remove or protect victims in a manner that does not risk additional injury or contamination.  Request help if necessary; 

·  Locating to a safe area and calling 911 to report the emergency; and

·  For dangers that extend beyond the immediate environment, activating any fire or safety alarms, evacuating the wider vicinity and securing any entrances into the area.

If hazardous or regulated materials are unintentionally released to the environment, special regulatory reporting may be required.  Be sure to note as best you can the chemicals involved, the quantities released and the time of the incident so it can be reported accurately to the appropriate environmental agencies. 

While chemical spills are not intended, by taking safety measures, their scope and impact can often be limited.

Perform Lockout/Tagout Safety Measures While Servicing Machinery

As one of approximately three million workers who service and maintain equipment, you need to know how to prevent the serious risks of unexpected machinery startup or the release of hazardous energy.  While the risks are significant, by following OSHA’s lockout/tagout safety standards, an estimated 50,000 injuries can be prevented each year. 

Hazardous energy comes in multiple forms which include; the kinetic or mechanical energy of moving parts, potential energy stored in pressure vessels, gas tanks, hydraulic or pneumatic systems, electrical energy from generated electrical power, static sources or electrical storage devices such as batteries, high or low temperature thermal energy from mechanical work, radiation, a chemical reaction and electrical resistance.

While performing installation, maintenance, service or repair work near or related to hazardous energy sources these factors can lead to a dangerous situation and, are preventable:

–        The failure to completely de-energize, isolate, block, and/or dissipate the hazardous energy source,

–        Failure to lockout and tagout energy control devices and isolation points after the hazardous energy source has been de-energized, and

–        Failure to verify that the hazardous energy source was de-energized before beginning work.

Our OSHA-compliant hazardous energy control program helps to promote a safe working environment for employees.  The central goal of the program is to help you know how to identify at-risk tasks and conduct appropriate methods for controlling hazardous energy.

Our safety program is very comprehensive and includes the following general safety measures.  Safe work practices must begin before work commences and be applied at every step.  All sources of hazardous energy must be identified, labeled and then de-energized and dissipated, and all energy-isolating devices must undergo lockout and tagout to prevent startup and blocking.  We have developed the specific method of energy control based on the form of energy involved.  Workers must verify, using appropriate testing equipment, that all energy sources are de-energized before work begins. 

After work is complete, a designated individual must inspect the completed work to verify it was performed correctly using the correct replacement parts and that all personnel are clear of danger points before re-energizing the system.  Re-energized equipment should be closely monitored for several operating cycles.  The lockout/tagout program requires individually assigned locks and keys to secure the energy control devices.  Locks and tags must be removed only after workers have been cleared from the danger points and only by the workers who installed them.

Hazardous energy is a powerful force, however when diligently following our lockout/tagout safety program a safe working environment is created for all employees.

Buckle Up- It’s the Law

Many people invent reasons not to wear their seat belt.  Some just don’t bother and others think – “nothing will happen to me.” The statistics show that this statement is definitely untrue. From 1992 through 2001, roadway crashes were the leading cause of occupational fatalities in the U.S., accounting for 13,337 civilian worker deaths (22% of all injury-related deaths), an average of 4 deaths each day.  Between 1997 and 2002, 28% of fatally injured workers were wearing a seat belt; 56% were unbelted or had no seat belt available. Belt use was unknown for the remaining 16%.

Seat belts are effective in preventing fatalities, 50% more effective in preventing moderate to critical injuries, and 10% more effective in preventing minor injuries, according to the National Highway Traffic Administration.  What is most surprising is that by 1992 over 40 states had enacted seat belt use laws and still only 55% of the people traveling in cars were wearing them.

In addition to seat belts we are even more fortunate in that cars are now equipped with supplemental restraint systems (SRS), more commonly known as air bags.  What is not commonly known is that the air bag will only fully protect the passenger if they are wearing their seat belt.  This is another good reason to buckle up.  Insist all passengers in your car do the same and make every trip a safe one.

Occupational fatality data
*Census of Fatal Occupational Injuries (CFOI), 1992-2001 (special research file prepared for NIOSH by the Bureau of Labor Statistics; excludes New York City).

†Fatality Analysis Reporting System (FARS), 1997-2002; National Highway Traffic Safety Administration (NHTSA) (public-use microdata files).

Start Off on the Right Foot – Choosing the Correct Slip-Resistant Shoe

In 1997 more than 180,000 foot-related injuries occurred in the workplace according to the National Safety Council.  According to the Bureau of Labor Statistics (BLS), three out of four footwear injuries in the workplace are the result of employee non-compliance. Choosing the right type of slip resistant shoe for your workplace environment and wearing them everyday is essential for your safety.

Transitions in height, and unexpected changes such as transitions from tile to carpet can be factors that contribute to slips and falls.  Rough floor surfaces offer more slip-resistant characteristics by offering sharp peaks that contact the sole material of the shoe, but this can also contribute to the wear and tear of the shoe causing it to be replaced more often.   Some jobs present more than one hazard to be protected against such as slip resistance and puncture protection.  To help meet this need manufacturers are providing shoes that cover more than one aspect of the safety footwear market.

Slip-resistant shoes should have the following characteristics:

·        The sole should have a raised tread pattern that extends over the whole area of the shoe.  The shape of the tread creates a tunnel through which liquid is dispersed.  A circle grip outsole is the best choice with the rubber hitting the flow and water dispersing rapidly every time a step is taken on a wet or oily surface.

·        There should be about three millimeters between the sole of the shoe and the bottom of the tread.  The tread will be reduced, over time, through wear.  It is important to monitor this and replace your shoes when necessary.

·        For added traction look for shoes that are designed with snipes or small cuts that divide the tread shape into three or four moveable parts.  These are also great indicators of wear and will assist you in determining when to replace your shoes.

·        There should be at least two millimeters of space between the tread pattern for maximum safety.  If the treads are located too close together they could generate a hydroplaning effect on a wet surface.  There must be enough space for liquid to be channeled through to the outer edges of the outsole.

For comfort it is a good idea to choose a shoe with extra support in the heel of the insole.  As an added bonus today’s shoe manufacturers produce occupational footwear that is stylish enough to be worn in everyday life.

Electrical Insulating Gloves – Give Your Employees a Hand

Injuries caused by electrical shock are one of the most severe that workers can experience on the job.  According to the National Safety Council more than 1000 employees are killed and 30,000 injured each year from electrical shock.  Many of these injuries involve the hands since they are the most common source of contact with an electrical current.    Electrical current travels through the body causing damage to internal organs and possibly resulting in cardiac arrest.  Such injuries from electrical shock can prove fatal. The best line of protection is to use electrical insulating gloves.

It is important to know that electrical shock can result from contact with low voltage (under 600 volts) as well as high voltage lines (over 600 volts).  The effects of this exposure depends on the amount of current (which is measured in milliamps or amps) flowing through the body, the amount of time it is in the body and the path of the current.  Exposure to 100 milliamps flowing through the body for only 2 seconds can cause death by electrocution.  This is not much current when you consider a hand-held electric drill draws 30 times that amount. OSHA requires that workers in high and low voltage applications wear electrical insulating gloves and that all insulating gloves be electrically tested every six months.  There are several labs in the United States that perform this required testing.

Rubber electrical insulating gloves are rated for their particular application.  Workers should be trained to select gloves for the amount of protection needed against the circuits they are working with.  For example, a Class 1 glove can be used for up to 7,500 volts AC, a Class 2 up to 17,000 volts AC, etc.  It is also important to understand and recognize regulatory standards when it pertains to electrical safety awareness.  These standards are easily accessed on OSHA’s website, www.osha.gov.

Finally, it is imperative that employers have in place an electrical safety program to ensure that all employees are aware of the potential electrical hazards in their locality.  Both qualified and unqualified workers should be trained in avoiding the dangers of working on or near exposed and energized equipment.

Are You Getting the Word Out with Your Hazard Communication Program?

OSHA first established the Hazard Communication Standard (HCS) on November 25, 1983; and with its complexity, it is often one of the most misunderstood of the agency’s standards and the one most frequently cited for violations. The core concept for the rule is “that employees have both a need and a right to know the hazards and identities of the chemicals they are exposed to when working. They also need to know what protective measures are available to prevent adverse effects from occurring.”

The HCS requires that both the physical and health hazards be communicated for all hazardous chemicals. Since the majority of chemicals used in the workplace have some hazardous consequences, they will be included in this mandate. 

The communication paradigm begins with chemical manufacturers and importers. They are required to evaluate the hazard potential of the chemicals they produce or import. This information becomes the basis for labels they prepare for containers, and for the more detailed specification sheets called Material Safety Data Sheets (MSDS). Chemical manufacturers, importers, and distributors of hazardous chemicals are obliged to provide the labels and material safety data sheets to the purchasers of these chemicals.

Any workplace in which employees are exposed to hazardous chemicals must have a written plan, which describes how the communication standard is being carried out. OSHA is not looking for something that is lengthy and convoluted.  An inspector wants to see a realistic system for meeting the requirements for labeling, accessibility of material safety data sheets, and employee training.  

To comply with the labeling provision of the rule, employers can make use of the labels provided by their suppliers. The information specified on the label must include the name of the material and any possible physical or health hazards associated with its use. Labels must be easy to read, and prominently displayed.  OSHA doesn’t mandate any specific requirements in terms of size, color or text.

If an employer transfers the hazardous chemical from a labeled container to another container, the employer is required to label the second container unless it is subject to the portable container exemption. To be considered portable, the container must be used for the immediate transfer of hazardous chemicals from labeled containers, and the employee who performs the transfer will be the only one to use it.

The purpose of the Material Safety Data Sheets (MSDS) is to provide detailed information about a chemical’s potential hazardous effects, its physical and chemical characteristics, and recommendations for protecting oneself when using it. OSHA doesn’t specify a format for the MSDS.

All MSDSs must be easily accessible to employees during their shifts. OSHA does not mandate the methodology for accomplishing this. Any methodology is acceptable as long as it meets the principal standard that employees can get the information when they need it.

If you plan to conduct your own hazard communication training, you may want to investigate Training Requirements in OSHA Standards and Training Guidelines, which was developed by OSHA’s Training Institute. You can get a copy from the Superintendent of Documents, Government Printing Office, P.O. Box 371954, Pittsburgh, PA 15250-7954.

After designing your hazard communication strategy, give it the acid test for compliance by seeing if it meets the following OSHA checklist:

• Obtain a copy of the rule

• Read and understand the requirements

• Assign responsibility for tasks to a specific employee

• Prepare an inventory of chemicals

• Ensure that containers are labeled

• Obtain an MSDS for each chemical

• Prepare a written program

• Make MSDSs available to workers

• Conduct training

• Establish procedures to maintain current program

• Establish procedures to evaluate effectiveness

Preventing Fatalities from Work-Related Road Crashes

One of the least known facts about work-related fatalities and injuries is that motor vehicle crashes are one of the leading causes of death and injury in the workplace. The National Highway Traffic Safety Administration (NHTSA) observes that motor vehicle crashes kill more than 2,100 people while they are working and injure another 353,000. The average job-related motor vehicle crash costs an employer $16,500. 

Research conducted by The U.S. Bureau of Labor Statistics in 2003 discovered that crashes involving vehicles on public roadways were the leading cause of work-related fatalities. Crashes accounted for almost a quarter of all fatal work-related injuries.

Preventing employee roadway fatalities presents some unique challenges. The roadway is not a closed environment where conditions can be easily monitored. If employers want to prevent work-related roadway crashes, they must combine traffic safety principles and safety management practices. Employers can promote safe driving by providing workers with safety information and by establishing and enforcing driver safety policies.

It is fundamental to start by assigning a key member of the management team the responsibility of enforcing a comprehensive driver safety policy. An important part of that policy is enforcing the mandatory use of seat belts.

Workers shouldn’t drive irregular hours or for an excessive amount of time after their normal working hours. Workers should be instructed to never conduct business on a cell phone while they are driving. Insist that employees obey speed limits and follow applicable driving regulations.

Be vigilant in monitoring that workers assigned to drive on the job not only have a valid driver’s license, but also one that is appropriate for the type of vehicle driven. Check the driving records of prospective hires, and continue to perform periodic rechecks after they are employed. Maintain accurate records of each worker’s driving performance.

Employee education plays a vital role in any roadway crash prevention program. Educate workers on how to recognize driver fatigue and what strategies they can use to combat it. They should also be taught how to avoid in-vehicle distractions. Provide additional training to workers operating specialized motor vehicles or equipment in the correct procedures of operation. Place emphasis on the need for workers to follow safe driving practices both on and off the job.

It is also important that your vehicles offer the highest possible levels of occupant protection.  Be sure that part of your prevention program also involves implementing a structured vehicle maintenance program.

Reducing Your Employees’ Exposure to Asphalt Fumes

Roofers are a pretty common sight, especially when the weather is mild. What we may not realize, however, are the health risks that are associated with working with hot asphalt. Roofers exposed to asphalt fumes may experience headaches, eye, nose, throat, and skin irritation, nausea, fatigue and drowsiness. These risks seem to be mild and transient.

But that’s just the tip of the iceberg. According to some studies, roofers may also have an increased risk of lung cancer; although there have been no definitive conclusions as of yet. If you add the possibility of looming cancer to the other less fatal irritation effects associated with hot asphalt work, it makes sense for both employers and employees to take steps to control exposure.

Before starting work, the contractor needs to ensure that workers have been properly trained in the hazards of applying hot asphalt and acceptable work practices. The contractor should also check that employees are using the appropriate personal protective equipment to reduce exposures to asphalt fumes.

Prior planning before work begins will help reduce workers’ asphalt fume exposure. Determine if it is possible to use a tanker to supply asphalt to the kettle or to the rooftop directly. If this is not possible, and a kettle will be used, place it where workers will be least exposed to the fumes. Keep the kettle away from air intakes, doors, and windows. Try to use roofing equipment and accessories that have lids to reduce exposure to fumes.

If possible, use an insulated kettle that is the right size for the job. It should have temperature controls and the right pumping capacity for its size. Inspect it to be sure that it is in good operating condition. Insulate the pipeline that delivers the hot asphalt to the roof.

Maintaining proper asphalt temperature is another way to reduce exposure to asphalt fumes. The equiviscous or application temperature (EVT), and the flash point of the asphalt can be found on the keg package or bill of lading. Once you have determined these guidelines, set the kettle temperature at the EVT plus 50°F. Periodically measure the asphalt temperature in the mop bucket. Make any adjustments to the kettle to maintain proper temperature. The appropriate temperature is the EVT plus or minus 25°F. The kettle temperature must also always be at least 25°F below the flash point to avoid fires and explosions. Use a hand-held or infrared thermometer to get an accurate reading.

Workers need to be trained to be continually mindful of safety when working with hot asphalt. They should place the kettle on firm, level ground to avoid spilling or tipping. They also need to be trained to put up warning tape, traffic cones, or signs around the kettle to keep others at a safe distance. They should reduce the number of times the lid is opened by filling the kettle to capacity when reloading. Workers should also check the temperature, stir, and skim when they reload. All workers must have, and know how to operate, a fully charged ABC-type fire extinguisher near the kettle.

During the actual application, workers should:

  • Keep lids closed on rooftop equipment and accessories used to transport and apply hot asphalt.
  • Stay out of the fume cloud whenever possible.
  • Use buckets with half lids.
  • Fill buckets only three-fourths full.
  • Carry buckets on the down slope of the roof.
  • Twist mops instead of pulling to unstick them from buckets.
  • Twist buckets instead of pulling to unstick them from the roof.
  • Minimize the time spent on their knees working with hot asphalt since exposures may be higher when closer to the fumes.
  • Use long-handled tools whenever possible.