Menu

WFC News

Posted: Sep 1, 2018

Don’t Let Technology Give You a False Sense of Security

Carl Nix

Training firefighters is one of the most rewarding aspects of my job. Today, our fire service is changing, as we find ourselves responding more to medical emergencies than fighting fires.

Carl Nix

We continue to embrace technology, albeit cautiously, as we look for tools to help us perform our jobs more effectively and safely. Improvements have been made to equipment including halligan bars and ladders. We are now equipping emergency medical technicians and paramedics with portable ultrasound devices and handheld portable blood analyzers. The fire service is even looking into virtual reality training.

Thermal imaging cameras (TICs) have certainly come a long way as well, from the large, heavy models to ergonomically designed lighter models that attach to a firefighter’s turnout gear to TICs that are equipped in a firefighter’s self-contained breathing apparatus face piece. With all these advances, we are a safer fire service.

My instincts as a firefighter have come from years of fighting fires and experiencing close calls that could have ended tragically. Those instincts were formed before the TIC was a firefighting tool. My instincts come from training, experience, and never feeling overconfident when responding to a fire call. I have learned to always expect the unexpected. With all the latest technology in the fire service, the TIC may be the one tool that can cause firefighters to feel overconfident and make mistakes. Let’s look at a couple of instances where a TIC can give firefighters a false sense of security.

There is proof that the use of thermal imaging technology in the fire service makes our jobs safer. It allows us to move faster through the structure and see where we normally couldn’t see. Trapped victims have been saved from burning structures because the TIC has given firefighters the sight to identify victims through the smoke and quickly escape a dangerous situation. The speed at which the crew can move is greatly increased because of the use of thermal imaging. When training to be a firefighter, one of the first tactics taught is right-hand and left-hand search patterns to find the egress points. This is a critical tactic. Using this tactic is often abandoned, however, when firefighters are equipped with a TIC.

Firefighters equipped with a TIC must always remember to never abandon their firefighting training or learned instincts when fighting a fire.

1 Firefighters equipped with a TIC must always remember to never abandon their firefighting training or learned instincts when fighting a fire. (Photo courtesy of Bullard.)

Always keep in mind that the TIC is there to guide. What if the TIC gets dropped or lost? Firefighters must always be aware of their reference points to escape a dangerous situation.

It’s also important to be aware of the speed with which the crew is traveling when using a TIC. The firefighter with the TIC tends to move faster and can lose sight of his crew. It’s critical to always remember t

Read more
Posted: Sep 1, 2018

Reducing Fire Apparatus and Other Emergency Vehicle Crashes


Emergency service vehicle incidents (ESVIs), including road traffic collisions, rollovers, and on-scene struck-by incidents, are the second leading cause of fatalities among active duty United States firefighters, accounting for nearly a third of on-duty firefighter fatalities in 2016.

In 2015, there were 16,600 reported ESVIs involving emergency vehicles and 700 involving personally operated vehicles, resulting in a total of 1,200 reported injuries during that year—an 88 percent increase from 2014. Intersections are the most common site of ESVIs, and high speeds during emergency operations increase the risk of collision and rollover through reduced reaction times and stopping distances, weight shifts, and lane departures. The incidence of crash-related injuries and fatalities among fire personnel has not significantly improved over time.

Approaches to Preventing ESVIs

To better understand and prevent ESVIs, our research team partnered with four fire departments across the United States and conducted a three-year study to identify and evaluate approaches to reducing ESVIs in the fire service. We used the following strategies:

  1. Implement proactive risk management to identify unique risk factors for ESVIs and guide the implementation of tailored interventions at our partner fire departments.


  2. Explore the use of telematics driving data to monitor driver behaviors.


  3. Conduct a systematic review to find published articles and data on effective interventions previously employed.


Risk Management to Prevent ESVIs

Given the unique driving environments and operating conditions at every fire department, tailored approaches and interventions that address the actual and contextual needs of every department are necessary to effectively reduce ESVIs. Proactive risk management, which entails hazard scoping, risk assessment, implementation of interventions, and ongoing evaluation, has proven to be effective in managing and reducing occupational injuries and hazards across a broad spectrum of industries. The process allows organizations to consider the unique risks and hazards personnel face and to inform the selection and adoption of interventions that may be effective in reducing the specific risks and hazards for their employees, given their unique environment and context. Risk management may be particularly useful for addressing ESVIs, since fire departments work and drive in different geographies (e.g., urban and rural) and with different staffing structures (career and volunteer). Despite its widespread use in other countries, proactive risk management is still seldom used in most U.S. industries, including the fire service.

Between 2013 and 2017, we partnered with four U.S. fire departments in urban, suburban, and rural settings. Through a series of risk management meetings with personnel and staff at each fire department, we reviewed crash data to identify and prioritize specific hazards to each department and selected new interventions to reduce high-priority ESVIs at each department. Priorities differed by department based on geography and staffing.

For example, urban departments were more concerned with vehicle incidents occurring in traffic-congested areas and narrow streets, while rural and suburban departments prioritized weather conditions and animal collisions. One department i

Read more
Posted: Sep 1, 2018

Reducing Fire Apparatus and Other Emergency Vehicle Crashes


Emergency service vehicle incidents (ESVIs), including road traffic collisions, rollovers, and on-scene struck-by incidents, are the second leading cause of fatalities among active duty United States firefighters, accounting for nearly a third of on-duty firefighter fatalities in 2016.

In 2015, there were 16,600 reported ESVIs involving emergency vehicles and 700 involving personally operated vehicles, resulting in a total of 1,200 reported injuries during that year—an 88 percent increase from 2014. Intersections are the most common site of ESVIs, and high speeds during emergency operations increase the risk of collision and rollover through reduced reaction times and stopping distances, weight shifts, and lane departures. The incidence of crash-related injuries and fatalities among fire personnel has not significantly improved over time.

Approaches to Preventing ESVIs

To better understand and prevent ESVIs, our research team partnered with four fire departments across the United States and conducted a three-year study to identify and evaluate approaches to reducing ESVIs in the fire service. We used the following strategies:

  1. Implement proactive risk management to identify unique risk factors for ESVIs and guide the implementation of tailored interventions at our partner fire departments.


  2. Explore the use of telematics driving data to monitor driver behaviors.


  3. Conduct a systematic review to find published articles and data on effective interventions previously employed.


Risk Management to Prevent ESVIs

Given the unique driving environments and operating conditions at every fire department, tailored approaches and interventions that address the actual and contextual needs of every department are necessary to effectively reduce ESVIs. Proactive risk management, which entails hazard scoping, risk assessment, implementation of interventions, and ongoing evaluation, has proven to be effective in managing and reducing occupational injuries and hazards across a broad spectrum of industries. The process allows organizations to consider the unique risks and hazards personnel face and to inform the selection and adoption of interventions that may be effective in reducing the specific risks and hazards for their employees, given their unique environment and context. Risk management may be particularly useful for addressing ESVIs, since fire departments work and drive in different geographies (e.g., urban and rural) and with different staffing structures (career and volunteer). Despite its widespread use in other countries, proactive risk management is still seldom used in most U.S. industries, including the fire service.

Between 2013 and 2017, we partnered with four U.S. fire departments in urban, suburban, and rural settings. Through a series of risk management meetings with personnel and staff at each fire department, we reviewed crash data to identify and prioritize specific hazards to each department and selected new interventions to reduce high-priority ESVIs at each department. Priorities differed by department based on geography and staffing.

For example, urban departments were more concerned with vehicle incidents occurring in traffic-congested areas and narrow streets, while rural and suburban departments prioritized weather conditions and animal collisions. One department i

Read more
Posted: Sep 1, 2018

Shelters for Wildland Firefighting


Sixty wildland firefighters are carrying one of four new fire shelter prototypes for “wear testing” as part of the continuing Fire Shelter Project Review, administered by the United States Department of Agriculture’s United States Forest Service (USFS) National Technology and Development Program and initiated in 2014 to identify possible improvements to the fire shelter system.

Four Prototypes

The National Wildfire Coordinating Group (NWCG) Fire Shelter Subcommittee, which comprises federal, state, and local wildland firefighters; wildfire safety specialists; fire management officers; and other fire shelter users, selected the four new fire shelter prototypes for wear testing. Sixty prototypes of four different new fire shelter designs that have shown improved performance in lab tests were issued to wildland firefighters to evaluate the durability of the shelters. The wildfire environment is very rugged, and fire shelters must be carried by wildland firefighters for years yet still be functional when needed.

One of the prototype fire shelters is shown being prepared for a flame test at the University of Alberta in Edmonton, Canada.

1  One of the prototype fire shelters is shown being prepared for a flame test at the University of Alberta in Edmonton, Canada. (Photos courtesy of United States Forest Service, Fire and Aviation Management, National Interagency Fire Center.)

Two of the new fire shelter prototypes are designed for ground firefighters, and 20 of each of these prototypes were issued to Interagency Hotshot Crew members for wear testing. The other two new fire shelter prototypes, which were determined to be too bulky for ground firefighters, are being tested by engine and equipment operators. Ten of each of the two bulkier prototypes were issued. The National Aeronautics and Space Administration (NASA) and the USFS have a cooperative work agreement for this project, and two of the prototype fire shelters are NASA designs.

“The biggest job that a fire shelter has to do is be carried around by a wildland firefighter all day, every day, all season long,” says Tony Petrilli, Fire Shelter Review leader with the USFS National Technology and Development Program. “That doesn’t lend itself to the use of a lot of materials that can withstand high temperatures because of weight, bulk, durability, and toxicity.”

Shelter Construction

The fire shelter is an aluminized cloth tent that offers protection in a wildland fire entrapment situation by reflecting radiant heat and providing a volume of breathable air. The current version, Model 2002, is shaped like a half cylinder with rounded ends. The previous version of the fire shelter was triangular prism-shaped, similar to a small one-person tent. Fire shelters have been required as personal protective equipment since 1977.

The Model 2002 fire shelter comprises two layers, with an outer layer of woven silica laminated to aluminum foil. The foil reflects radiant heat, and the silica cloth slows

Read more
Posted: Sep 1, 2018

Shelters for Wildland Firefighting


Sixty wildland firefighters are carrying one of four new fire shelter prototypes for “wear testing” as part of the continuing Fire Shelter Project Review, administered by the United States Department of Agriculture’s United States Forest Service (USFS) National Technology and Development Program and initiated in 2014 to identify possible improvements to the fire shelter system.

Four Prototypes

The National Wildfire Coordinating Group (NWCG) Fire Shelter Subcommittee, which comprises federal, state, and local wildland firefighters; wildfire safety specialists; fire management officers; and other fire shelter users, selected the four new fire shelter prototypes for wear testing. Sixty prototypes of four different new fire shelter designs that have shown improved performance in lab tests were issued to wildland firefighters to evaluate the durability of the shelters. The wildfire environment is very rugged, and fire shelters must be carried by wildland firefighters for years yet still be functional when needed.

One of the prototype fire shelters is shown being prepared for a flame test at the University of Alberta in Edmonton, Canada.

1  One of the prototype fire shelters is shown being prepared for a flame test at the University of Alberta in Edmonton, Canada. (Photos courtesy of United States Forest Service, Fire and Aviation Management, National Interagency Fire Center.)

Two of the new fire shelter prototypes are designed for ground firefighters, and 20 of each of these prototypes were issued to Interagency Hotshot Crew members for wear testing. The other two new fire shelter prototypes, which were determined to be too bulky for ground firefighters, are being tested by engine and equipment operators. Ten of each of the two bulkier prototypes were issued. The National Aeronautics and Space Administration (NASA) and the USFS have a cooperative work agreement for this project, and two of the prototype fire shelters are NASA designs.

“The biggest job that a fire shelter has to do is be carried around by a wildland firefighter all day, every day, all season long,” says Tony Petrilli, Fire Shelter Review leader with the USFS National Technology and Development Program. “That doesn’t lend itself to the use of a lot of materials that can withstand high temperatures because of weight, bulk, durability, and toxicity.”

Shelter Construction

The fire shelter is an aluminized cloth tent that offers protection in a wildland fire entrapment situation by reflecting radiant heat and providing a volume of breathable air. The current version, Model 2002, is shaped like a half cylinder with rounded ends. The previous version of the fire shelter was triangular prism-shaped, similar to a small one-person tent. Fire shelters have been required as personal protective equipment since 1977.

The Model 2002 fire shelter comprises two layers, with an outer layer of woven silica laminated to aluminum foil. The foil reflects radiant heat, and the silica cloth slows

Read more
RSS
First46584659466046614663466546664667Last

Theme picker

Search News Articles