According to the National Fire Protection Association (NFPA), a clean agent is an electrically non-conducting, volatile, or gaseous fire extinguishant that does not leave a residue upon evaporation. A clean agent fire suppression system uses either a chemical or inert gas to suppress a fire at the inception stage before it can grow and is incredibly effective in extinguishing Class A, B, and C fires.
The fire suppression agent, Halon is still in use today; however, there is no new production of Halons. While Halon is considered a clean agent by The National Fire Protection Association because it’s electrically non-conducting and does not leave a residue, Halon has an extremely high potential for ozone depletion and contributes to global warming potential. On January 1, 1994, Halon production ceases in compliance with the Montreal Protocol and the U.S. Environmental Protection Agency. The use of Halons has been reducing over the years, but there is still demand for it for specific applications.
Clean agent fire protection systems that use chemicals like FM200 and discharge as a gas are considered to be safe in normally occupied spaces. FM200 complies with NFPA Standard 2001: Standard for Clean Agent Fire Extinguishing Systems, EPA SNAP Program (Significant New Alternative Policy), Underwriters Laboratories, Inc. (UL), and Factory Mutual Research Corporation (FMRC). FM200 is a clean and colorless agent that suppresses fires through heat absorption. It is electronically non-conductive, making it safe for sensitive equipment and leaving no residue behind minimizes the downtime after a fire incident.
The wind industry has experienced extensive growth since an initial boom in the mid-1990s. Wind power is poised to become a prominent part of the energy supply for global demand. However, as wind turbines get bigger and more expensive, fire risk is becoming a greater concern for the industry.
Not all fire suppression systems use gas to put out fires, but many do. Unlike water, powder, or foam fire suppression systems, gas suppression systems can put out fires without damaging equipment. Some gaseous fire suppression systems do not require any clean up at all after they put out a fire.
Firetrace International recently sat down with Eric Fogg from Machine Metrics, and Conor Puckett from BioChem Fluidics to understand the rapid changes they’ve seen in the safety and data overlap due to COVID-19, and how this will continue to impact the manufacturing space well into the future.
Operations and maintenance are critical elements and a significant amount of the costs associated with a wind farm. Having a well-planned maintenance program will ensure wind turbines are running efficiently and at their highest capacity. Overall general maintenance, up-tower repairs, and down-tower remanufacturing processes help to reduce the total cost of energy production and extend the life expectancy of a wind turbine.
Recently, Firetrace International had a panel discussion with two entrepreneurial machinists – Adam Demuth of Demuth Tool, and Dan Rudolph of Rudolph LLC, where we discussed how they got started with their own machine shops and advice they had for others looking to do the same. We took that discussion to compile a list of some of the most important things to consider if you’re also looking to start your own shop.
After halons were phased out of fire suppression systems back in the 1990s, it created a need for alternatives. The challenge was that halons were very effective in extinguishing most types of fires, electrically non-conductive, safe for limited human exposure, and leave no residue. The disadvantage of halons and why there was a ban placed on them is due to their strong ozone depletion potential. Over the past several decades, several fire suppression agents and technologies have emerged. In this post, we will explore aerosol fire suppression systems.
The most common types of wind turbine failure are turbine blades, generators, and gearboxes. Regular maintenance and inspections of wind turbines create challenges due to the remote locations of wind farms and the size and height of the turbines. During regularly scheduled maintenance, it can be difficult to access the massive rotor blades and evaluate the blade materials and the complex surface areas. New technologies like the use of drones for blade inspections are being used, which aids in the inspection process. However, without proper monitoring and maintenance, it can lead to component failure.
Unlike one-time cost savings like a staff reduction or cutting advertising spend, increasing efficiency delivers cost savings over the long term. That makes efficiency gains an attractive option for many shops looking to cut costs during COVID-19.