Fluorescent lamps give off the same amount of light as their traditional incandescent counterparts, but they require considerably less electricity, which in turn reduces the damaging effects electric power generation causes to the environment. Incandescent light bulbs actually require four times the amount of energy to produce equivalent light in a fluorescent lamp. Fluorescent lamps are four to six times more efficient than incandescent lamps, reducing the power demand from local utilities. Because most power stations use coal as a source for electrical generation, they are large emitters of both greenhouse gas and mercury, which is naturally occurring in most coal that is used today.
Mercury does present significant health and safety risks to consumers and handlers. However, proper packaging does exist that has been proven to protect people from mercury vapor exposure when handling fragile fluorescent lamps. To ensure sufficient packaging methods are used, packaging regulations should be defined and enforced.
Brad Buscher
Chairman and CEO
VaporLok Products LLC
Wednesday, November 24, 2010
Thursday, November 18, 2010
One Broken Bulb: The Health and Safety Risks
One broken four-foot fluorescent lamp in a small room or vehicle can release enough mercury vapor to exceed the OSHA mercury exposure eight-hour limit—posing significant health and safety risks to handlers and consumers. Plus, mercury vapor can be emitted for weeks after a single bulb is broken, continually polluting the air in consumers’ homes. When carelessly handled or improperly disposed of, mercury can get into drinking water, lakes, rivers and streams, posing a critical threat to human health, as well as the environment. Recent studies have linked mercury exposure to increased risk of heart attack in men, to mental retardation and neurological disorders in children, and dangerous levels of mercury in the blood of women of childbearing age.
Despite these health concerns, the EPA estimates that approximately 75 to 80 percent of fluorescent lamps are not recycled and are usually placed in dumpsters or trash containers, presenting a considerable risk. One study found that mercury is "strongly and persistently" emitted from dumpsters that contain broken fluorescent lamps.(1) Broken fluorescent lamps need to be properly recycled to prevent the release of mercury vapor. Learn how to clean up a broken bulb or how to safely package and recycle fluorescent lamps by reading our Layers of protection: Packaging used fluorescent lamps post.
1. Lindberg, S.E.; Owens, J. PaMSWaD (Pathways of Mercury in Solid Waste Disposal); Lockheed Martin Energy Research Corporation (LMER). 1999. 6.
Brad Buscher
Chairman and CEO
VaporLok Products LLC
Despite these health concerns, the EPA estimates that approximately 75 to 80 percent of fluorescent lamps are not recycled and are usually placed in dumpsters or trash containers, presenting a considerable risk. One study found that mercury is "strongly and persistently" emitted from dumpsters that contain broken fluorescent lamps.(1) Broken fluorescent lamps need to be properly recycled to prevent the release of mercury vapor. Learn how to clean up a broken bulb or how to safely package and recycle fluorescent lamps by reading our Layers of protection: Packaging used fluorescent lamps post.
1. Lindberg, S.E.; Owens, J. PaMSWaD (Pathways of Mercury in Solid Waste Disposal); Lockheed Martin Energy Research Corporation (LMER). 1999. 6.
Brad Buscher
Chairman and CEO
VaporLok Products LLC
Thursday, November 11, 2010
Which Packaging Configuration Effectively Contains Mercury Vapor?
To avoid both health and environmental risks associated with mercury vapor emissions from broken fluorescent lamps, they should be packaged, stored and transported to recycling facilities in a configuration that is specifically designed to contain mercury vapor—and proven to be effective.
The University of Minnesota study measured the performance of three different categories of packaging configurations that are used to store and transport used fluorescent lamps: single layer cardboard boxes, single layer cardboard boxes with a plastic bag, and double-layer cardboard boxes with a bag between the two layers. In ten replicate experiments, each box was filled with 40 used low-mercury T4 fluorescent lamps, dropped and shaken in a test chamber until the lamps were broken. During the next six hours, the level of mercury vapor inside the test chamber was measured and recorded. (1)
1. Single Layer Cardboard Box: Similar to the package in which fluorescent lamps are usually sold in, this packaging configuration was the least effective. It resulted in airborne mercury vapor levels in the test chamber exceeding all workplace exposure levels, as defined by state and federal authorities.
2. Single Layer Cardboard Box with a Plastic Bag: This contained the mercury better than the first box, but still emitted some mercury vapor.
3. Double-Layer Cardboard Boxes with a Bag Between the Two Layers: Out of all of the configurations, only this package design kept mercury vapor levels in the test chamber below all workplace exposure regulations and guidelines.
REFERENCES
1. Glenz, Tracy T., Lisa M. Brosseau, and Richard W. Hoffbeck. "Preventing Mercury Vapor Release from Broken Fluorescent Lamps during Shipping." Journal of the Air & Waste Management Association 59 (2009): 266-72. Print.
Brad Buscher
Chairman and CEO
VaporLok Products LLC
The University of Minnesota study measured the performance of three different categories of packaging configurations that are used to store and transport used fluorescent lamps: single layer cardboard boxes, single layer cardboard boxes with a plastic bag, and double-layer cardboard boxes with a bag between the two layers. In ten replicate experiments, each box was filled with 40 used low-mercury T4 fluorescent lamps, dropped and shaken in a test chamber until the lamps were broken. During the next six hours, the level of mercury vapor inside the test chamber was measured and recorded. (1)
1. Single Layer Cardboard Box: Similar to the package in which fluorescent lamps are usually sold in, this packaging configuration was the least effective. It resulted in airborne mercury vapor levels in the test chamber exceeding all workplace exposure levels, as defined by state and federal authorities.
2. Single Layer Cardboard Box with a Plastic Bag: This contained the mercury better than the first box, but still emitted some mercury vapor.
3. Double-Layer Cardboard Boxes with a Bag Between the Two Layers: Out of all of the configurations, only this package design kept mercury vapor levels in the test chamber below all workplace exposure regulations and guidelines.
REFERENCES
1. Glenz, Tracy T., Lisa M. Brosseau, and Richard W. Hoffbeck. "Preventing Mercury Vapor Release from Broken Fluorescent Lamps during Shipping." Journal of the Air & Waste Management Association 59 (2009): 266-72. Print.
Brad Buscher
Chairman and CEO
VaporLok Products LLC
Thursday, November 4, 2010
What Happens When the Bulb Breaks?
When a fluorescent lamp breaks, it emits mercury vapor, which can cause severe health and safety risks. Mercury vapor, which can be absorbed through the skin or inhaled, can cause neurological damage to adults, children and fetuses. (1) It is considered a persistent bioaccumulative toxic chemical, since it doesn't degrade in the environment. (2) When mercury vapor gets into water, it is converted to methyl mercury and can enter the food chain through fish. Methyl mercury causes damage to the central nervous system and it is also thought to be a possible human carcinogen. (3)
To avoid both health and environmental risks associated with mercury vapor emissions from broken fluorescent lamps, they should be packaged, stored and transported to recycling facilities in a configuration that is specifically designed to contain mercury vapor—and proven to be effective.
1. Mercury Fact Sheet; Agency for Toxic Substances and Disease Registry, 1999; available at http://www.atsdr.cdc.gov/tfacts46.pdf (accessed October 1, 2007).
2. Persistent Bioaccumulative Toxic (PBT) Chemicals; Final Rule. Fed Regist. 1999, 64, 58666-58753.
3. Mercury Compounds Hazard Summary, 2000. Technology Transfer Network Air Toxics web site; U.S. Environmental Protection Agency; available at http://www.epa.gov/ttn/atw/hlthef/mercury.html (accessed November 20, 2007).
Brad Buscher
Chairman and CEO
VaporLok Products LLC
To avoid both health and environmental risks associated with mercury vapor emissions from broken fluorescent lamps, they should be packaged, stored and transported to recycling facilities in a configuration that is specifically designed to contain mercury vapor—and proven to be effective.
1. Mercury Fact Sheet; Agency for Toxic Substances and Disease Registry, 1999; available at http://www.atsdr.cdc.gov/tfacts46.pdf (accessed October 1, 2007).
2. Persistent Bioaccumulative Toxic (PBT) Chemicals; Final Rule. Fed Regist. 1999, 64, 58666-58753.
3. Mercury Compounds Hazard Summary, 2000. Technology Transfer Network Air Toxics web site; U.S. Environmental Protection Agency; available at http://www.epa.gov/ttn/atw/hlthef/mercury.html (accessed November 20, 2007).
Brad Buscher
Chairman and CEO
VaporLok Products LLC
Labels:
CFL,
fluorescent lamps,
health and safety,
mercury,
mercury vapor,
methyl mercury,
packaging,
vaporlok
Thursday, October 28, 2010
Safe Fluorescent Lamp Packaging: Protecting Against Harmful Mercury Vapor
On average, CFLs and fluorescent lamps contain about 4 milligrams of mercury. Mercury is dangerous and can be a threat to our safety and health when exposed to it. It is important for consumers to take the necessary precautions when handling, storing or transporting used or broken lamps to protect themselves against any potential harm from released mercury vapor.
According to a study conducted by the University of Minnesota, there is only one proven packaging configuration that effectively contains mercury vapor from broken fluorescent lamps below permissible workplace exposure levels, as defined by state and federal authorities. This configuration consists of an outer cardboard layer, a bag to contain the mercury vapor and an inner layer of cardboard to prevent broken glass from puncturing the bag.
Brad Buscher
Chairman and CEO
VaporLok Products LLC
According to a study conducted by the University of Minnesota, there is only one proven packaging configuration that effectively contains mercury vapor from broken fluorescent lamps below permissible workplace exposure levels, as defined by state and federal authorities. This configuration consists of an outer cardboard layer, a bag to contain the mercury vapor and an inner layer of cardboard to prevent broken glass from puncturing the bag.
Brad Buscher
Chairman and CEO
VaporLok Products LLC
Wednesday, October 20, 2010
Earthmate Compact Fluorescent Lights
Waste Management now offers Earthmate compact fluorescent lightbulbs (CFLs) in recyclable packaging that also doubles as a CFL recycling kit. This new product includes Earthmate CFLs packaged in a resealable box lined with the VaporLok™ Products, LLC technology , which is designed to reduce the risk of airborne mercury exposure and environmental contamination from lamps broken during storage and shipping. The box is suitable for storing used CFLs and is approved for shipping by the United States Postal Service. Consumers return their used CFLs in the included postage paid shipping container to the Waste Management lamp recycling center simply by mailing them from home or any of over 34,000 US Post Offices. Learn more here.
Brad Buscher
Chairman and CEO
VaporLok Products LLC
Brad Buscher
Chairman and CEO
VaporLok Products LLC
Labels:
CFLs,
Earthmate,
environment,
fluorescent lamps,
mercury,
mercury vapor,
packaging,
recycle,
vaporlok,
Waste Management
Thursday, October 14, 2010
U.S. DOT Regulation of Fluorescent Lamp Transportation (Part 3 of 3)
In addition to the exceptions listed in the previous two posts, DOT regulations are, in general, relatively lax. They allow transport of used lamps in the original manufacturer’s packaging for a lamp, even though that packaging is almost certainly not designed to prevent the loss of mercury vapors. The DOT standard allows lamps (as long as each lamp contains less than five grams of mercury) to be transported in the “manufacturer’s original packaging” as long as the package contains less than 30 grams of total mercury.
Based on the mercury content assumptions described above, the DOT standard allows a lamp generator to transport any reasonable quantity (up to 1000 typical CFLs or low-mercury lamps) in the manufacturer’s original packaging. Read more about the need for more stringent packaging regulations in the blog post: Layers of Protection: Packaging Used Fluorescent Lamps.
Finally, most generators of used lamps are unlikely to comply with one specific requirement of DOT regulations. A shipper of used lamps must provide a “shipping paper” that indicates the quantity of mercury contained in the package. 49 C.F.R. § 173.164(c)((3)(iii). This requirement does not exist under federal and state universal waste rules that specifically exempt lamp generators and transporters from this type of record keeping in hopes of encouraging lamp recycling. While lamp recycling should be encouraged, it is only an effective method of preventing mercury vapor exposure and pollution when a proven package is utilized for storage and transportation of used lamps. For additional information on the U.S. DOT regulation of fluorescent lamp transportation, read Part 1 and Part 2 in this series.
Peder Larson
Attorney
Larkin Hoffman
Based on the mercury content assumptions described above, the DOT standard allows a lamp generator to transport any reasonable quantity (up to 1000 typical CFLs or low-mercury lamps) in the manufacturer’s original packaging. Read more about the need for more stringent packaging regulations in the blog post: Layers of Protection: Packaging Used Fluorescent Lamps.
Finally, most generators of used lamps are unlikely to comply with one specific requirement of DOT regulations. A shipper of used lamps must provide a “shipping paper” that indicates the quantity of mercury contained in the package. 49 C.F.R. § 173.164(c)((3)(iii). This requirement does not exist under federal and state universal waste rules that specifically exempt lamp generators and transporters from this type of record keeping in hopes of encouraging lamp recycling. While lamp recycling should be encouraged, it is only an effective method of preventing mercury vapor exposure and pollution when a proven package is utilized for storage and transportation of used lamps. For additional information on the U.S. DOT regulation of fluorescent lamp transportation, read Part 1 and Part 2 in this series.
Peder Larson
Attorney
Larkin Hoffman
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