Archive for the ‘Transportation’ Category

Ethanol: A Growing Market with New Firefighting Challenges

Friday, June 3rd, 2011

Author: David Willauer, Manager, Transportation & Geospatial Technologies Division, IEM

Ethanol, also known as “grain alcohol” and derived primarily from a corn fermentation process, is being embraced by federal and state governments through numerous subsidies as a viable bio-fuel. Today, ethanol joins biodiesel in a growing demand for reduced emissions nationwide, resulting in increased ethanol production, distribution and transportation. One consequence of increasing ethanol blends is that the volume of bulk ethanol transported, handled and stored continues to increase, creating new risks and challenges for firefighters worldwide.

Ethanol plantThe impetus for this and previous blogs (see Ethanol, The New Hazmat; and Emerging Ethanol Regulations) was concerns from county officials regarding increasing ethanol shipments and the cost of stockpiling alcohol resistant firefighting foam (one example is AR-AFFF). This is a local response to a national issue: which counties need the most foam, where should we put it and how are we going to pay for it?

As part of a statewide regional hazardous materials study, IEM is helping officials and emergency responders in one state answer these questions in addition to figuring out what other chemicals are being transported through their backyard.

Rail providers are also getting into the act, as bulk ethanol is now the #1 commodity for some Class I railroads. To help local emergency responders, railroads are positioning AR-AFFF Trailers at strategic locations throughout their railroad system to be ready in the event of unforeseen ethanol fire incidents.

Another good example of an ethanol public/private partnership includes an example where multiple petroleum companies have joined forces  to ensure requirements for sufficient supplies of alcohol-resistant foam were written into the local ordinance. In this example, the petroleum companies, not the municipality, helped pay for foam and the foam trailers from which the foam would be deployed. (more…)

Chemical Company Safety and Security Mandates with Feds on All Sides

Thursday, April 28th, 2011

Author: David Willauer, Manager, Transportation & Geospatial Technologies Division, IEM

In a country with many regulatory measures, chemical companies face federal mandates from all sides. Such mandates include operational safety, increased security measures, emergency preparedness and reporting. Some of these mandates from different federal agencies are in conflict with one another. Every federal law related to hazardous materials has its own unique definition.  Common terms are hazardous materials (DOT and OSHA), hazardous substance (CERCLA), listed chemical (TRI and RMP) and listed and characteristic wastes (RCRA).

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Emerging Ethanol Regulations

Tuesday, March 29th, 2011

Author: David Willauer, Manager, Transportation & Geospatial Technologies Division, IEM

In my previous blog post (Ethanol: The New HazMat?), it was inaccurate to suggest that ethanol is a completely unregulated chemical. While ethanol is not regulated under the EPA Risk Management Program (RMP) or Toxic Release Inventory (TRI) when used as a fuel (like gasoline), it is still regulated under the EPA “General Duty Clause,” and it is subject to other regulations.

HazMat is short for “hazardous material” which is a term used by the Department of Transportation (DOT) for anything that would be placarded for transport or has a UN/NA number. This also applies to chemicals required by the Occupation Safety & Health Administration (OSHA) to have a Material Safety Data Sheet (MSDS) when it applies to an employer.  Ethanol has a UN number of 1170 and is placarded by the DOT for flammability. It is also listed under the National Fire Protection Act (NFPA) with a rating of health (2), fire (3), and reactivity (0) on a scale of 0-4 with 4 being the worst health hazard. Finally, OSHA’s Process Safety Management (PSM) program does establish a 10,000 lb threshold for flammable liquids and gases as defined in 1910.1200(c) of their standard. (more…)

Ethanol: The New HAZMAT?

Monday, March 28th, 2011

Author: David Willauer, Manager, Transportation & Geospatial Technologies Division, IEM

Train derailment carrying ethanolIs ethanol considered HazMat? This question continues to be debated as we use increasing amounts of this corn-based product to supplement our nation’s fuel supply. Ethanol is not a regulated chemical. Unlike MTBE, ethanol reportedly does not pollute ground water.

However, ask a firefighter about ethanol and you will get a different answer.  Whether blended with gasoline or not, ethanol is highly flammable and corrosive.

Ethanol is an alcohol-based organic com­pound produced chemically by ethylene conversion (a patented process) or through fermentation of sugars using yeasts. Ethanol (C2H5OH) is flammable, colorless, and odorless. Today we are blending ethanol and gasoline to produce E85 (85% ethanol) or E10 (10% ethanol). E85 requires modifications to engines whereas E10 does not. (more…)

Transportation Around Evacuation Areas of Fukushima Nuclear Plants

Friday, March 18th, 2011

Author: Justin Krometis, Transportation Analyst, IEM

I have participated in over a dozen evacuation studies over the last several years, many of them focused on nuclear plants, so I have been closely following the protective actions being taken around the Fukushima nuclear power plants in Japan. I wanted an easy way to look at the towns affected and the road network therein but I had not yet seen an interactive map that showed the locations of the plants and the areas covered by the evacuation and shelter orders. So I used the Google Maps API to create one.

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Transportation Infrastructure Damage in Japan

Thursday, March 17th, 2011

Japan's infrastructure

Author: David Willauer, Manager, Transportation & Geospatial Technologies Division, IEM

The damage inflicted on infrastructure by an earthquake or tsunami is is fundamentally different than that caused by a hurricane. In particular, while transportation following a hurricane is primarily inhibited by debris resulting from wind damage, an earthquake or tsunami causes substantial damage to infrastructure, including highways, railroads, airports and ferry terminals. Transportation infrastructure damage impacts personal mobility, the movement of goods and the entire global supply chain. In Japan, the earthquake impacted transportation infrastructure in Iwate, Miyage and Fukushima (see figure below). Damage included washed out roadways and highways, damaged bridges, damaged ferry terminals, buried airports and railroads. Details follow.

Japan's infrastructure damage Japan's railway infrastructure damage

Highways

Japan has been aggressively building its highway transportation infrastructure since 1963 when the first expressway opened. Since then, Japan has constructed over 7,600 km of expressways used by more than 1,600 million vehicles each year (see figure below). Highway damage was m ost extensive in Sendai, where major sections were damaged by the earthquake then buried with tsunami debris. (more…)

Context for Transportation Infrastructure Damage in Japan

Tuesday, March 15th, 2011

Author: Justin Krometis, Transportation Analyst, IEM

Highway systems are always vulnerable to large disasters such as earthquakes, volcanoes, floods, hurricanes, and tsunamis. Resulting consequences include bridge damage, roadway structure failure, and landslides.

A worker inspects a caved-in section of the Joban Motorway near Mito.

A worker inspects a caved-in section of the Joban Motorway near Mito. Credits: Nexco/AP

To help provide context for the massive amounts of roadway infrastructure damage caused in Japan, here are some historic examples of disasters and the impacts to transportation routes:

 

At 08:07 a.m. local time on December 26, 2004, a large-scale earthquake with magnitude 9.0 occurred at the western coast of Northern Sumatra Island, Indonesia. The earthquake generated a tsunami with wave height exceeding 20 m. According to a damage investigation in the city of Banda Aceh on the North Sumatra Island of Indonesia after the 2004 Indian Ocean Tsunami, researchers concluded that the primary damage to the highway bridges included the washout of bridge superstructures by tsunami waves. Because of the tsunami, 56.6 km of the 250 km seaside road outside Banda Aceh became impassable and 126.7 km was seriously damaged. Eighty-one out of 186 bridges (43.5 percent) along the roads were washed out or heavily damaged. (more…)

HazMat Planning: Know What’s Traveling Through Your State’s Backyard

Thursday, April 22nd, 2010

Author: David Willauer, Senior Transportation Planner, IEM

Transportation of hazardous chemicals is critical to the sustenance and growth of inter- and intra-state commerce. Hazardous chemicals, some extremely hazardous, are transported using highways corridors, pipelines, rail, and waterways in every state of the continental US. While movement of these chemicals is a necessity, safety of the communities adjacent to transportation routes and safety of the workers engaged in handling these chemicals is so important.

Consider two widely-used chemicals—ammonia and chlorine. Ammonia is widely used to make fertilizers, in chemical production, and as a refrigerant at food processing plants. Chlorine is used in paper production and for water and waste water treatment. However, both chemical gases can be harmful if inhaled in unsafe quantities. Last year, a maintenance worker at a chicken processing plant was killed when he inadvertently dismantled a machine that contained ammonia to cool the meat. A dozen other workers were hospitalized last fall when exposed to ammonia leaking from a damaged rail tank car. The most common incidents involving chemicals occur during the loading and unloading at chemical facilities or water treatment plants.

The key to achieving the right balance between the need to transport chemicals and providing adequate protection to people is having a comprehensive view of what chemicals are moving along what routes, and determining the potential risks that these chemicals pose.

While it is common to simply study the hazardous materials markings on vehicles carrying chemical shipments on the state highways and Interstates, this method is not comprehensive and does not include details such as origins and destinations or quantities being shipped. Emergency managers want to know which chemicals are travelling through their counties and where, the risks these chemical pose to the surrounding communities, the response capacities that local responders have, and the right training and exercises to enhance their preparedness for hazardous materials incidents.

IEM recently completed a series of regional studies of chemical shipments, including ammonia, chlorine, and sulfuric acid, to and from chemical facilities in a particular region of a state. The study components include mapping chemical shipments, conducting risk assessments and identifying potentially affected populations. Ultimately, it is intended to provide the state with a foundation for a cyclical hazmat transportation planning process that includes Local Emergency Planning Committees (LEPCs), county emergency planners, chemical suppliers, transportation shippers and other federal, state and local stakeholders.

These kinds of regional hazardous material planning studies provide state and local emergency managers, responders, and decision makers with the information they need to achieve a high level of preparedness for any hazmat incident that may happen within their jurisdictions. A comprehensive view of the commodity flows allows for identifying community risks, response capacities and gaps, and development of appropriate mitigation strategies. It is important that responsible state and local agencies take a fresh look at how they currently approach hazardous materials planning, and how a more regional approach can benefit them.

To learn more about IEM’s Transportation Modeling services, click: http://www.iem.com/markets/multi-modal-transportation-safety-and-security