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“It’s Fracking Crazy…. And This Is Why We Are Reading News Reports of Civil Disobedience and Destruction of Fracking Equipment”

“When most people ask, “How can we stop global warming?” they aren’t really asking what they pretend they’re asking. They are instead asking, “How can we stop global warming without stopping the burning of oil and gas, without stopping the industrial infrastructure, without stopping this omnicidal system?”  The answer:  you can’t.”  ~ Deep Green Resistance

173 towns in New York have passed a ban or moratorium on fracking. Nationwide in the U.S., some 364 communities have taken action.  And the demonstrations in Balcombe, Sussex England will likely turn away fracking from Britain.

Hydraulic Fracturing 101

Within the past decade, the combination of hydraulic fracturing with horizontal drilling has opened up shale deposits across the country and brought large-scale natural gas drilling to new regions, making profitable otherwise prohibitively expensive extraction.   Fracking has already destroyed Barnhart, Texas, and more fracking is on its way – unless there is a successful resistance.


Fracking involves much trucking in and out of machinery and disruption of life on the surface level of the land where many creatures live.  Below the surface, fracking violently drills through land integrity to a depth most people can hardly imagine (6000-7000) feet – the size of a high mountain in reverse. Fracking introduces poisonous chemical agents into the earth and groundwater – which cycles back into the people and creatures who live in the area.   It is also industrially intensive, with no long-term studies that prove its “safety” for future generations who live on the land.  In fact, we are seeing both the poisoning of precious groundwater and the stealing of massive amounts of water itself for the industrial process of fracking.

Technical Info:  The fracking process occurs after a well has been drilled deeper than most people can imagine – 7000 feet, like a Sierra mountain in reverse.    Steel pipe (casing) that has been inserted in the well bore is perforated within the target zones that contain oil or gas, so that when the fracturing fluid is injected into the well it flows through the perforations into the target zones. Eventually, the target formation will not be able to absorb the fluid as quickly as it is being injected. At this point, the pressure created causes the formation to crack or fracture. Once the fractures have been created, injection ceases and the fracturing fluids begin to flow back to the surface.

Materials called proppants (e.g., usually sand or ceramic beads), which were injected as part of the frac fluid mixture, remain in the target formation to hold open the fractures. Typically, a mixture of water, propellants and chemicals is pumped into the rock or coal formation. There are, however, other ways to fracture wells. Sometimes fractures are created by injecting gases such as propane or nitrogen, and sometimes acidizing occurs simultaneously with fracturing. Acidizing involves pumping acid (usually hydrochloric acid), into the formation to dissolve some of the rock material to clean out pores and enable gas and fluid to flows more readily into the well.

Where do the chemicals go?  Some studies have shown that anywhere from 20-85% of fracking fluids may remain underground. Used fracturing fluids that return to the surface are often referred to as flowback, and these wastes are typically stored in open pits or tanks at the well site prior to disposal. The process of fracturing a well is far from benign, and easily qualifies as malignant.  Here’s an overview of some of the issues and impacts related to the highly industrialized well stimulation technique which fractures the deep shale of the earth’s surface.

Water Use– In 2010, the U.S. Environmental Protection Agency estimated that 70 to 140 billion gallons of water are used to fracture 35,000 wells in the United States each year. Yes, you read that right:  many billions of gallons of water.$File/Draft+Plan+to+Study+the+Potential+Impacts+of+Hydraulic+Fracturing+on+Drinking+Water+Resources-February+2011.pdf

This is approximately the annual water consumption of 40 to 80 cities each with a population of 50,000.

Fracture treatments in coalbed methane wells use from 50,000 to 350,000 gallons of water per well:, while deeper horizontal shale wells can use anywhere from 2 to 10 million gallons of water to fracture a single well: The extraction of so much water for fracking has raised concerns about the ecological impacts to aquatic resources, as well as dewatering of drinking water aquifers: It has been estimated that the transportation of a million gallons of water (fresh or waste water) requires 200 truck trips. Thus, not only does water used for hydraulic fracturing deplete fresh water supplies and impact aquatic habitat, the transportation of so much water also creates localized air quality, safety and road repair issues.

–Sand and Proppants–

Conventional oil and gas wells use, on average, 300,000 pounds of proppant: coalbed fracture treatments use anywhere from 75,000 to 320,000 pounds of proppant: and shale gas wells can use more than 4 million pounds of proppant per well. Frac sand mines are springing up across the country, from Wisconsin to Texas, bringing with them their own set of impacts. Mining sand for proppant use generates its own range of impacts, including water consumption and air emissions: as well as potential health problems related to crystalline silica:

–Toxic Chemicals–

In addition to large volumes of water, a variety of chemicals are used in hydraulic fracturing fluids. The oil and gas industry and trade groups are quick to point out that chemicals typically make up just 0.5 and 2.0% of the total volume of the fracturing fluid. When millions of gallons of water are being used, however, the amount of chemicals per fracking operation is very large. For example, a four million gallon fracturing operation would use from 80 to 330 tons of chemicals. As part of New York State’s Draft Supplemental Generic Environmental Impact Statement (SGEIS) related to Horizontal Drilling and High-Volume Hydraulic Fracturing in the Marcellus Shale, the Department of Environmental Conservation complied a list of chemicals and additives used during hydraulic fracturing.

Many fracturing fluid chemicals are known to be toxic to humans and wildlife, and several are known to cause cancer. Potentially toxic substances include petroleum distillates such as kerosene and diesel fuel (which contain benzene, ethylbenzene, toluene, xylene, naphthalene and other chemicals); polycyclic aromatic hydrocarbons; methanol; formaldehyde; ethylene glycol; glycol ethers; hydrochloric acid; and sodium hydroxide. Very small quantities of some fracking chemicals are capable of contaminating millions of gallons of water. According to the Environmental Working Group, petroleum-based products known as petroleum distillates such as kerosene (also known as hydrotreated light distillates, mineral spirits, and a petroleum distillate blends) are likely to contain benzene, a known human carcinogen that is toxic in water at levels greater than five parts per billion (or 0.005 parts per million). Other chemicals, such as 1,2-Dichloroethane are volatile organic compounds (VOCs). Volatile organic constituents have been shown to be present in fracturing fluid flowback wastes at levels that exceed drinking water standards.

For example, testing of flowback samples from Pennsylvania have revealed concentrations of 1,2-Dichloroethane as high as 55.3 micrograms per liter, which is more than 10 times EPA’s Maximum Contaminant Level for 1,2-Dichloroethane in drinking water.

VOCs not only pose a health concern while in the water, the volatile nature of the constituents means that they can also easily enter the air. According to researchers at the University of Pittsburgh’s Center for Healthy Environments and Communities, organic compounds brought to the surface in the fracturing flowback or produced water often go into open impoundments (frac ponds), where the volatile organic chemicals can offgas into the air.

When companies have an excess of unused hydraulic fracturing fluids, they either use them at another job or dispose of them. Some Material Safety Data Sheets (MSDSs) include information on disposal options for fracturing fluids and additives. The table below summarizes the disposal considerations that the company Schlumberger Technology Corp. (“Schlumberger”) includes in its MSDSs. As seen in the table, Schlumberger recommends that many fracturing fluid chemicals be disposed of at hazardous waste facilities. Yet these same fluids (in diluted form) are allowed to be injected directly into or adjacent to USDWs. Under the Safe Drinking Water Act, hazardous wastes may not be injected into USDWs.

Moreover, even if hazardous wastes are decharacterized (for example, diluted with water so that they are rendered non-hazardous), wastes must still be injected into a formation that is below the USDW. Clearly, some hydraulic fracturing fluids contain chemicals deemed to be “hazardous wastes.” Even if these chemicals are diluted it is unconscionable that EPA is allowing these substances to be injected directly into underground sources of drinking water.

–Health Concerns–

Human exposure to fracking chemicals can occur by ingesting chemicals that have spilled and entered drinking water sources, through direct skin contact with the chemicals or wastes (e.g., by workers, spill responders or health care professionals), or by breathing in vapors from flowback wastes stored in pits or tanks. In 2010, Theo Colborn and three co-authors published a paper entitled Natural Gas Operations from a Public Health Perspective:

Colborn and her co-authors summarized health effect information for 353 chemicals used to drill and fracture natural gas wells in the United States. Health effects were broken into 12 categories: skin, eye and sensory organ, respiratory, gastrointestinal and liver, brain and nervous system, immune, kidney, cardiovascular and blood, cancer, mutagenic, endocrine disruption, other, and ecological effects. The chart below illustrates the possible health effects associated with the 353 natural gas-related chemicals for which Colborn and her co-authors were able to gather health-effects data.

Health effects chart

Natural gas drilling and hydraulic fracturing chemicals with 10 or more health effects

• 2,2′,2″-Nitrilotriethanol • 2-Ethylhexanol • 5-Chloro-2-methyl-4-isothiazolin-3-one • Acetic acid • Acrolein • Acrylamide (2-propenamide) • Acrylic acid • Ammonia • Ammonium chloride • Ammonium nitrate • Aniline • Benzyl chloride • Boric acid • Cadmium • Calcium hypochlorite • Chlorine • Chlorine dioxide • Dibromoacetonitrile 1 • Diesel 2 • Diethanolamine • Diethylenetriamine • Dimethyl formamide • Epidian • Ethanol (acetylenic alcohol) • Ethyl mercaptan • Ethylbenzene • Ethylene glycol • Ethylene glycol monobutyl ether (2-BE) • Ethylene oxide • Ferrous sulfate • Formaldehyde • Formic acid • Fuel oil #2 • Glutaraldehyde • Glyoxal • Hydrodesulfurized kerosene • Hydrogen sulfide • Iron • Isobutyl alcohol (2-methyl-1-propanol) • Isopropanol (propan-2-ol) • Kerosene • Light naphthenic distillates, hydrotreated • Mercaptoacidic acid • Methanol • Methylene bis(thiocyanate) • Monoethanolamine • NaHCO3 • Naphtha, petroleum medium aliphatic • Naphthalene • Natural gas condensates • Nickel sulfate • Paraformaldehyde • Petroleum distillate naptha • Petroleum distillate/ naphtha • Phosphonium, tetrakis(hydroxymethyl)-sulfate • Propane-1,2-diol • Sodium bromate • Sodium chlorite (chlorous acid, sodium salt) • Sodium hypochlorite • Sodium nitrate • Sodium nitrite • Sodium sulfite • Styrene • Sulfur dioxide • Sulfuric acid • Tetrahydro-3,5-dimethyl-2H-1,3,5-thiadiazine-2-thione (Dazomet) • Titanium dioxide • Tributyl phosphate • Triethylene glycol • Urea • Xylene

While Colborn and her co-workers focused on chemicals used in natural gas development, the chemicals used to fracture oil wells are very similar or the same. Looking at some of the oil wells that have been developed in the Bakken Shale in North Dakota, the fracturing fluid mixtures include some of the chemicals shown by Colborn to have the potential to cause 10 or more adverse health effects. Information posted hydraulic fracturing fluid chemicals on the FracFocus web site indicates that Bakken Shale oil wells may contain toxic chemicals such as hydrotreated light distillate, methanol, ethylene glycol, 2-butoxyethanol (2-BE), phosphonium, tetrakis(hydroxymethyl)-sulfate (aka phosphonic acid), acetic acid, ethanol, and napthlene.

–Contamination and Devastation of Surface Water and Soil 

Spills of fracturing chemicals and wastes during transportation, fracturing operations and waste disposal have contaminated soil and surface waters. This section provides a few examples of spills related to hydraulic fracturing that have led to environmental impacts. Two spills kill fish: In September 2009, Cabot Oil and Gas spilled hydraulic fracturing fluid gel LGC-35 twice at the company’s Heitsman gas well. The two incidents released a total of 8,000 gallons of the fracturing fluid, polluting Stevens Creek and resulting in a fish kill. LGC-35, a well lubricant used during the fracturing process. A third spill of LGC-35 occurred a week later, but did not enter the creek. Fracturing fluid taints a high quality watershed: In December 2009, a wastewater pit overflowed at Atlas Resources’ Cowden 17 gas well, and an unknown quantity of hydraulic fracturing fluid wastes entered Dunkle Run, a “high quality watershed”. The company failed to report the spill.

In August 2010 the Pennsylvania Department of Environmental Protection (DEP) levied a $97,350 fine against Atlas Resources. Another fracturing fluid spill impacts a high quality waterway: In May 2010, Range Resources was fined was fined $141,175 for failing to immediately notify the Pennsylvania Department of Environmental Protection when the company spilled 250 barrels of diluted fracturing fluids due to a broken joint in a transmission line. The fluids flowed into an unnamed tributary of Brush Run, killing at least 168 fish, salamanders and frogs. The watercourse is designated as a warm-water fishery under Pennsylvania’s special protection waters program. Fracturing fluids affect soil and irrigation ditch: In October 2005 a valve on the wellhead of a Kerr-McGee well in Colorado failed. As a result, between168 and 210 gallons of flowback fluids sprayed into the air and drifted offsite, primarily onto pasture land, resulting in a visible coating that was as much as 1/2 inch thick.

–Groundwater Contamination and Devastation–

As mentioned previously, hydraulic fracturing is used in many coalbed methane (CBM) production areas. Some coal beds contain groundwater of high enough quality to be considered underground sources of drinking water (USDWs). In 2004, the U.S. Environmental Protection Agency (EPA) released a final study on Evaluation of Impacts to Underground Sources of Drinking Water by Hydraulic Fracturing of Coalbed Methane Reservoirs. In the study, EPA found that ten out of eleven CBM basins in the U.S. are located, at least in part, within USDWs. Furthermore, the EPA determined that in some cases, hydraulic fracturing chemicals are injected directly into USDWs during the course of normal fracturing operations. (Read Laura Amos’s story to learn how hydraulic fracturing has affected her family’s life.) Calculations performed by EPA in the draft version of its study show that at least nine hydraulic fracturing chemicals may be injected into or close to USDWs at concentrations that pose a threat to human health. T

he chart below is a reproduction of the data from the EPA draft study. As seen in the chart, chemicals may be injected at concentrations that are anywhere from 4 to almost 13,000 times the acceptable concentration in drinking water. Not only does the injection of these chemicals pose a short-term threat to drinking water quality, it is quite possible that there could be long-term negative consequences for USDWs from these fracturing fluids. According to the EPA study, studies conducted by the oil and gas industry, and interviews with industry and regulators, 20 to 85% of fracturing fluids may remain in the formation, which means the fluids could continue to be a source of groundwater contamination for years to come. The potential long-term consequences of dewatering and hydraulic fracturing on water resources have been summed up by professional hydrogeologist who spent 32 years with the U.S. Geological Survey: As mentioned previously, anywhere from 20-85% of fracking fluids remain in the ground. Some fracturing gels remain stranded in the formation, even when companies have tried to flush out the gels using water and strong acids.

Also, studies show that gelling agents in hydraulic fracturing fluids decrease the permeability of coals, which is the opposite of what hydraulic fracturing is supposed to do (i.e., increase the permeability of the coal formations). Other similar, unwanted side effects from water- and chemical-based fracturing include: solids plugging up the cracks; water retention in the formation; and chemical reactions between the formation minerals and stimulation fluids. All of these cause a reduction in the permeability in the geological formations. For more details on the studies that have looked at stranded fracturing fluids and the potential for hydraulic fracturing to affect underground sources of drinking water, see Our Drinking Water at Risk, Oil and Gas Accountability Project’s review of the EPA’s study on the impacts of hydraulic fracturing of coalbed methane reservoirs on drinking water.

–Air Quality–

In many oil and gas producing regions, there has been a degradation of air quality as drilling increases. For example, in Texas, high levels of benzene have been measured in the air near wells in the Barnett Shale gas fields. These volatile air toxics may be originating from a variety of gas-field source such as separators, dehydrators, condensers, compressors, chemical spills, and leaking pipes and valves. Increasingly, research is being conducted on the potential air emissions released during the fracturing flow back stage, when wastewater returns to the surface. Shales contain numerous organic hydrocarbons, and additional chemicals are injected underground during shale gas drilling, well stimulation (e.g., hydraulic fracturing), and well workovers. The Pittsburgh University Center for Healthy Environments and Communities (CHEC) has been examining how organic compounds in the shale can be mobilized during fracturing and gas extraction processes.

According to the CHEC researchers, these organic compounds are brought to the surface in the fracturing flowback or produced water, and often go into open impoundments (frac ponds), where the waste water, “will offgas its organic compounds into the air. This becomes an air pollution problem, and the organic compounds are now termed Hazardous Air Pollutants (HAP’s).” The initial draft of the New York draft supplemental environmental impacts statement related to drilling in the Marcellus Shale (which is no longer available on-line) included information on modeling of potential air impacts from fracturing fluid wastes stored in centralized impoundments.

One analysis looked at the volatile organic compound methanol, which is known to be present in fracturing fluids such as surfactants, cross-linkers, scale inhibitors and iron control additives. The state calculated that a centralized fracturing flowback waste impoundment serving 10 wells (5 million gallons of flowback per well) could have an annual emission of 32.5 tons of methanol. The U.S. EPA reports that “chronic inhalation or oral exposure to methanol may result in headache, dizziness, giddiness, insomnia, nausea, gastric disturbances, conjunctivitis, visual disturbances (blurred vision), and blindness in humans.” Open pits, tanks or impoundments that accept flowback wastes from one well would have a much smaller emission of volatile organic compounds (VOC) like methanol than facilities accepting wastes from multiple wells. But there are centralized flowback facilities like those belonging to Range Resources in Washington County, Pennsylvania that have been designed for “long-term use,” and thus, are likely to accept wastes from more than one well.

New York’s air modeling further suggested that the emission of Hazardous Air Pollutants (HAPs) from centralized flowback impoundments could exceed ambient air thresholds 1,000 meters (3,300 feet) from the impoundment, and could cause the impoundment to qualify as a major source of HAPs. Methanol is just one of the VOCs contained in flowback water. The combined emissions from all VOCs present in flowback stored at centralized impoundments could be very large, depending on the composition of the fracturing fluids used at the wells.

Data released on flowback water from wells in Pennsylvania reveal that numerous volatile organic chemicals are returning to the surface, sometime in high concentrations. The Pennsylvania Department of Environmental Protection looked for 70 volatile organic compounds in flowback, and 27 different chemicals showed up. In a health effects analysis conducted by Theo Colborn and others, 37% of the chemicals used during natural gas drilling, fracturing and production (for which health data were available) were found to be volatile, with the ability to become airborne. Colborn and her co-authors compared the potential health impacts of volatile chemicals with those chemicals more like to be found in water (i.e., chemicals with high solubilities). They found that “far more of the volatile chemicals (81%) can cause harm to the brain and nervous system. Seventy one percent of the volatile chemicals can harm the cardiovascular system and blood, and 66% can harm the kidneys,” producing a profile that “displays a higher frequency of health effects than the water soluble chemicals.” The researchers add that the chance of exposures to volatile chemicals are increased by case they can be inhaled, ingested and absorbed through the skin.

Citizens of the gas field are experiencing health effects related to volatile chemicals from pits. In 2005, numerous Colorado residents experienced severe odors and health impacts related to flowback and drilling pits and tanks in Garfield County. According to Dion and Debbie Enlow complained to the Colorado Oil and Gas Conservation Commission about odors from a Barrett wellpad upwind from their home. The pad had four wells that were undergoing completion/hydraulic fracturing. Dion Enlow complained to the company that the smell was so bad that “I can’t go outside and breathe.” In Pennsylvania, a fracturing flowback wastewater pit just beyond June Chappel’s property line created odors similar to gasoline and kerosene, which forced her inside, left a greasy film on her windows, on one occasion created a white dust that fell over her yard. Chappel and her neighbors lived with the noxious odors until they hired an attorney and Range Resources agreed to remove the impoundment.

In March 2010, a fracturing flowback wastewater impoundment in Washington County, Pennsylvania caught fire and exploded producing a cloud of thick, black smoke that could be seen miles away. For several days prior to the explosion nearby citizens had tried to alert state officials about noxious odors from the impoundment that were sickening their families, but “their voicemail boxes were full.”

–Chemical-laced Waste Disposal, or Not–

It has been reported that anywhere from 25 – 100% of the chemical-laced hydraulic fracturing fluids return to the surface from Marcellus Shale operations. This means that for some shale gas wells, millions of gallons of wastewater are generated, and require either treatment for re-use, or disposal. In 2009, the volume of fracturing flowback and brines produced in Pennsylvania was estimated to be 9 million gallons of wastewater per day, and this figure was expected to increase to 19 – 20 million gallons/day in 2011. The sheer volume of wastes, combined with high concentrations of certain chemicals in the flowback from fracturing operations, are posing major waste management challenges for the Marcellus Shale states. Also, the US Geological Survey has found that flowback may contain a variety of formation materials, including brines, heavy metals, radionuclides, and organics, which can make wastewater treatment difficult and expensive. According to an article in ProPublica, New York City’s Health Department has raised concerns about the concentrations of radioactive materials in wastewater from natural gas wells. In a July, 2009 letter obtained by ProPublica, the Department wrote that “Handling and disposal of this wastewater could be a public health concern.” The letter also mentioned that the state may have difficulty disposing of the waste, that thorough testing will be needed at water treatment plants, and that workers may need to be monitored for radiation as much as they might be at nuclear facilities.

Options for disposal of radioactive flowback or produced water include underground injection in Class II UIC wells and offsite treatment. The U.S. Environmental Protection Agency has indicated that Class II UIC injection disposal wells are uncommon in New York, and existing wells aren’t licensed to receive radioactive waste. In terms of offsite treatment, it is not known if any of New York’s water treatment facilities are capable of handling radioactive wastewater. ProPublica contacted several plant managers in central New York who said they could not take the waste or were not familiar with state regulations. Pennsylvania state regulators and the natural gas industry are also facing challenges regarding how to ensure proper disposal of the millions of gallons of chemical-laced wastewater generated daily from hydraulic fracturing and gas production in the Marcellus shale.

Drinking water treatment facilities in Pennsylvania are not equipped to treat and remove many flowback contaminants, but rather, rely on dilution of chlorides, sulfates and other chemicals in surface waters used for drinking water supplies. During the fall of 2008, the disposal of large volumes of flowback and produced water at publicly owned treatment works (POTWs) contributed to high total dissolved solids (TDS) levels measured in Pennsylvania’s Monongahela River and its tributaries: Studies showed that in addition to the Monongahela River, many of the other rivers and streams in Pennsylvania had a very limited ability to assimilate additional TDS, sulfate and chlorides, and that the high concentrations of these constituents were harming aquatic communities.

Research by Carnegie Mellon University and Pittsburgh Water and Sewer Authority experts suggests that the natural gas industry has contributed to elevated levels of bromide in the Allegheny and Beaver Rivers. Bromides react with disinfectants used by municipal treatment plants to create brominated trihalomethanes, which have been linked to several types of cancer and birth defects. In August of 2010, Pennsylvania enacted new rules limiting the discharge of wastewater from gas drilling to 500 milligrams per liter of total dissolved solids (TDS) and 250 milligrams per liter for chlorides. The number of municipal facilities allowed to take drilling and fracking wastewater has dropped from 27 in 2010 to 15 in 2011. Disposal of drilling and fracking waste water is going to continue to present a challenge to local and state governments as more wells are developed across the country.

–Chemical Disclosure–

One potentially frustrating issue for citizens is that it has not been easy to find out what chemicals are being used during the hydraulic fracturing operations in your neighborhood. According to the Natural Resources Defense Council, in the late 1990s and early 2000s attempts by various environmental and ranching advocacy organizations to obtain chemical compositions of hydraulic fracturing fluids were largely unsuccessful because oil and gas companies refused to reveal this “proprietary information.”

In the mid-2000s, the Oil and Gas Accountability Project and The Endocrine Disruption Exchange (TEDX) began to compile information on drilling and fracturing chemicals from a number of sources, including Material Safety Data Sheets obtained through Freedom of Information Act requests of state agencies. TEDX subsequently produced reports on the toxic chemicals used in oil and gas development in several western states including Montana, New Mexico, Wyoming and Colorado, and worked with the Environmental Working Group to produce a report on chemicals injected into oil and gas wells in Colorado. In 2006, the first effort to require disclosure of chemicals was launched. In June of 2006, the Oil and Gas Accountability Project submitted a letter to the Colorado Oil and Gas Conservation Commission (COGCC) and the Colorado Department of Public Health and the Environment (CDPHE) on behalf of five citizens organizations in Colorado. The groups asked that state agencies require disclosure of the chemicals used and monitoring of chemicals and wastes released by the oil and gas industry in Colorado. Since that time the Oil and Gas Accountability Project and others have worked to get disclosure bills passed in states across the country. Wyoming, Arkansas, Pennsylvania, Michigan and Texas now require a certain level of disclosure, although trade secret laws still prevent full disclosure in most states.

–Hydraulic Fracturing Best Practices?  No Practice–

From a public health perspective, if hydraulic fracturing stimulation takes place, the best option is to fracture formations using sand and water without any additives, or sand and water with non-toxic additives.  From a biosystems perspective, there is nothing non-toxic going on with fracking, even if so-called “non-toxic” additives, such as used by the offshore oil and gas industry, were to be implemented.   It is common to use diesel in hydraulic fracturing fluids –  diesel contains the carcinogen benzene, as well as other harmful chemicals such as naphthalene, toluene, ethylbenzene and xylene. According to the company Halliburton, “Diesel does not enhance the efficiency of the fracturing fluid; it is merely a component of the delivery system.” It is technologically feasible to replace diesel with non-toxic “delivery systems,” such as plain water. According to the EPA, “Water-based alternatives exist and from an environmental perspective, these water-based products are preferable.” But groundwater & aquifer depletion being the problem that they currently are, across the globe, using more water for fracking is no solution. Oil and gas wastes are often flowed back to and stored in pits on the surface. Often these pits are unlined. But even if they are lined, the liners can tear and contaminate soil and possibly groundwater with toxic chemicals. As mentioned above, toxic chemicals are used during hydraulic fracturing operations. The same chemicals that are injected come back to the surface in the flowed-back wastes.

–Tips for Landowners & Land Lovers—

Obtaining fracking chemical information: The law requires that all employees have access to a Material Safety Data Sheet (MSDS), which contains information on health hazards, chemical ingredients, physical characteristics, control measures, and special handling procedures for all hazardous substances in the work area. The MSDSs are produced and distributed by the chemical manufacturers and distributors. It should be noted that MSDSs may not list all of the chemicals or chemical constituents being used (if they are trade secrets). Landowners may be able to obtain copies of MSDSs from company employees, the chemical manufacturers, or possibly from state agency representatives.

Prior to the enactment of some state laws regarding the disclosure of hydraulic fracturing and other drilling chemicals, there were two sources of information on chemicals used during oil and gas development. These sources were: Material Safety Data Sheets and Tier II reports. Now, limited chemical information can be obtained, as well, via web sites such as Frac Focus or state agency sites. But criticisms have been raised regarding fracturing fluid registries, such as they do not provide enough detailed information on chemical concentrations and volumes, nor do they provide information in a format that is easy to use. -Matearial Safety Data Sheets (MSDSs): The law requires that all employees have access to Material Safety Data Sheets, which contain information on health hazards, chemical ingredients, physical characteristics, control measures, and special handling procedures for all hazardous substances in the work area. MSDSs are produced and distributed by the chemical manufacturers and distributors. Citizens may be able to obtain copies of MSDSs from company employees, chemical manufacturers, local or state agency representatives, or via some web sites. -Tier II Reports: The federal Emergency Planning and Community Right-to-Know Act (EPCRA) requires facilities that store chemicals to report products that contain hazardous substances. Some chemicals do not have to be reported, if they are below a certain threshold. Theo Colborn of The Endocrine Disruption Exchange has enumerated several problems with the information in MSDS and Tier II reports.


  1. Hazen and Sawyer, December 22, 2009. Impact Assessment of Natural Gas Production in the New York City Water Supply Watershed. p.5.
  2.  In October of 2004, OGAP filed a Freedom of Information Act request with EPA to obtain the Material Safety Data Sheets (MSDS) supplied to the agency by hydraulic fracturing companies. (Freedom of Information Act, 5 U.S.C. 552, Request Number HQ-RIN-00044-05). The information in this table were contained in MSDS sheets from Schlumberger.
  3.  The Frac Focus web site does not allow users to link to lists of chemicals published for individual well sites. To view data on the Bakken Shale wells, go to FracFocus web site and Search: North Dakota. Dunn County. Marathon. Edward Darwin #14-35H. Fracture Date: 7/14/2011; and Search: North Dakota. Dunn County. ConocoPhillips. Intervale 31-35H well. Fracture Date: 8/9/2011.

– See more at: See more at:  

Ample oil, no water.

Fracking boom sucks away precious water from beneath the ground, leaving cattle dead, farms bone-dry and people thirsty.  The Texas Fracking Dust Bowl has begun.

Barnhart, Texas

In the small town of Barnhart, Texas the double impact of climate change and fracking have literally dried out the town’s water supply. In less then two years fracking companies used over 8 million gallons of fresh water leaving the town dry.

It is estimated that by year’s end another 30 small Texan towns will see their water wells go dry due to fracking.

The battle over water has well begun, and has been reported all over the world, including an in-depth article in The Guardian.  And not just in Texas – places as far away as New Bruinswick Canada, Sussex England, and South Wales UK are also battling the oil companies coming in to steal the water of life from the land and all its creatures.


The strategy of Deep Green Resistance starts by acknowledging the dire circumstances that industrial civilization has created for life on this planet. And that these circumstances should be met with solutions that match the scale of the problems.  This is a vast undertaking but it needs to be said:  it can be done.  Industrial civilization can be stopped.

The task of an activist is not to navigate systems of oppressive power with as much personal integrity as possible; it is to dismantle those systems.  Will you join us?

Dunes Sagebrush lizard

Ya-Wei Li, Policy Advisor for Endangered Species Conservation has just reported on a study exposing many questionable aspects to the Texas Lizard “Conservation” Plan.

Crane County, Texas is a land peppered with oil and gas wells, connected by arteries of pipelines and dirt roads. It’s one of the top counties for oil and gas production in Texas. It’s also where the dunes sagebrush lizard is trying to persist amidst all the mayhem. Last June, the U.S. Fish & Wildlife Service decided that it no longer needed to list the lizard under the Endangered Species Act, partly because it had signed a conservation plan (called the Texas Habitat Conservation Plan) for the lizard with the Texas Comptroller of Public Accounts.

The plan can’t protect the lizard because it doesn’t describe how landowners will protect the species from oil and gas development, off-road vehicle use and other activities that can squish lizards. Without this information, the Service has absolutely no idea whether the plan will live up to its promises.

The Comptroller certainly believes it will. Ever since it signed the plan in April 2012, it’s been reporting every month to the Service that not a single acre of enrolled habitat has been disturbed. That’s right, nothing across over 138,640 acres in some of the most productive oil and gas counties in Texas.

Sound too good to be true?  Ya-Wei and Andy thought so too, and  launched their own investigation.  They compared aerial images taken immediately after an area was enrolled in the Texas plan, with images taken four and then thirteen months later. What they discovered were multiple instances of habitat destruction that the Comptroller was required to report to the Service, but never did. We’re talking about new oil drilling pads, dirt roads and land clearings.

And as it turns out, this so-called “conservation” foundation is directed solely by lobbyists for the Texas Oil and Gas Association!  Legally, every time oil and gas developers disturb lizard habitat, they are required to pay a fee under the Texas plan to offset the impacts of their development activity. If no disturbance is reported, then there are no fees to pay. It’s hard not to suspect a conflict of interest here.  Fortunately, tools like GIS mapping allow researchers to shed light on some of the darkest corners of how states try to avoid listing an endangered species.

Full article here


This is the bucket wheel excavator, one of the world’s most massive pieces of mobile equipment. It’s used in mining to rip into the Earth. The soil and whatnot that is on top of, say, a coal deposit, is known as “overburden,” and a bucket wheel excavator makes short work of it.

How can a culture which creates such monstrosities possibly live harmoniously with the complex set of interdependent relationships that make up the living Earth?

This is madness.