The Captina Creek Watershed straddles the counties of Belmont and Monroe in Southeastern Ohio and feeds into the Ohio River. It is the highest quality watershed in all of Ohio and a great examples of what the Ohio River Valley’s tributaries once looked, smelled, and sounded like. Sadly, today it is caught in the cross-hairs of the oil and gas industry by way of drilling, massive amounts of water demands, pipeline construction, and fracking waste production, transport, and disposal. The images and footage presented in the story map below are testament to the risks and damage inherent to fracking in the Captina Creek watershed and to this industry at large. Data included herein includes gas gathering and interstate transmission pipelines like the Rover, NEXUS, and Utopia (Figure 1), along with Class II wastewater injection wells, compressor stations, unconventional laterals, and freshwater withdrawal sites and volumes.
The image at the top of the page captures my motivation for taking a deeper dive into this watershed. Having spent 13+ years living in Vermont and hiking throughout The Green and Adirondack Mountains, I fell in love with the two most prominent tree species in this photo: Yellow Birch (Betula alleghaniensis) and Northern Hemlock (Tsuga candadensis). This feeling of being at home was reason enough to be thankful for Captina Creek in my eyes. Seeing this region under pressure from the oil and gas industry really hit me in my botanical soul. We remain positive with regards to the area’s future, but protective action against fracking in the Captina Creek Watershed is needed immediately!
Fracking in the Captina Creek Watershed: A Story Map
Pennsylvania’s fracking industry is producing record amounts of toxic waste — where does it all go?
Drilling for methane and other fossil fuels is an energy-intensive process with many associated environmental costs. In addition to the gas that is produced through high volume hydraulic fracturing (“unconventional drilling,” or “fracking”), the process generates a great deal of waste at the drill site. These waste products may include several dozen tons of drill cutting at every well that is directionally drilled, in addition to liner materials, contaminated soil, fracking fluid, and other substances that must be removed from the site.
In 2018, Pennsylvania’s oil and gas industry (including both unconventional and conventional wells) produced over 2.9 billion gallons (nearly 69 million barrels) of liquid waste, and 1,442,465 tons of solid waste. In this article, we take a look at where this waste (and its toxic components) end up and how waste values have changed in recent years. We also explore how New York State, despite its reputation for being anti-fracking, isn’t exempt from the toxic legacy of this industry.
Waste that comes back to haunt us
According to a study by Physicians, Scientists and Engineers, over 80% of all waste from oil and gas drilling stays within the state of Pennsylvania. But once drilling wastes are sent to landfills, is that the end of them? Absolutely not!
Drilling waste also gets into the environment through secondary means. According to a recent report by investigative journalists at Public Herald, on average, 800,000 tons of fracking waste from Pennsylvania is sent to Pennsylvania landfills. When this waste is sent to landfills, radioactivity and other chemicals can percolate through the landfill, and are collected as leachate, which is then shipped to treatment plants.
Public Herald documented how fourteen sewage treatment plants in Pennsylvania have been permitted by Pennsylvania’s Department of Environmental Protection (PA DEP) to process and discharge radioactive wastes into more than a dozen Pennsylvania waterways.
Public Herald’s article includes an in-depth analysis of the issue. Their work is supported by a map of the discharge sites, created by FracTracker.
Trends over time
Pennsylvania Department of Environmental Protection maintains a rich database of oil and gas waste and production records associated with their Oil and Gas Reporting Website. The changes in waste disposal from Pennsylvania’s unconventional drilling reveal a number of interesting stories.
Let’s look first at overall unconventional drilling waste.
According to data from the federal Energy Information Administration, gas production in Pennsylvania began a steep increase around 2010, with the implementation of high volume hydraulic fracturing in the Marcellus Shale (see Figure 1). The long lateral drilling techniques allowed industry to exploit exponentially more of the tight shale via single well than was ever before possible with conventional, vertical drilling.
Figure 1. Data summary from FracTracker.org, based on EIA data.
The more recently an individual well is drilled, the more robust the production. We see an overall increase in gas production over time in Pennsylvania over the past decade. Paradoxically, the actual number of new wells drilled each year in the past 4-5 years are less than half of the number drilled in 2011 (see Figure 2).
Figure 2: Data summary from FracTracker.org, based on PA DEP data
Why is this? The longer laterals —some approaching 3 miles or more—associated with new wells allow for more gas to be extracted per site.
With this uptick in gas production values from the Marcellus and Utica Formations come more waste products, including copious amounts drilling waste, “produced water,” and other byproducts of intensive industrial operations across PA’s Northern Tier and southwestern counties.
Comparing apples and oranges?
When we look at the available gas production data compared with data on waste products from the extraction process, some trends emerge. First of all, it’s readily apparent that waste production does not track directly with gas production in a way one would expect.
Recall that dry gas production has increased annually since 2006 (see Figure 1). However, the reported waste quantities from industry have not followed that same trend.
In the following charts, we’ve split out waste from unconventional drilling by solid waste in tons (Figure 3) and liquid waste, in barrels (Figure 4).
Figure 3: Annual tonnage of solid waste from the unconventional oil and gas industry, organized by the state it is disposed in. Data source: PA DEP, processed by FracTracker Alliance
Figure 4: Annual volume of liquid waste from the unconventional oil and gas development, organized by state it is disposed in. One barrel is equivalent to 42 gallons. Data source: PA DEP, processed by FracTracker Alliance
Note the striking difference in disposal information for solid waste, compared with liquid waste, coming from Pennsylvania.
“Disposal Location Unknown”
Until just the last year, often more than 50% of the known liquid waste generated in PA was disposed of at unknown locations. The PA DEP waste report lists waste quantity and method for these unknown sites,depending on the year: “Reuse without processing at a permitted facility,” “Reuse for hydraulic fracturing,” “Reuse for diagnostic purposes,” “Reuse for drilling or recovery,” “Reuse for enhanced recovery,” and exclusively in more recent years (2014-2016), “Reuse other than road-spreading.”
In 2011, of the 20.5 million barrels of liquid waste generated from unconventional drilling, about 56% was allegedly reused on other drilling sites. However, over 9 million barrels—or 44% of all liquid waste—were not identified with a final destination or disposal method. Identified liquid waste disposal locations included “Centralized treatment plant for recycle,” which received about a third of the non-solid waste products.
In 2012, the quantity of the unaccounted-for fracking fluid waste dropped to about 40%. By 2013, the percentage of unaccounted waste coming from fracking fluid dropped to just over 21%, with nearly 75% coming from produced fluid, which is briny, but containing fewer “proprietary”—typically undisclosed—chemicals.
By 2017, accounting had tightened up further. PA DEP data show that 99% of all waste delivered to undisclosed locations was produced fluid shipped to locations outside of Pennsylvania. By 2018, all waste disposal was fully accounted for, according to DEP’s records.
In looking more closely at the data, we see that:
Prior to 2018, well drillers did not consistently report the locations at which produced water was disposed of or reused. Between 2012 and 2016, a greater volume of unconventional liquid waste went unaccounted for than was listed for disposal in all other locations, combined.
In Ohio, injection wells, where liquid waste is injected into underground porous rock formations, accounted for the majority of the increase in waste accepted there: 2.9 million barrels in 2017, and 5.7 million barrels in 2018 (a jump of 97%).
West Virginia’s acceptance of liquid waste increased significantly in 2018 over 2017 levels, a jump of over a million barrels, up from only 55,000. This was almost entirely due to unreported reuse at well pads.
In 2018, reporting, in general, appears to be more thorough than it was in previous years. For example, in 2017, nearly 692,000 barrels of waste were reused at well pads outside PA, but those locations were not disclosed. Almost 7000 more barrels were also disposed of at unknown locations. In 2018, there were no such ambiguities.
A closer look at Pennsylvania’s fracking waste shipped to New York State
Despite a reputation for being resistant to the fracking industry, for most of this decade, the state of New York has been accepting considerable amounts of fracking waste from Pennsylvania. The greatest percentage shipped to New York State is in the form of drilling waste solids that go to a variety of landfills throughout Central and Western New York.
Looking closely at the bar charts above, it’s easy to notice that the biggest recipients of Pennsylvania’s unconventional liquid drilling waste are Pennsylvania itself, Ohio, as well as a significant quantity of unaccounted-for barrels between 2011 and 2016 (“Disposal location unknown”). The data for disposal of solid waste in New York tells a different story, however. In this case, Pennsylvania, Ohio, and New York State all play a role. We’ll take a look specifically at the story of New York, and illustrate the data in the interactive map that follows.
In this map, source locations in Pennsylvania are symbolized with the same color marker as the facility in New York that received the waste from the originating well pad. In the “Full Screen” view, use the “Layers” drop down menu to turn on and off data from separate years.
From the early days of unconventional drilling in Pennsylvania, New York State’s landfills provided convenient disposal sites due to their proximity to the unconventional drilling occurring in Pennsylvania’s Northern tier of counties. Pennsylvania and Ohio took the majority of solid wastes from unconventional drilling waste from Pennsylvania. New York State, particularly between 2011-2015, was impacted far more heavily than all other states, combined (Figure 5, below).
Figure 5: Known disposal locations (excluding PA and OH) of Pennsylvania’s solid waste. Data source: PA DEP, processed by FracTracker Alliance
Here’s the breakdown of locations in New York to where waste was sent. Solid waste disposal into New York’s landfills also dropped by half, following the state’s ban on unconventional drilling in 2014. Most of the waste after 2012 went to the Chemung County Landfill in Lowman, New York, 10 miles southeast of Elmira.
Figure 6: Solid waste from unconventional drilling, sent to facilities in NYS. Data source: PA DEP, processed by FracTracker Alliance
Is waste immobilized once it’s landfilled?
The fate of New York State’s landfill leachate that originates from unconventional drilling waste is a core concern, since landfill waste is not inert. If drilling waste contains radioactivity, fracking chemicals, and heavy metals that percolate through the landfill, and the resulting leachate is sent to municipal wastewater treatment plants, will traditional water treatment methods remove those wastes? If not, what will be the impact on public and environmental health in the water body that receives the “treated” wastewater? In Pennsylvania, for example, a case is currently under investigation relating to pollution discharges into the Monongahela River near Pittsburgh. “That water was contaminated with diesel fuels, it’s alleged, carcinogens and other pollutants,” said Rich Bower, Fayette County District Attorney.
Currently, a controversial expansion of the Hakes Landfill in Painted Post, New York is in the news. Sierra Club and others were concerned about oversight of radium and radon in the landfill’s leachate and air emissions, presumably stemming from years of receiving drill cuttings. The leachate from the landfill is sent to the Bath Wastewater Treatment plant, which is not equipped to remove radioactivity. “Treated” wastewater from the plant is then discharged into the Cohocton River, a tributary of the Chesapeake Bay. In April 2019, these environmental groups filed a law suit against Hakes C&D Landfill and the Town of Campbell, New York, in an effort to block the expansion.
Similar levels of radioactivity in leachate have also been noted in leachate produced at the Chemung County Landfill, according to Gary McCaslin, President of People for a Healthy Environment, Inc.
In recent years, much of the solid unconventional waste arriving in New York State has gone to the Chemung County Landfill (see Figure 6, above). Over the course of several years, this site requested permission to expand significantly from 180,000 tons per year to 417,000 tons per year. However, by 2016, the expansion was deemed unnecessary, and according, the plans were put on hold, in part “…because of a decline in the amount of waste being generated due to a slower economy and more recycling than when the expansion was first planned years ago.” The data in Figure 5 above also parallel this story, with unconventional drilling waste disposed in New York State dropping from over 200,000 tons in 2011 to just over 20,000 tons in 2018.
Liquid waste transported to New York State
The story about liquid unconventional drilling waste exported from Pennsylvania to states other than Ohio is not completely clear (see Figure 7, below). Note that the data indicate more than a 2000% increase in waste liquids going from Pennsylvania to West Virginia after 2017. While it has not been officially documented, FracTracker has been anecdotally informed that a great deal of waste was already going to West Virginia, but that the record-keeping prior to 2018 was simply not strongly enforced.
Figure 7: Known disposal locations (excluding Pennsylvania and Ohio) of Pennsylvania’s liquid waste. Data source: PA DEP, processed by FracTracker Alliance
Beginning in the very early years of the Pennsylvania unconventional fracking boom, a variety of landfills in New York State have also accepted liquid wastes originating in Pennsylvania, including produced water and flowback fluids (see Figure 8, below).
Figure 8: Liquid waste from unconventional drilling, sent to facilities in New York State. Data source: PA DEP, processed by FracTracker Alliance
In addition, while this information doesn’t even appear in the PA DEP records (which are publicly available back to 2010), numerous wastewater treatment plants did accept some quantity, despite being fully unequipped to process the highly saline waste before it was discharged back into the environment.
One such facility was the wastewater treatment plant in Cayuga Heights, Tompkins County, which accepted more than 3 million gallons in 2008. Another was the wastewater treatment plant in Auburn, Cayuga County, where the practice of accepting drilling wastewater was initially banned in July 2011, but the decision was reversed in March 2012 to accept vertical drilling waste, despite strong public dissent. Another wastewater treatment plant in Watertown, Jefferson County, accepted 35,000 gallons in 2009.
Fortunately, most New York State wastewater treatment plant operators were wise enough to not even consider adding a brew of unknown and/or proprietary chemicals to their wastewater treatment stream. Numerous municipalities and several counties banned fracking waste, and once the ban on fracking in New York State was instituted in 2014, nearly all importation of liquid unconventional drilling waste into the state ceased.
Nevertheless, conventional, or vertical well drilling also generates briny produced water, which the New York State Department of Environmental Conservation (DEC) permits communities in New York to accept for ice and dust control on largely rural roads. These so-called “beneficial use determinations” (BUDs) of liquid drilling waste have changed significantly over the past several years. During the height of the Marcellus drilling in around 2011, all sorts of liquid waste was permitted into New York State (see FracTracker’s map of affected areas) and was spread on roads. As a result, the chemicals—many of them proprietary, of unknown constituents, or radioactive—were indirectly discharged into surface waters via roadspreading.
Overall, in the years after the ban in 2014 on high volume hydraulic fracturing was implemented, restrictions on Marcellus waste coming into New York have strengthened. Very little liquid waste entered New York’s landfills after 2013, and what did come in was sent to a holding facility owned by Environmental Services of Vermont. This facility is located outside Syracuse, New York.
New York State says “no” to this toxic legacy
Fortunately, not long after these issues of fracking fluid disposal at wastewater treatment facilities in New York State came to light, the practice was terminated on a local level. The 2014 ban on fracking in New York State officially prevented the disposal of Marcellus fluids in municipal wastewater treatment facilities and required extra permits if it were to be road-spread.
In New York State, the State Senate—after 8 years of deadlock—in early May 2019, passed key legislation that would close a loophole that had previously allowed dangerous oil and gas waste to bypass hazardous waste regulation. Read the press release from Senator Rachel May’s office here. However, despite strong support from both the Senate, and the Assembly, as well as many key environmental groups, the Legislature adjourned for the 2019 session without bringing the law to a final vote. Said Elizabeth Moran, of the New York Public Interest Research Group (NYPIRG), “I want to believe it was primarily a question of timing… Sadly, a dangerous practice is now going to continue for at least another year.”
See Earthworks’ recent three part in-depth reporting on national, New York, and Pennsylvania oil and gas waste, with mapping support by FracTracker Alliance.
All part of the big picture
As long as hydrocarbon extraction continues, the issues of waste disposal—in addition to carbon increases in the atmosphere from combustion and leakage—will result in impacts on human and environmental health. Communities downstream and downwind will bear the brunt of landfill expansions, water contamination, and air pollution. Impacts of climate chaos will be felt globally, with the greatest impacts at low latitudes and in the Arctic.
Transitioning to net-zero carbon emissions cannot be a gradual endeavor. Science has shown that in order to stay under the 1.5 °C warming targets, it must happen now, and it requires the governmental buy-in to the Paris Climate Agreement by every economic power in the world.
No exceptions. Life on our planet requires it.
We have, at most, 12 years to make a difference for generations to come.
FracTracker is closely mapping and following the petrochemical build-out in Appalachia, as the oil and gas industry invests in petrochemical manufacturing. Much of the national attention on the build-out revolves around the Appalachian Storage Hub (ASH), a venture spearheaded by Appalachian Development Group.
The ASH involves a network of infrastructure to store and transport natural gas liquids and finds support across the political spectrum. Elected officials are collaborating with the private sector and foreign investors to further development of the ASH, citing benefits such as national security, increased revenue, job creation, and energy independence.
Left out of the discussion are the increased environmental and public health burdens the ASH would place on the region, and the fact that natural gas liquids are the feedstock of products such as plastic and resins, not energy.
The “Shale Revolution” brought on by high-volume hydraulic fracturing (fracking) in this region encompasses thousands of wells drilled into the Marcellus and Utica-Point Pleasant shale plays across much of the Allegheny Plateau. This area spans from north of Scranton-Wilkes Barre, Pennsylvania, just outside the Catskills Mountains to the East in Susquehanna County, Pennsylvania, and down to the West Virginia counties of Logan, Boone, and Lincoln. The westernmost extent of the fracking experiment in the Marcellus and Utica shale plays is in Noble and Guernsey Counties in Ohio.
Along the way, producing wells have exhibited steeper and steeper declines during the first five years of production, leading the industry to develop what they refer to as “super laterals.” These laterals (the horizontal portion of a well) exceed 3 miles in length and require in excess of 15 million gallons of freshwater and 15,000 tons of silica sand (aka, “proppant”)[1].
The resource-intense super laterals are one way the industry is dealing with growing pressure from investors, lenders, the media, state governments, and the public to reduce supply costs and turn a profit, while also maintaining production. (Note: unfortunately these sources of pressures are listed from most to least concerning to industry itself!)
Another way the fracking industry is hoping to make a profit is by investing in the region’s natural gas liquids (NGLs), such as ethane, propane, and butane, to support the petrochemical industry.
The Appalachian Storage Hub
Continued oil and gas development are part of a nascent effort to establish a mega-infrastructure petrochemical complex, the Appalachian Storage Hub (ASH). For those that aren’t familiar with the ASH it could be framed as the fracking industry’s last best attempt to lock in their necessity across Appalachia and nationwide. The ASH was defined in the West Virginia Executive as a way to revitalize the Mountain State and would consist of the following:
“a proposed underground storage facility that would be used to store and transport natural gas liquids (NGLs) extracted from the Marcellus, Utica and Rogersville shales across Kentucky, Ohio, Pennsylvania and West Virginia. Construction of this hub would not only lead to revenue and job creation in the natural gas industry but would also further enable manufacturing companies to come to the Mountain State, as the petrochemicals produced by shale are necessary materials in most manufacturing supply chains…[with] the raw materials available in the region’s Marcellus Shale alone…estimated to be worth more than $2 trillion, and an estimated 20 percent of this shale is composed largely of ethane, propane and butane NGLs that can be utilized by the petrochemical industry in the manufacturing of consumer goods.”
This is yet another example of fracking rhetoric that appeals to American’s sense of patriotism and need for cheaper consumer goods (in this case, plastics), given that they are seeing little to no growth in wages.
While a specific location for underground storage has not been announced, the infrastructure associated with the ASH (such as pipelines, compressor stations, and processing stations) would stretch from outside Pittsburgh down to Catlettsburg, Kentucky, with the latter currently the home of a sizeable Marathon Oil refinery. The ASH “would act like an interstate highway, with on-ramps and off-ramps feeding manufacturing hubs along its length and drawing from the available ethane storage fields. The piping would sit above-ground and follow the Ohio and Kanawha river valley.”
The politics of the ASH – from Columbus and Charleston to Washington DC
Elected officials across the quad-state region are supporting this effort invoking, not surprisingly, its importance for national security and energy independence.
State-level support
West Virginia Senator Joe Manchin (D) went so far as to introduce “Senate Bill 1064 – Appalachian Energy for National Security Act.” This bill would require Secretary of Energy Rick Perry and his staff to “to conduct a study on the national security implications of building ethane and other natural-gas-liquids-related petrochemical infrastructure in the United States, and for other purposes.”
Interestingly, the West Virginia Senator told the West Virginia Roundtable Inc’s membership meeting that the study would not examine the “national security implications” but rather the “additional security benefits” of an Appalachian Storage Hub and cited the following to pave the way for the national security study he is proposing: “the shale resource endowment of the Appalachian Basin is so bountiful that, if the Appalachian Basin were an independent country, the Appalachian Basin would be the third largest producer of natural gas in the world.”
Senator Manchin is not the only politician of either party to unabashedly holler from the Appalachian Mountaintops the benefits of the ASH. Former Ohio Governor, and 2016 POTUS primary participant, John Kasich (R) has been a fervent supporter of such a regional planning scheme. He is particularly outspoken in favor of the joint proposal by Thailand-based PTT Global Chemical and Daelim to build an ethane cracker in Dilles Bottom, Ohio, across the Ohio River from Moundsville, West Virginia. The ethane cracker would convert the region’s fracked ethane into ethylene to make polyethylene plastic. This proposed project could be connected to the underground storage component of the ASH.
Dilles Bottom, OH ethane cracker site. Photo by Ted Auch, aerial assistance provided by LightHawk.
Not to be outdone in the ASH cheerleading department, West Virginia Governor Jim Justice (R), who can’t seem to find any common ground with Democrats in general nor Senator Manchin specifically, is collaborating with quad-state governors on the benefits of the ASH. All the while, these players ignore or dismiss the environmental, social, and economic costs of such an “all in” bet on petrochemicals and plastics.
Even the region’s land-grant universities have gotten in on the act, with West Virginia University’s Appalachian Oil and Natural Gas Research Consortium and Energy Institute leading the way. WVU’s Energy Institute Director Brian Anderson pointed out that, “Appalachia is poised for a renaissance of the petrochemical industry due to the availability of natural gas liquids. A critical path for this rebirth is through the development of infrastructure to support the industry. The Appalachian Storage Hub study is a first step for realizing that necessary infrastructure.”
utilize a new or significantly improved technology;
avoid, reduce or sequester greenhouse gases;
be located in the United States; and,
have a reasonable prospect of repayment.
This type of Public-Private Investment Program is central planning at its finest, in spite of the likelihood that the prospects of the ASH meeting the second and fourth conditions above are dubious at best (even if the project utilizes carbon capture and storage technologies).
Public-Private Investment Programs have a dubious past. In her book “Water Wars,” Vandana Shiva discusses the role of these programs globally and the involvement of institutions like the World Bank and International Monetary Fund:
“public-private partnerships”…implies public participation, democracy, and accountability. But it disguises the fact that the public-private partnership arrangements usually entail public funds being available for the privatization of public goods…[and] have mushroomed under the guise of attracting private capital and curbing public-sector employment.”
In response to the Department of Energy’s Title XVII largesse, Congresswoman Pramila Jayapal and Ilhan Omar introduced Amendment 105 in Rule II on HR 2740. According to Food and Water Watch, this amendment would restrict “the types of projects the Department of Energy could financially back. It would block the funding for ALL projects that wouldn’t mitigate climate change.”
The only condition of Department of Energy’s Title XVII loan program ASH is guaranteed to meet is the third (be located in the United States), but as we’ve already mentioned, the level of foreign money involved complicates the domestic facade.
Foreign involvement in the ASH lends credence to Senator Manchin’s and others’ concerns about where profits from the ASH will go, and who will be reaping the benefits of cheap natural gas. The fact that the ASH is being heavily backed by foreign money is the reason Senator Manchin raised an issue with the outsized role of state actors like Saudi Arabia and China as well as likely state-backed private investments like PTT Global Chemical’s. The Senator even cited how a potential $83.7 billion investment in West Virginia from China’s state-owned energy company, China Energy, would compromise “domestic manufacturing and national security opportunities.”
“Critical” infrastructure
With all of the discussion and legislation focused on energy and national security, many don’t realize the output of the ASH would be the production of petroleum-based products: mainly plastic, but also fertilizers, paints, resins, and other chemical products.
Bills like this and the not unrelated “critical infrastructure” bills being shopped around by the American Legislative Exchange Council will amplify the rural vs urban and local vs state oversight divisions running rampant throughout the United States. The reason for this is that yet another natural resource boom/bust will be foisted on Central Appalachia to fuel urban growth and, in this instance, the growth and prosperity of foreign states like China.
Instead of working night and day to advocate for Appalachia and Americans more broadly, we have legislation in statehouses around the country that would make it harder to demonstrate or voice concerns about proposals associated with the ASH and similar regional planning projects stretching down into the Gulf of Mexico.
Producing wells mapped
Impacts from the ASH and associated ethane cracker proposals will include but are not limited to: an increase in the permitting of natural gas wells, an increase in associated gas gathering pipelines across the Allegheny Plateau, and an exponential increase in the production of plastics, all of which are harmful to the region’s environment and the planet.
The production of the region’s fracked wells will determine the long-term viability of the ASH. From our reading of things, the permitting trend we see in Ohio will have to hit another exponential inflection point to “feed the beast” as it were. Figure 1 shows an overall decline in the number of wells drilled monthly in Ohio.
Figure 2, below it, shows the relationship between the number of wells that are permitted verse those that are actually drilled.
Figures 1. Monthly (in blue) and cumulative (in orange) unconventional oil and gas wells drilled in Ohio, January, 2013 to November, 2018
Figure 2. Permitted Vs Drilled Wells in Ohio, January, 2013 to November, 2018
That supply-demand on steroids interaction will likely result in an increased reliance on “super laterals” by the high-volume hydraulic fracturing industry. These laterals require 5-8 times more water, chemicals, and proppant than unconventional laterals did between 2010 and 2012.
Given this, we felt it critical to map not just the environmental impacts of this model of fracking but also the nuts and bolts of production over time. The map below shows the supply-demand links between the fracking industry and the ASH, not as discrete pieces or groupings of infrastructure, but rather a continuum of up and downstream patterns.
The current iteration of the map shows production values for oil, natural gas, and natural gas liquids, how production for any given well changes over time, and production declines in newer wells relative to those that were fracked at the outset of the region’s “Shale Revolution.” Working with volunteer Gary Allison, we have compiled and mapped monthly (Pennsylvania and West Virginia) and quarterly (Ohio)[2] natural gas, condensate, and natural gas liquids from 2002 to 2018.
This map includes 15,682 producing wells in Pennsylvania, 3,689 in West Virginia, and 2,064 in Ohio. We’ve also included and will be updating petrochemical projects associated with the ASH, either existing or proposed, across the quad-states including the proposed ethane cracker in Dilles Bottom, Ohio and the ethane cracker under construction in Beaver County, Pennsylvania, along with two rumored projects in West Virginia.
We will continue to update this map on a quarterly basis, will be adding Kentucky data in the coming months, and will be sure to update rumored/proposed petrochemical infrastructure as they cross our radar. However, we can’t be everywhere at once so if anyone reading this hears of legitimate rumors or conversations taking place at the county or township level that cite tapping into the ASH’s infrastructural network, please be sure to contact us directly at info@fractracker.org.
By Ted Auch, Great Lakes Program Coordinator, FracTracker Alliance with invaluable data compilation assistance from Gary Allison
Feature Photo: Ethane cracker plant under construction in Beaver County, PA. Photo by Ted Auch, aerial assistance provided by LightHawk.
[1] For a detailed analysis of the HVHF’s increasing resource demand and how lateral length has increased in the last decade the reader is referred to our analysis titled “A Disturbing Tale of Diminishing Returns in Ohio” Figures 12 and 13.
[2] Note: For those Bluegrass State residents or interested parties, Kentucky data is on its way!
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2019/07/Cracker-Plant-2-scaled.jpg6831500Ted Auch, PhDhttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2021/04/2021-FracTracker-logo-horizontal.pngTed Auch, PhD2019-07-23 14:37:052021-04-15 14:56:27The Underlying Politics and Unconventional Well Fundamentals of an Appalachian Storage Hub
New maps show the build-out of oil and gas infrastructure that converts the upper Ohio River Valley’s fracked gas into petrochemical products
In 2004, Range Resources purchased land in Washington County, Pennsylvania and “fracked” the first well in the Marcellus Shale, opening the flood gates to a wave of natural gas development.
Since then, oil and gas companies have fracked thousands of wells in the upper Ohio River Valley, from the river’s headwaters in Pennsylvania, through Ohio and West Virginia, and into Kentucky.
Industry sold natural gas as a “bridge fuel” to renewable energy, but 15 years since the first fracked Marcellus well, it’s clear that natural gas is more of a barrier than a bridge. In fact, oil and gas companies are not bridging towards clean energy at all, but rather investing in the petrochemical industry- which converts fracked gas into plastic.
This article dives into the expanding oil, gas, and petrochemical industry in the Ohio River Valley, with six maps and over 16,000 data points detailing the build-out of polluting infrastructure required to make plastic and other petrochemical products from fossil fuels.
The petrochemical industry is expanding rapidly, with $164 billion planned for new infrastructure in the United States alone. Much of the build-out involves expanding the nation’s current petrochemical hub in the Gulf Coast, yet industry is also eager to build a second petrochemical hub in the Ohio River Valley.
The shale rock below the Ohio River Valley releases more than methane gas used for energy. Fracked wells also extract natural gas liquids (NGLs) which the petrochemical industry manufactures into products such as plastic and resins. Investing in the petrochemical industry is one way to capitalize on gases that would otherwise be released to the atmosphere via venting and flaring. As companies continue to spend billions more on drilling than they’re bringing in, many are looking towards NGLs as their saving grace.
These maps look at a two-county radius along the upper Ohio River where industry is most heavily concentrated.
Step 1. Extraction
The petrochemical lifecycle begins at the well, and there are a lot of wells in the Ohio River Valley. The majority of the natural gas produced here is extracted from the Marcellus and Utica Shale plays, which also contain “wet gas,” or NGLs, such as ethane, propane, and butane.
Rig in Greene County, PA. Photo by Ted Auch.
12,507
active, unconventional wells in the upper Ohio River Valley
Of particular interest to the petrochemical industry is the ethane in the region, which can be “cracked” into ethylene at high temperatures and converted into polyethylene, the most common type of plastic. The Department of Energy predicts that production of ethylene from ethane in the Appalachian Basin will reach 640,000 barrels a day by 2025 – that’s 20 times the amount produced in 2013.
In our first map, we attempted to show only active and unconventional (fracked) wells, a difficult task as states do not have a uniform definition for “unconventional” or “active.” As such, we used different criteria for each state, detailed below.
This map shows 12,660 wells, including:
12,507 shale oil and gas wells:
5,033 wells designated as “active” and “unconventional” in Pennsylvania
2,971 wells designated as “drilled,” “permitted,” or “producing,” and are drilled in the Utica-Point Pleasant and Marcellus Shale in Ohio
4,269 wells designated as “active” or “drilled” in the Marcellus Shale in West Virginia
234 wells designated as “horizontal” and are not listed as abandoned or plugged in Kentucky
153 Class II injection wells, which are used for the disposal of fracking wastewater
2 in Pennsylvania
101 in Ohio
42 in West Virginia
8 in Kentucky
The map also shows the Marcellus and Utica Shale plays, and a line demarcating the portions of these plays that contain higher quantities of wet gas. These wet gas regions are of particular interest to the petrochemical industry. Finally, the Devonian-Ohio Shale play is visible as you zoom in.
A vast network of pipelines transports the oil and gas from these wells to processing stations, refineries, power plants, businesses, and homes. Some are interstate pipelines passing through the region on their way to domestic and international markets.
A number of controversial pipeline projects cross the Ohio River Valley. Construction of the Mariner East II Pipeline is under criminal investigation, the Revolution Pipeline exploded six days after it came on line, protesters are blocking the construction of the Mountain Valley Pipeline, and the Atlantic Coast Pipeline is in the Supreme Court over permits to cross the Appalachian Trail.
Accurate pipeline data is not typically provided to the public, ostensibly for national security reasons. The result of this lack of transparency is that residents along the route are often unaware of the infrastructure, or whether or not they might live in harm’s way. While pipeline data has improved in recent years, much of the pipeline data that exists remains inaccurate. In general, if a route is composed of very straight segments throughout the rolling hills of the Upper Ohio River Valley, it is likely to be highly generalized.
The pipeline map below includes:
natural gas interstate and intrastate pipelines
8 natural gas liquid pipelines
7 petroleum product pipelines
3 crude oil pipelines
18 pipeline projects that are planned or under construction for the region, including 15 natural gas pipelines and 3 natural gas liquids pipelines. To view a spreadsheet of these pipelines, click here.
Pipelines transport oil and the natural gas stream to an array of facilities. Compressor stations and pumping stations aid the movement of the products through pipelines, while processing stations separate out the natural gas stream into its different components, including NGLs, methane, and various impurities.
At this step, a portion of the extracted fossil fuels are converted into sources of energy: power plants can use the methane from the natural gas stream to produce electricity and heat, and oil refineries transform crude oil into products such as gasoline, diesel fuel, or jet fuel.
A separate portion of the fuels will continue down the petrochemical path to be converted into products such as plastics and resins. Additionally, a significant portion of extracted natural gas leaks unintentionally as “fugitive emissions” (an estimated 2-3%) or is intentionally vented into the atmosphere when production exceeds demand.
This map shows 756 facilities, including:
29 petroleum and natural gas power plants
3 electric utilities
24 independent power producers
1 industrial combined heat and power (CHP) plant
1 industrial power producer (non CHP)
10 pumping stations, which assist in the transmission of petroleum products in pipelines
645 compressor stations to push natural gas through pipelines
21 gas processing plants which separate out NGLs, methane, and various impurities from the natural gas stream
46 petroleum terminals, which are storage facilities for crude and refined petroleum products, often adjacent to intermodal transit networks
3 oil refineries, which convert crude oil into a variety of petroleum-based products, ranging from gasoline to fertilizer to plastics
2 petroleum ports, which are maritime ports that process more than 200 short tons (400,000 pounds) of petroleum products per year
*A small portion of these facilities are proposed or in construction, but not yet built. Click on the facilities for more information.
After natural gas is extracted from underground, transported via pipeline, and separated into dry gas (methane) and wet gas (NGLs), its components are often pumped back underground for storage. With the expansion of the petrochemical industry, companies are eager to find opportunities for NGL storage.
Underground storage offers a steady supply for petrochemical manufacturers and allows industry to adapt to fluctuations in demand. A study out of West Virginia University identified three different types of NGL storage opportunities along the Ohio and Kanawha River valleys:
Mined-rock cavern: Companies can mine caverns in formations of limestone, dolomite, or sandstone. This study focused on caverns in formations of Greenbrier Limestone.
Salt cavern: Developing caverns in salt formations involves injecting water underground to create a void, and then pumping NGLs into the cavern.
Gas field: NGLs can also be stored in natural gas fields or depleted gas fields in underground sandstone reservoirs.
Above-ground tanks offer a fourth storage option.
Natural gas and NGL storage contains many risks. These substances are highly flammable, and accidents or leaks can be fatal. A historically industrialized region, the Ohio River Valley is full of coal mines, pipelines, and wells (including abandoned wells with unknown locations). All of this infrastructure creates passages for NGLs to leak and can cause the land above them to collapse. As many of these storage options are beneath the Ohio River, a drinking water supply for over 5 million people, any leak could have catastrophic consequences.
Furthermore, there are natural characteristics that make the geology unsuitable for underground storage, such as karst geological formations, prone to sinkholes and caves.
Notable Storage Projects
Appalachia Development Group LLC is heading the development of the Appalachia Storage & Trading Hub initiative, “a regional network of transportation, storage and trading of Natural Gas Liquids and chemical intermediates.” The company has not announced the specific location for the project’s storage component. Funding for this project is the subject of national debate; the company applied for a loan guarantee through a federal clean energy program, in a move that may be blocked by Congress.
Energy Storage Ventures LLC plans to construct the Mountaineer NGL Storage facility near Clarington, Ohio along the Ohio River. This facility involves salt cavern storage for propane, ethane, and butane. To supply the facility, the company plans to build three pipelines beneath the Ohio River: two pipelines (one for ethane and one for propane and butane) would deliver NGLs to the site from Blue Racer Natrium processing plant. A third pipeline would take salt brine water from the caverns to the Marshall County chlorine plant (currently owned by Westlake Chemical Corp).
The storage map below shows potential NGL storage sites to feed petrochemical infrastructure as well as natural gas storage for energy production:
Existing natural gas storage facilities:
3,012 natural gas storage wells
46 natural gas storage facilities, including 1 aquifer and 45 depleted gas fields
While conventional oil and gas extraction has occurred in the region for decades, and fracking for 15 years, the recent petrochemical build-out adds an additional environmental and health burdens to the Ohio River Valley. Our final map represents the facilities located “downstream” in the petrochemical process which convert fossil fuels into petrochemical products.
Polyethylene pellets, also called nurdles, manufactured by ethane crackers. Image source.
Ethane Crackers
Much of the petrochemical build-out revolves around ethane crackers, which convert ethane from fracked wells into small, polyethylene plastic pellets. They rely on a regional network of fracking, pipelines, compressor stations, processing stations, and storage to operate.
In 2017, Royal Dutch Shell began construction on the first ethane cracker to be built outside of the Gulf Coast in 20 years. Located in Beaver County, Pennsylvania, this plant is expected to produce 1.6 million tons of polyethylene plastic pellets per year. In the process, it will release an annual 2.2 million tons of carbon dioxide (CO2).
A second ethane cracker has been permitted in Belmont County, Ohio. Several organizations, including the Sierra Club, Center for Biological Diversity, FreshWater Accountability Project, and Earthworks have filed an appeal against Ohio EPA’s issuance of the air permit for the PTTGC Ethane Cracker.
The Shell Ethane Cracker, under construction in Beaver County, is expected to produce 1.6 million tons of plastic per year. Photo by Ted Auch, aerial assistance provided by LightHawk.
Methanol plants also convert part of the natural gas stream (methane) into feedstock for a petrochemical product (methanol). Methanol is commonly used to make formaldehyde, a component of adhesives, coatings, building materials, and many other products. In addition to methanol plants and ethane crackers, the map below also shows the facilities that make products from feedstocks, such as fertilizer (made from combining natural gas with nitrogen to form ammonia, the basis of nitrogen fertilizer), paints, and of course, plastic.
These facilities were determined by searching the EPA’s database of industrial sites using the North American Industry Classification System (NAICS).
In total, we mapped 61 such facilities:
2 methanol plants (both in construction)
3 ethane crackers (one in construction, one under appeal, and one uncertain project)
How are these facilities all connected? Our final map combines the data above to show the connections between the fossil fuel infrastructure. To avoid data overload, not all of the map’s features appear automatically on the map. To add features, view the map full screen and click the “Layers” tab in the top right tool bar.
The expansion of oil and gas infrastructure, in addition to the downstream facilities listed above, has rapidly increased in the last few years. According to the Environmental Integrity Project, regulatory agencies in these four states have authorized an additional 15,516,958 tons of carbon dioxide equivalents to be emitted from oil and gas infrastructure since 2012. That’s in addition to emissions from older oil and gas infrastructure, wells, and the region’s many coal, steel, and other industrial sites.
View the Environmental Integrity Project’s national map of emission increases here, which also includes permit documents for these new and expanding facilities.
The petrochemical build-out will lock in greenhouse gas emissions and plastic production for decades to come, ignoring increasingly dire warnings about plastic pollution and climate change. A recent report co-authored by FracTracker Alliance found that the greenhouse gas emissions across the plastic lifecycle were equivalent to emissions from 189 coal power plants in 2019 – a number that’s predicted to rise in coming years.
What does the petrochemical build out look like in the Ohio River Valley?
But it doesn’t have to be this way. The oil and gas industry’s plan to increase plastic manufacturing capacity is a desperate attempt to stay relevant as fracking companies “hemorrhage cash” and renewable energy operating costs beat out those of fossil fuels. Investing instead in clean energy, a less mechanized and more labor intensive industry, will offer more jobs and economic opportunities that will remain relevant as the world transitions away from fossil fuels.
In fact, the United States already has more jobs in clean energy, energy efficiency, and alternative vehicles than jobs in fossil fuels. It’s time to bring these opportunities to the Ohio River Valley and bust the myth that Appalachian communities must sacrifice their health and natural resources for economic growth.
People gather at the headwaters of the Ohio River to advocate for the sustainable development of the region. Add your voice to the movement advocating for People Over Petro by signing up for the coalition’s email updates today!
This data in this article are not exhaustive. FracTracker will be updating these maps as data becomes available.
By Erica Jackson, Community Outreach and Communications Specialist, FracTracker Alliance
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2019/07/Beaver-Cracker-Plant-Feature-scaled.jpg6671500Erica Jacksonhttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2021/04/2021-FracTracker-logo-horizontal.pngErica Jackson2019-07-10 09:33:552022-02-15 10:54:51Mapping the Petrochemical Build-Out Along the Ohio River
The FracTracker Alliance tends to look mostly at the impacts of drilling, from violations affecting surface and ground water to forest fragmentation to neighbors breathing diesel exhaust near disposal wells. We also try to give residents tools to help predict where future activity will occur, but as this article details, such predictive tools can do little more than trail moving targets. To that end, we have taken a look into areas where gas production is high for unconventional wells in the state, which are likely sites of future development.
The Pennsylvania Department of Environmental Protection’s (DEP) Production Report is self-reported by the various operators active in the state. Unconventional wells generate a large quantity of natural gas, measured in thousands of cubic feet (Mcf), as well as limited amounts of oil and condensate, both of which are measured in 42 gallon barrels. In this analysis, we are only considering the gas production.
In the map above, you can click on any well to learn more about the production values, along with a variety of other information including the well’s formation and age. The age was calculated by counting days from the spud date to the end of the report cycle, March 31, 2019.
Top Average Gas Production by County – April 2018 to March 2019
County
Producing Wells
Avg. Production (Mcf)
Production Rank
Avg. Age of Producing Wells
Age Rank
Wyoming
251
1,269,156
1
5 Yr / 10 Mo / 4 Days
12
Sullivan
128
1,087,868
2
5 Yr / 2 Mo/ 24 Days
8
Allegheny
117
1,075,018
3
4 yr/ 2 Mo / 7 Days
2
Susquehanna
1,429
1,066,734
4
5 Yr / 6 Mo / 22 Days
10
Greene
1,131
796,755
5
5 yr / 10 Mo / 28 Days
13
Figure 1 – This table shows the top five counties in Pennsylvania for per-well unconventional gas production. The final column shows the county ranking for the average age of wells, from youngest to oldest
We can also see this data summarized by county, where average production and age values are available on a county by county basis (see Figure 1). Hydrocarbon wells are known to decrease production steeply over time, a phenomenon known as the decline curve, so it is not surprising to see a relatively young inventory of wells represented in the list of top five counties with per-well gas production. Age is not the only factor in production values, however, as certain geographies simply contain more accessible gas resources than others.
Figure 2 – 12 month gas production and age of well. Production is usually much higher during the earliest phases of the well’s production life. This does not include wells that have been plugged or taken out of production. Click on image for full-sized view.
In Figure 2, we look at the production of all unconventional wells in the state, expecting to see the highest production in younger wells. This mostly appears to be the case, but as mentioned above, there are also hot and cold spots with respect to production. A notable variable in this consideration is producing formation.
Since 93% (8,730 out of 9,404) of unconventional wells reporting gas production are in the Marcellus Shale Formation, the traditional hot spots in the northeastern and southwestern portions of the state heavily skew the overall totals in terms of both production and number of wells. Other formations of note include the Onodaga Limestone (137 wells, 1.5% of total), Burket Member (117 wells, 1.2%), Genesee Formation (104 wells, 1.1%), and the Utica Shale (99 wells, 1.1%) (Figure 3).
Figure 3 – Unconventional gas production over 12 months, showing formation. Click on image for full-sized view.
Drillers have been exploring some of these formations for decades. In fact, the oldest producing well that is currently classified as unconventional was 13,435 days old as of March 31, which works out to 36 years, 9 months, and 12 days.
However, this is fairly rare – only 384 (4%) of the 9,404 producing wells were more than 10 years old. 5,981 wells (64%) are between 5 and 10 years old, with the remaining 3,039 wells (32%) younger than 5 years old.
This does not take into account wells of any age that have been plugged or otherwise taken out of production.
Age of Pennsylvania’s active wells
< 5 years old
5-10 years old
> 10 years old
Utica Shale
The Utica Shale is worth a special mention here for a couple of reasons. First, we must acknowledge its prominence in neighboring Ohio, which has 2,160 permitted Utica wells to go with just 40 permitted Marcellus wells, the prevalence of the two plays seems to invert just as one passes over the state line. And yet, the most productive Utica wells are near the border with New York, not Ohio.
In fact, each of the top 11 producing Utica wells during the 12 month period were located in Tioga County. It’s worth noting that these are all between one and two years old, which would have given the wells time to be drilled, fracked, and brought into production, while still being in the prime of their production life. Compared to the Marcellus, sample size quickly becomes an issue when analyzing the Utica in Pennsylvania (Figure 4).
Figure 4 – Producing Utica wells in Pennsylvania. Note that the cluster of heavily producing wells in Tioga and Potter Counties near the New York border are mostly young wells where higher production would be expected. Click on image for full sized view.
Second, portions of the Utica are known for their wet gas content, meaning that the gas has significant quantities of natural gas liquids (NGLs) including ethane, propane, and butane, which are gaseous at ambient temperatures but typically condensed into liquid form by oil and gas companies. These are used for specialized fuels and petrochemical feedstocks, and are therefore more valuable than the methane in natural gas.
The production report does not capture the amount of NGLs in the gas, but a map from the Energy Information Administration shows the entire play, noting that the composition is dryer on the eastern portions of the play. In fact, a wet gas composition along the Ohio border might help to explain continued interest in what are otherwise well below average gas production results for Pennsylvania.
A Moving Target
It is difficult to predict where the industry will focus its attention in the coming months and years, but taking a look at production and formation data can give us a few clues. Obviously, operators who found a particularly productive pocket of hydrocarbons are likely to keep drilling more holes in the ground in those areas until production is no longer profitable. Therefore, impacts to water, air, and nearby residents can be expected to continue in heavily drilled areas largely because the production level makes it attractive for drillers.
On the other hand, we should not assume that areas that are currently not productive are off the table for future consideration, either. Different formations are productive in different geographies, so a sweet spot for the Marcellus might be a dud in the Utica, or vice versa.
Finally, when comparing production, we must always take the age of the well into consideration, as all oil and gas wells can be expected to start off with a short period of very high production, followed by years of ever-diminishing returns throughout the expected 10 to 11 year lifecycle of the well. Because of this, what seems like a hotspot now may look below average in a similar analysis in three to four years, particularly in formations with relatively light drilling activity. This means that the top list of production by well could change over time, so be sure to check back in with FracTracker to see how events unfold.
By Matt Kelso, Manager of Data and Technology, FracTracker Alliance
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2019/06/Washington-County-Rig-2-scaled.jpg6671500Matt Kelso, BAhttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2021/04/2021-FracTracker-logo-horizontal.pngMatt Kelso, BA2019-06-10 12:07:422021-04-15 14:56:30Production and Location Trends in PA: A Moving Target
In March of 2019, two and a half years after Shell Pipeline Co. announced plans for the Falcon Ethane Pipeline System, the imported pipes arrived at the Port of Philadelphia. As tree clearing and construction begins, we share frustration with residents that the project is underway while many of our concerns remain unaddressed.
Between 2010 and 2018, over 280 pipeline incidents were reported in Ohio, West Virginia, and Pennsylvania (the three states the Falcon crosses). Of those incidents, 70 were fires and/or explosions. As regulatory agencies and operators fail to protect the public, communities are taking the reins.
Residents of southwest PA gather along the Falcon route
These grassroots efforts are contributing to a shift in public perception about the safety and need of pipelines. In some cases, including with the Northeast Energy Direct Pipeline and the Constitution Pipeline, organizing efforts are helping stop projects before they begin.
We invite all residents along the Falcon route to get involved in ongoing efforts to monitor construction. Below, you’ll find a guide to reporting violations as well as high-risk areas along the Falcon route that require close monitoring.
Be a citizen watchdog
Taking photos of pipeline development and recording your observations is a great way to monitor impacts. One tool to use while monitoring is the FracTracker mobile app (search “FracTracker” in the App Store or Google Play to download for free). The app allows the public to submit geolocated photos and descriptions of development, such as pipelines and wells, and concerns, such as spills and noise pollution. These reports help FracTracker crowdsource data and alert us to concerns that need follow up action. The app also contains a map of wells, pipelines, and compressor stations, including the Falcon pipeline route for reference in the field.
Click on the images below to view app reports of Falcon construction.
Documenting violations
During the construction phase, incidents often occur when companies cause erosion of the ground and release sediment, equipment, or discharge into waterways. Mountain Watershed Association and Clean Air Council have provided the following information on the process of looking for and documenting violations.
Step 1) Document baseline conditions. Documenting the pre-construction status of an area is crucial for understanding how it’s been impacted down the road. Document baseline conditions by taking photos, videos, and notes at different sites, and include the location and date on these materials (the Fractracker app does this for you automatically). Observing sites at different times and in different weather (such as during or after a storm) will give you the best data.
Step 2) Know what to look for. Below are images and descriptions of common construction violations.
4) Contact support organizations. There are several organizations ready to take action once violations have been confirmed. For confirmed violations in Beaver County, PA, contact Alex Bomstein, at the Clean Air Council (215-567-4004 x118) and for confirmed violations in Allegheny or Washington Counties, PA, contact Melissa Marshall at the Mountain Watershed Association (724-455-4200 x7#). For violations in Ohio or West Virginia, reach out to FracTracker (412-802-0273).
Reports made on the FracTracker App are shared with any app user and the FracTracker team, who look through the reports and contact users for any required follow up. App reports can also be submitted to regulatory agencies electronically. Simply visit the web version of the app, click on your report, and copy the URL (web address) of your report. Then “paste” it into the body of an email or online complaint form. The receiver will see the exact location, date, and any notes or photos you included in the report.
Where should you be monitoring?
Monitoring efforts must be limited to publicly accessible land. In general, areas that are most at-risk for environmental impact include stream and wetland crossings, steep slopes (particularly those near water crossings), flood-prone zones, and areas where storm water runoff will reach waterways. View a map of the Falcon’s water crossings here, and continue reading for more vulnerable locations to monitor.
The information below identifies high-risk areas along the pipeline route where monitoring efforts are extra necessary due to their impacts on drinking water, wetlands, undermined areas, and vulnerable species.
Drinking Water
We found 240 private water wells within 1/4 mile of the Falcon.
While all of these wells should be assessed for their level of risk with pipeline construction, the subset of wells nearest to horizontal directional drilling (HDD) sites deserve particular attention. HDD is a way of constructing a pipeline that doesn’t involve digging a trench. Instead, a directional drilling machine is used to drill horizontally underground and the pipe is pulled through.
While an HDD is designed to avoid surface impacts, if rushed or poorly executed, it can damage surface water, groundwater, and private property. The Mariner East 2 pipeline construction left several families without water after construction crews punctured an aquifer at an HDD site.
Shell’s data highlights 24 wells that are within 1,000 feet of a proposed HDD site.
We’ve isolated the groundwater wells and HDDs in a standalone map for closer inspection below. The 24 most at-risk wells are circled in blue.
Testing your groundwater quality before construction begins is crucial for determining impacts later on. Two upcoming workshops in Washington County, PA and another in Beaver County, PA will discuss how to protect your water and property.
The Falcon’s HDD locations offer disturbing similarities to what caused the Mariner East pipeline spills. Many of Sunoco’s failures were due to inadequately conducted (or absent) geophysical surveys that failed to identify shallow groundwater tables, which then led to drilling mud entering streams and groundwater.
Figure 1 below shows Greene Township, Beaver County, just south of Hookstown, where the “water table depth” is shown. The groundwater at this HDD site averages 20ft on its western side and only 8ft deep on the eastern side.
Figure 1. Water table depth in Greene Township
Water Reservoirs
The Falcon also crosses the headwaters of two drinking water reservoirs: the Tappan Reservoir in Harrison County, OH (Figure 2) and the Ambridge Reservoir in Beaver County, PA (Figure 3). The Falcon will also cross the raw water line leading out of the Ambridge Reservoir.
The Ambridge Reservoir supplies water to five townships in Beaver County (Ambridge, Baden, Economy, Harmony, and New Sewickley) and four townships in Allegheny County (Leet, Leetsdale, Bell Acres & Edgeworth). The Tappan Reservoir is the primary drinking water source for residents in Scio.
Figure 2. Tappan Reservoir and the Falcon route in Harrison County, Ohio
Figure 3. Ambridge Reservoir and the Falcon route in Beaver County, Pennsylvania
Wetlands
Wetlands that drain into Raccoon Creek in Beaver County, PA will be particularly vulnerable in 2 locations. The first is in Potter Township, off of Raccoon Creek Rd just south of Frankfort Rd, where the Falcon will run along a wooded ridge populated by half a dozen perennial and intermittent streams that lead directly to a wetland, seen in Figure 4. Complicating erosion control further, Shell’s survey data shows that this ridge is susceptible to landslides. This area is also characterized by the USGS as having a “high hazard” area for soil erosion.
Figure 4. Wetlands and streams in Potter Township, PA
The other wetland area of concern along Raccoon Creek is found in Independence Township at the Beaver County Conservation District (Figure 5). Here, the Falcon will go under the Creek using HDD (highlighted in bright green). Nevertheless, the workspace needed to execute the crossing is within the designated wetland itself. An additional 15 acres of wetland lie only 300ft east of the crossing but are not accounted for in Shell’s data. This unidentified wetland is called Independence Marsh, considered the crown jewel of the Independence Conservancy’s watershed stewardship program.
Figure 5. Wetlands and Raccoon Creek in Independence Township, PA
Subsurface concerns
Shell’s analysis shows that 16.8 miles of the Falcon pipeline travel through land that historically has or currently contains coal mines. Our analysis using the same dataset suggests the figure is closer to 20 miles. Construction through undermined areas poses a risk for ground and surface water contamination and subsidence.
Of these 20 miles of undermined pipeline, 5.6 miles run through active coal mines and are located in Cadiz Township, OH (Harrison Mining Co. Nelms Mine, seen in Figure 6); Ross Township, OH (Rosebud Mining Co. Deep Mine 10); and in Greene Township, PA (Rosebud Mining Co. Beaver Valley Mine).
Figure 6. Coal mines and are located in Cadiz Township, OH
More than 25 of the Falcon’s 97 pipeline miles will be laid within karst landscapes, including 9 HDD sites. Karst is characterized by soluble rocks such as limestone prone to sinkholes and underground caves. A cluster of these are located in Allegheny and Washington counties, PA, with extensive historical surface mining operations.
The combination of karst and coal mines along Potato Garden Run, in Figure 7, make this portion of the pipeline route particularly risky. At this HDD site, the Falcon will cross a coal waste site identified in the permits as “Imperial Land Coal Slurry” along with a large wetland.
Figure 7. Coal mines in Imperial, Pennsylvania
Vulnerable species
Southern Redbelly Dace
The Southern Redbelly Dace, a threatened species, is especially vulnerable to physical and chemical (turbidity, temperature) changes to their environment. PA Fish and Boat Commission explicitly notes in their correspondence with Shell that “we are concerned about potential impacts to the fish, eggs and the hatching fry from any in-stream work.” Of note is that these sites of concern are located in designated “High Quality/Cold Water Fishes” streams of the Service Creek watershed (Figure 8). PFBC stated that that no in-stream work in these locations should be done between May 1 and July 31.
Figure 8. “High Quality/Cold Water Fishes” streams identified as habitat for the Southern Redbelly Dace
Northern Harriers & Short-Eared Owls
Portions of the Falcon’s workspace are located near 6 areas with known occurrences of Short-eared Owls (PA endangered species) and Northern Harriers (PA threatened species). Pennsylvania Game Commission requested a study of these areas to identify breeding and nesting locations, which were executed from April-July 2016 within a 1,000-foot buffer of the pipeline’s workspace (limited to land cover areas consisting of meadows and pasture). One Short-eared Owl observation and 67 Northern Harrier observations were recorded during the study. PGC’s determined that, “based on the unusually high number of observations at these locations” work should not be done in these areas during harrier breeding season, April 15 through August 31.
Figure 9. Surveyed areas for Short-eared Owls (PA endangered species) and Northern Harriers (PA threatened species)
Bald Eagles
A known Bald Eagle nest is located in Beaver County. Two potential “alternate nests” are located where the Falcon crosses the Ohio River. National Bald Eagle Management Guidelines bar habitat disturbances that may interfere with the ability of eagles to breed, nest, roost, and forage. The 1 active nest in close proximity to the Falcon, called the Montgomery Dam Nest, is located just west of the pipeline’s terminus at Shell’s ethane cracker facility.
U.S. Fish and Wildlife Service requested that Shell only implement setback buffers for the one active nest at Montgomery Dam (Figure 10). These include no tree clearing within 330 feet, no visible disturbances with 660 feet, and no excessive noise with 1,000 feet of an active nest. Furthermore, Shell must avoid all activities within 660ft of the nest from January 1st to July 31st that may disturb the eagles, including but not limited to “construction, excavation, use of heavy equipment, use of loud equipment or machinery, vegetation clearing, earth disturbance, planting, and landscaping.
Figure 10. Bald Eagle nest in Potter Township, Pennsylvania
Bats
The Falcon is located within the range of federally protected Indiana Bats and Northern Long-eared Bats in Pennsylvania and West Virginia. In pre-construction surveys, 17 Northern Long-eared Bats were found at 13 of the survey sites, but no Indiana Bats were captured.
A total of 9 Northern Long-eared Bat roost trees were located, with the nearest roost tree located 318 feet from the pipeline’s workspace. Figure 11 below shows a cluster of roost trees in Raccoon Township, PA. For a map of all the roost trees, click here. The U.S. Fish and Wildlife Service stated that “Due to the presence of several Northern Long-eared Bat roost trees within the vicinity of the project footprint (although outside of the 150-foot buffer), we recommend the following voluntary conservation measure: No tree removal between June 1 and July 31.”
The Pennsylvania Game Commission noted in early correspondences that Silver-haired Bats may be in the region (a PA species of special concern). PGC did not require a further study for the species, but did request a more restrictive conservation of no tree clearing between April 1 and October 31.
Figure 11. Northern long-eared bat roost trees in Raccoon Township, Pennsylvania
For more information on the wildlife impacts of the Falcon Pipeline, click here.
By documenting the impacts of the Falcon Pipeline, you’re contributing to a growing body of work that shows the risks of fossil fuel pipelines. Not only does this evidence protect drinking water and vulnerable species, it serves as evidence against an inherently dangerous project that will contribute to climate change and the global plastics crisis.
We hope you’re inspired to take action and add your voice to a growing team in the region committed to safer and healthier environments. Thank YOU for your dedication to the cause!
By Erica Jackson, Community Outreach and Communications Specialist, FracTracker Alliance.
Portions of this article were adapted from previous posts in the Falcon Public EIA Project, written by Kirk Jalbert.
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2019/05/PipelineConstructionFeature.png6671500Erica Jacksonhttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2021/04/2021-FracTracker-logo-horizontal.pngErica Jackson2019-05-08 08:27:302021-04-15 14:56:31The Falcon Public Monitoring Project
Utica oil and gas production, Class II injection well volumes, and lateral length trends from 2010-2018
The US Energy Information Administration (EIA) recently announced that Ohio’s recoverable shale gas reserves have magically increased by 11,076 billion cubic feet (BCF). This increase ranks the Buckeye State in the top 5 for changes in recoverable shale natural gas reserves between 2016 and 2017 (pages 31- 32 here). After reading the predictable and superficial media coverage, we thought it was time to revisit the data to ask a pertinent question: What is the fracking industry costing Ohio?
Recent Shale Gas Trends in Ohio
According to the EIA’s report, Ohio currently sits at #7 on their list of proven reserves. It is estimated there are 27,021 BCF of shale gas beneath the state (Figure 1).
There are a few variations in the way the oil and gas industry defines proven reserves:
…an estimated quantity of all hydrocarbons statistically defined as crude oil or natural gas, which geological and engineering data demonstrate with reasonable certainty to be recoverable in future years from known reservoirs under existing economic and operating conditions. Reservoirs are considered proven if economic producibility is supported by either actual production or conclusive formation testing. – The Organization of Petroleum Exporting Countries
… the quantity of natural resources that a company reasonably expects to extract from a given formation… Proven reserves are classified as having a 90% or greater likelihood of being present and economically viable for extraction in current conditions… Proven reserves also take into account the current technology being used for extraction, regional regulations and market conditions as part of the estimation process. For this reason, proven reserves can seemingly take unexpected leaps and drops. Depending on the regional disclosure regulations, extraction companies might only disclose proven reserves even though they will have estimates for probable and possible reserves. – Investopedia
What’s missing from this picture?
Neither of the definitions above address the large volume of water or wastewater infrastructure required to tap into “proven reserves.” While compiling data for unconventional wells and injection wells, we noticed that the high-volume hydraulic fracturing (HVHF) industry is at a concerning crossroads. In terms of “energy return on energy invested,” HVHF is requiring more and more resources to stay afloat.
OH quarterly Utica oil & gas production along with quarterly Class II injection well volumes:
The map below shows oil and gas production from Utica wells (the primary form of shale gas drilling in Ohio). It also shows the volume of wastewater disposed in Class II salt water disposal injection wells.
Publications like the aforementioned EIA article and language out of Columbus highlight the nominal increases in fracking productivity. They greatly diminish, or more often than not ignore, how resource demand and waste production are also increasing. The data speak to a story of diminishing returns – an industry requiring more resources to keep up gross production while simultaneously driving net production off a cliff (Figure 2).
Figure 2. Number of Utica permits in Ohio on a cumulative and monthly basis along with the average price of West Texas Intermediate (WTI) and Brent Crude oil per barrel from September 2010 to December 2018
The Great Decoupling of New Year’s 2013
In the following analysis, we look at the declining efficiency of the HVHF industry throughout Ohio. The data spans the end of 2010 to middle of 2018. We worked with Columbus-area volunteer Gary Allison to conduct this analysis; without Gary’s help this work and resulting map, would not have been possible.
A little more than five years ago today, a significant shift took place in Ohio, as the number of producing gas wells increased while oil well numbers leveled off. The industry’s permitting high-water mark came in June of 2014 with 101 Utica permits that month (a level the industry hasn’t come close to since). The current six-month permitting average is 25 per month.
As the ball dropped in Times Square ringing in 2014, in Ohio, a decoupling between oil and gas wells was underway and continues to this day. The number of wells coming online annually increased by 229 oil wells and 414 gas wells.
Figure 3. Number of producing oil and gas wells in Ohio’s Utica Shale Basin from 2011 to Q2-2018
Figure 4. Producing oil and gas wells as a percentage of permitted wells in Ohio’s Utica Shale Basin from 2011 to Q2-2018
Permits
The ringing in of 2014 also saw an increase in the number of producing wells as a percentage of those permitted. In 2014, the general philosophy was that the HVHF industry needed to permit roughly 5.5 oil wells or 7 gas wells to generate one producing well. Since 2014, however, this ratio has dropped to 2.2 for oil and 1.4 for gas well permits.
Put another way, the industry’s ability to avoid dry wells has increased by 13% for oil and 18% for gas per year. As of Q2-2018, viable oil wells stood at 44% of permitted wells while viable gas wells amounted to 71% of the permitted inventory (Figure 4).
Production declines
from the top-left to the bottom-right
To understand how quickly production is declining in Ohio, we compiled annual (2011-2012) and quarterly (Q1-2013 to Q2-2018) production data from 2,064 unconventional laterals.
First, we present average data for the nine oldest wells with respect to oil and gas production on a per day basis (Note: Two of the nine wells we examined, the Geatches MAH 3H and Hosey POR 6H-X laterals, only produced in 2011-2012 when data was collected on an annual basis preventing their incorporation into Figures 6 and 7 belwo). From an oil perspective, these nine wells exhibited 44% declines from year 1 to years 2-3 and 91% declines by 2018 (Figure 5). With respect to natural gas, these nine wells exhibited 34% declines from year 1 to years 2-3 and 79% declines by 2018 (Figure 5).
Figure 5. Average daily oil and gas production decline curves for the above seven hydraulically fractured laterals in Ohio’s Utica Shale Basin, 2011 to Q2-2018
Four of the nine wells demonstrated 71% declines by the second and third years and nearly 98% declines by by Q2-2018 (Figure 6). These declines lend credence to recent headlines like Fracking’s Secret Problem—Oil Wells Aren’t Producing as Much as Forecast in the January 2nd issue of The Wall Street Journal. Four of the nine wells demonstrated 49% declines by the second and third years and nearly 81% declines by Q2-2018 (Figure 7).
Figure 6. Oil production decline curves for seven hydraulically fractured laterals in Ohio’s Utica Shale Basin from 2011 to Q2-2018
Figure 7. Natural gas production decline curves for seven hydraulically fractured laterals in Ohio’s Utica Shale Basin from 2011 to Q2-2018
Fracking waste, lateral length, and water demand
from bottom-left to the top-right
An analysis of fracking’s environmental and economic impact is incomplete if it ignores waste production and disposal. In Ohio, there are 226 active Class II Salt Water Disposal (SWD) wells. Why so many?
Ohio’s Class II well inventory serves as the primary receptacle for HVHF liquid waste for Pennsylvania, West Virginia, and Ohio.
The Class II network is situated in a crescent shape around the state’s unconventional wells. This expands the geographic impact of HVHF to counties like Ashtabula, Trumbull, and Portage to the northeast and Washington, Athens, and Muskingum to the south (Figure 8).
Figure 8. Ohio’s unconventional gas laterals and Class II salt water disposal injection wells. Weighted by cumulative production and waste disposal volumes to Q3-2018.
Disposal Rates
We graphed average per well (barrels) and cumulative (million barrels) disposal rates from Q3-2010 to Q3-2018 for these wells. The data shows an average increase of 24,822 barrels (+1.05 million gallons) per well, each year.
That’s a 51% per year increase (Figure 9).
A deeper dive into the data reveals that the top 20 most active Class II wells are accepting more waste than ever before: an astounding annual per well increase of 728,811 barrels (+30.61 million gallons) or a 230% per year increase (Figure 10). This divergence resulted in the top 20 wells disposing of 4.95 times the statewide average between Q3-2010 and Q2-2013. They disposed 13.82 times the statewide average as recently as Q3-2018 (Figure 11).
Figure 9
Cumulative and average well volumes for all 226 of Ohio’s Class II Salt Water Disposal wells from Q3-2010 to Q3-2018
Figure 10
Cumulative and average per well volumes for Ohio’s Top 20 Class II salt water disposal wells from Q3-2010 to Q3-2018
Figure 11
The ratio of average per well volumes for Ohio’s top 20 Class II salt water disposal (SWD) wells to all 226 Class II SWD wells from Q3-2010 to Q3-2018
All of this means that we are putting an increasing amount of pressure on fewer and fewer wells. The trickle out, down, and up of this dynamic will foist a myriad of environmental and economic costs to areas surrounding wells. As an example, the images below are injection wells currently under construction in Brookfield, Ohio, outside Warren and minutes from the Pennsylvania border.
More concerning is the fact that areas of Ohio that are injection well hotspots, like Warren, are proposing new fracking-friendly legislation. These disturbing bills would lubricate the wheels for continued expansion of fracking waste disposal and permitting. House bills 578 and 393 and Senate Bill 165 monetize and/or commodify fracking waste by giving townships a share of the revenue. Such bills “…would only incentivize communities to encourage more waste to come into their existing inventory of Class II… wells, creating yet another race to the bottom.” Co-sponsors of the bills include Democratic Reps. Michael O’Brien, Glenn Holms, John Patterson, and Craig Riefel.
Lateral Lengths
The above trends reflect an equally disturbing trend in lateral length. Ohio’s unconventional laterals are growing at a rate of 9.1 to 15.6%, depending on whether you buy that this trend is linear or exponential (Figure 12). This author believes the trend is exponential for the foreseeable future. Furthermore, it’s likely that “super laterals” in excess of 3-3.5 miles will have a profound impact on the trend. (See The Freshwater and Liquid Waste Impact of Unconventional Oil and Gas in Ohio and West Virginia.)
This lateral length increase substantially increases water demand per lateral. It also impacts Class II well disposal rates. The increase accounts for 76% of the former and 88% of the latter when graphed against each other (Figure 13).
Figure 12. Ohio Utica unconventional lateral length from Q3-2010 to Q4-2018
Figure 13. Ohio Utica unconventional water demand and Class II SWD injection well disposal volumes vs lateral length from Q3-2010 to Q4-2018.
Conclusion
This relationship between production, resource demand, and waste disposal rates should disturb policymakers, citizens, and the industry. One way to this problem is to more holistically price resource utilization (or stop oil and gas development entirely).
Unfortunately, states like Ohio are practically giving water away to the industry.
Politicians are constructing legislation that would unleash injection well expansion. This would allow disposal to proceed at rates that don’t address supply-side concerns. It’s startling that an industry and political landscape that puts such a premium on “market forces” is unwilling to address these trends with market mechanisms.
We will continue to monitor these trends and hope to spread these insights to states like Oklahoma and Texas in the future.
By Ted Auch, Great Lakes Program Coordinator, FracTracker Alliance – with invaluable data compilation assistance from Gary Allison
Data Downloads
FracTracker is a proponent of data transparency, and so we often share the data we use to construct our maps analyses. Click on the links below to download the data associated with the present analysis:
Inventory of volumes disposed on a quarterly basis from 2010 to Q3-2018 for all 223 active Class II Salt Water Disposal (SWD) Injection wells in Ohio (zip file)
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2019/01/InjectionWell-Sky-Feature.jpg400900Ted Auch, PhDhttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2021/04/2021-FracTracker-logo-horizontal.pngTed Auch, PhD2019-01-09 14:37:272021-04-15 14:56:57A Disturbing Tale of Diminishing Returns in Ohio
Last month, the Department of Energy (DOE) submitted a report titled Ethane Storage and Distribution Hub in the United States to Congress. The report sums up several other recent geologic studies and economic analyses that evaluate the potential to create a large petrochemical hub in southwest Pennsylvania, Ohio, West Virginia, and northeastern Kentucky.
Most people call this region Appalachia because of the mountains, or the Ohio River Valley because of the namesake river. The petrochemical industry looks deeper: they’ve branded it Shale Crescent USA, after the shale gas thousands of feet underground. This article summarizes recent developments on storing natural gas liquids, including ethane, in this region – whatever you prefer to call it.
Background
The United States currently produces more natural gas than any other country in the world, with much of the fracked gas coming from the Marcellus and Utica shales in Appalachia. The DOE report predicts that production in this region will continue growing from an estimated at 8.19 trillion cubic feet (Tcf) in 2017, to 13.55 Tcf in 2025 and 19.5 Tcf in 2050.
Natural Gas Production Estimates:
8.19 Tcf in 2017
13.55 Tcf in 2025
19.5 Tcf in 2050
In addition to oil and gas, fracking produces natural gas liquids (NGLs), such as ethane, propane, and butane. NGLs are a key component of the petrochemical industry, which takes these resources and converts them into plastics and resins. As industry extracts more natural gas, it will also be left with more NGLs to manage.
Hoping to profit off NGLs, the oil and gas industry is investing in petrochemical production. In the Appalachian basin, the DOE predicts that production of ethylene from ethane will reach 640,000 barrels a day by 2025 (this is 20 times the amount the region produced in 2013). The Gulf Coast of the U.S., as well as countries in Asia and the Middle East, are also growing their production capacities. Globally, ethylene production is projected to grow 31% from 2017 to 2025.
The rise of the petrochemical industry comes at a point when there’s an increasing global awareness of the disaster that is plastic pollution. As much as 12.7 million tons of plastic waste goes into the ocean each year, affecting over 700 species of marine animals. On land, plastic waste is often shipped to less developed nations, where it ends up polluting poor communities and contaminating their drinking water and air.
Nevertheless, politicians in PA, OH, and WV are working hard to attract petrochemical build-out in Appalachia. The region already houses much of the infrastructure needed for a petrochemical hub, such as fracked wells that pump out NGLs and processing plants to separate these liquids from the rest of the natural gas stream. One thing it’s missing, however, is significant capacity to store natural gas liquids – particularly ethane.
Why does industry need storage?
Ethane storage offers several benefits to the petrochemical industry. For one, it would serve as a steady supply of ethane for plants like ethane crackers, which “crack” ethane into ethylene to make polyethylene plastic. With this constant supply (transported to crackers via pipeline), plants can operate 24 hours a day, year round, and avoid using energy to shutdown and restart. Storage also allows industry to adapt to fluctuations in demand and price.
Another argument for expanding petrochemical activity in Appalachia is to diversify the industry’s geography. The current petrochemical hub in Texas and Louisiana (where over 95% of the country’s ethylene production takes place) is subject to extreme weather events. In 2017, Hurricane Harvey caused over half of the nation’s polyethylene production capacity to shut down. The report mentions “extreme weather events” multiple times as justification for building a petrochemical hub in Appalachia. This stance strongly suggests that the DOE is preparing for increased hurricanes and flooding from climate change, although this is never explicitly stated. Unsurprisingly, the industry’s role in causing climate change is left out from the report as well.
What does storage look like?
While the term ‘natural gas liquid’ may seem like an oxymoron, it refers to the different forms the substances take depending on temperature and pressure. At normal conditions, NGLs are a gas, but when pressurized or exposed to extremely cold temperatures, they act as a liquid. NGLs occupy significantly less space as a liquid, and are therefore moved and stored as a pressurized or refrigerated liquid.
Storage can be in above ground tanks, but is often underground in gas fields or underground caverns. NGLs are highly volatile, and storing them above ground puts workers and surrounding communities at risk. For example – last week, an above ground storage tank exploded at a natural gas processing plant in Washington County, PA, sending four people to the hospital. While underground storage is perceived as “safer,” it still poses significant risks, particularly in a geography like Appalachia full of wells, coal mines, and pipelines. This underground infrastructure can cause NGLs to leak during storage or the land above them to collapse.
A study out of West Virginia University, titled “A Geologic Study to Determine the Potential to Create an Appalachian Storage Hub For Natural Gas Liquids,” identified three different types of storage opportunities along the Ohio and Kanawha river valleys:
Underground storage options
Mined-rock cavern: Companies can mine caverns in formations of limestone, dolomite, or sandstone. The formation must be at least 40 feet thick to hold NGLs. This study focused on formations of the Greenbrier Limestone, which occurs throughout southwestern Pennsylvania, West Virginia, and Kentucky.
Salt cavern: Developing salt caverns involves injecting water underground to create a void, and then pumping NGLs into the cavern. Suitable salt caverns have “walls” at least 100 feet thick above and below the cavern. The study recommended salt caverns 1,500 to 3,000 feet deep, but considered those as deep as 6,700 feet.
Gas field: NGLs can also be stored in natural gas fields or depleted gas fields in underground sandstone reservoirs. Suitable gas fields are 2,000 feet deep or more according to the WVU study.
Where could storage sites be located?
The West Virginia University study identified and ranked thousands of gas fields, several salt caverns, and many regions in the Greenbrier Limestone that could serve as NGL storage. Most of the top-ranked opportunities are in West Virginia, near the state’s borders with Ohio and Pennsylvania, and several cross beneath the Ohio or Kanawha rivers. The researchers conclude with three “prospects,” which are circled in Figure 1.
The table below lists the specific storage opportunities in each prospect, as well as the available data on depth, thickness, and acreage of the formations. Also listed are the counties that the storage facility would cross into.
Northern Prospect
Name
Type
Depth (feet)
Thickness (feet)
Counties
Land Size (acres)
Salina F4 Salt cavern
Salt cavern
–
>100 to 150
Primarily Columbiana, OH, also Hancock, WV & Beaver, PA
83,775
Salina F4 salt cavern
Salt cavern
–
100 to 150
Primarily Jefferson, OH, also Brooke & Hancock WV, & Washington, PA
2 possibilities for a cavern- one in northern Putnam & Roane WV, the other in Kanawha & Boone, WV
> 530,000 and >170,000
Burdett-St. Albans Field
Depleted gas field
1,824 to 2,510
4 to 27
Primarily Putnam, also Lincoln & Kanawha, WV
50,000
The Elk-Poca (Sissonville) Field
Depleted gas field
4,140 to 5,497
14
Putnam, Jackson, Kanawha, WV
245,000
Campbell Creek Field
Depleted gas field
4,825
15
Kanawha, WV
21,000
Ripley Field
Existing natural gas storage
4,660 to 5,012
15 to 56
Jackson, WV
>9000
North Ripley Field
Depleted gas field
5,379
77
Jackson, WV
19,000
Rocky Fork
Depleted gas field
5,623
140
Kanawha, Putnam ,WV
42,000
Cooper Creek
Depleted gas field
5,754
30
Kanawha, WV
8,600
Kanawha Forest
Depleted gas field
5,378
48
Kanawha, Boone, WV
28,000
Existing NGL Storage
Storage in the United States
The U.S. has two major NGL storage hubs (both in salt caverns): One is in Mont Belvieu, Texas and the other in Conway, Kansas. These facilities are strategically located near the petrochemical industry’s hub along the Gulf Coast. There is also underground storage in Sarnia, Ontario.
Industry in Appalachia is connected to these storage facilities via pipelines, including Sunoco’s Mariner West that transports ethane to Sarnia, and the Appalachia-Texas-Express (ATEX) pipeline that takes ethane to Mont Belvieu. However, as suggested above, NGL storage in Appalachia is also under development.
Appalachia Storage & Trading Hub
Appalachia Development Group LLC is heading the development of the Appalachia Storage & Trading Hub initiative. The company has not announced the specific location for underground storage, but has been working hard to secure the funds for this development.
In September of 2017, Appalachia Development Group submitted part 1 of a 2-part application for a $1.9 billion loan to the US DOE Loan Program Office. The DOE approved the application the following January, inviting the company to submit the second part, which is currently pending. This second part goes through the DOE’s Title XVII innovative clean energy projects loan program.
According to the DOE, this program “provides loan guarantees to accelerate the deployment of innovative clean energy technology.” Paradoxically, this means the DOE may give clean energy funds to the petrochemical industry, which is fueled by fossil fuels and does not provide energy but rather plastic and resins.
Steven Hedrick, the CEO of Appalachia Development Group, was part of a West Virginia trade delegation that traveled to China in 2017 to meet with China’s largest energy company. This meeting, which included President Trump and China’s President Xi Jinping, resulted in China Energy agreeing to invest $83.7 billion to support natural gas and petrochemical development in West Virginia. (Of note: This agreement has faced uncertainty following Trump’s tariffs on Chinese goods). West Virginia Governor Jim Justice later criticized Hedrick’s involvement in the meeting, where he promoted the interests of his private company.
Mountaineer NGL Storage Project
Another company, Energy Storage Ventures LLC, has plans to construct NGL storage near Clarington, Ohio. This facility would be on land formerly belonging to Quarto Mining Company’s Powhatan Mine No. 4. Called “Mountaineer NGL Storage,” the project would develop salt caverns to store propane, ethane, and butane. Each cavern could store 500,000 barrels (21 million gallons) of NGLs.
The video below, made by the Energy Storage Ventures, describes the process of developing salt caverns for storage.
The Mountaineer NGL Storage Project location is about 12 miles south of the PTTGC ethane cracker (if built), in Dilles Bottom Ohio. It’s also roughly 60 miles south of the Shell ethane cracker (under construction) in Potter Township, PA. If developed, the project could supply these plants with ethane and allow them to continuously operate. According to Energy Storage Ventures President, David Hooker, the project would also trigger $500 million in new pipelines in the region and $1 billion in fractionation facilities to separate NGLs.
Energy Storage Ventures wants to build three pipelines beneath the Ohio River. Two pipelines (one for ethane and one for propane and butane) would deliver NGLs to the storage site from Blue Racer Natrium, a fractionation plant that separates dry natural gas from NGLs. A third pipeline would take salt brine water from the caverns to the Marshall County chlorine plant (currently owned by Westlake Chemical Corp). These facilities, as well as the locations of the two ethane crackers storage could serve, are in the map below. This map also includes the potential storage opportunities the researchers at West Virginia University identified.
Referring to concerns about building pipelines and caverns near the Ohio River, a drinking water source for 5 million people, the company’s president David Hooker stated, “This is not rocket science. These things have operated safely for years… Salt, at depth, is impermeable. You won’t see any migration out of the salt.”
This video is a rendering of what the 200-acre site will look like, including the salt water impoundment structure (capable of holding 3.25 million barrels), and the infrastructure needed to deliver products and equipment by rail and truck:
The company has stated that it owns both the land and mineral rights it needs to develop the caverns, but the project has also faced delays.
Where is this plastic going?
One common argument for a petrochemical hub in Appalachia is the region’s proximity to the downstream sector of petrochemical industry. Manufacturers such as PPG Industries, Dow Chemical Inc., and BASF are all based in the area and could make use of the feedstock from an Appalachian hub.
However, the report doesn’t make it clear where the plastic and resin end products will land. It does state that the demand in the United States isn’t enough to swallow up two major petrochemical hubs worth of plastic.
Export markets
The DOE report states that, “the development of new petrochemical capacity in Appalachia is not necessarily in conflict with Gulf Coast expansion.” Since the Gulf Coast already has the infrastructure for export, it could focus on international markets while Appalachia meets domestic demand. Alternatively, the Appalachian hub could serve European destinations while the Gulf Coast hub delivers to Pacific Basin and South American destinations. Plastic consumption is highly correlated with population, so countries with large, growing populations such as India and China are likely markets.
It’s important to note that the U.S. isn’t the only country increasing its production of petrochemical derivatives, and as the report notes, exports from the US “may face a challenge from global capacity surplus.” Figure 2 shows that global production of ethylene is expected to surpass global consumption, shown in Figure 3. The graph of consumption likely ignores the impact of plastic-reducing policies that hundreds of countries and cities are implementing. As such, it may be an over-estimation.
Figure 2. Historical and future ethylene production by global region. Source
Figure 3. Ethylene consumption by global region. Source
In the end, it appears that the industry’s plan is to build first, and worry about markets later, hoping that a growing supply of affordable plastic will increase consumption.
Perhaps the reason industry is so eager to forge a market is because oil and gas is struggling with a lot of debt. A study out of the Sightline Institute found that as of the first half of 2018, “US fracking-focused oil and gas companies continued their eight-year cash flow losing streak.” The Center for International Environmental Law found that petrochemicals generally have a larger profit margin than oil and gas: “In 2015, ExxonMobil’s Chemicals segment accounted for roughly 10% of its revenues but more than 25% of its overall profits.”
Plastic is one way to subsidize this dying industry…
Beyond Storing Natural Gas Liquids
The motive behind developing storage is to catalyze and support a major industry. The DOE report states that the new infrastructure required “would include gathering lines, processing plants, fractionation facilities, NGLs storage facilities, ethane crackers, and then…plants for polyethylene, ethylene dichloride, ethylene oxide, and other infrastructure.” A hub would require more fracking and wastewater injection wells, cause even more heavy truck traffic that adds stress to roadways, and require additional power plant capacity to serve its electricity demand.
In other words, an Appalachian petrochemical hub would profoundly impact the region. The report contains an in-depth analysis of the economic impacts, but fails to mention any environmental concerns, social impacts on communities, or health effects. The other major studies on this buildout, mentioned above, follow a similar pattern.
A quick look at industry along the Gulf Coast tells you that environmental, social, and health concerns are very real and produce their own economic debts. The petrochemical industry has created a “cancer alley” in Texas and Louisiana, disproportionately impacting low-income and minority communities. Yet, industry is preparing another hub without a single comprehensive environmental impact assessment or health assessment for the region. As each pipeline, fracked well, and plant is permitted separately, we can’t properly assess the cumulative negative impacts this development will have on our waterways, forests, soil, or air quality. Therefore, we also won’t know how it will affect our health.
Looking into the future
The report analyzes the industry through 2050. It states that NGL output in Appalachia:
… will continue to grow throughout the forecast period. As natural gas production gradually migrates away from liquids-rich gas areas, which are expected to slowly deplete, to dryer areas, the rate of growth in NGPL production will slow relative to the rate of natural gas production growth.
In 31 years, the kids growing up in Appalachia right now could be left with brownfields, dried-up wells, and abandoned ethane crackers. But it doesn’t have to be this way. Last year, the DOE reported that there are more jobs in clean energy, energy efficiency, and alternative vehicles than in fossil fuels. By using funds such as the DOE’s Title XVII innovative clean energy loan – for actual clean energy – we can bring economic development to the region that will be relevant past 2050 and that won’t sacrifice our health and natural resources for short-term private gains.
By Erica Jackson, Community Outreach and Communications Specialist
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2018/12/Appalachian-Storage-Feature.jpg400900Erica Jacksonhttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2021/04/2021-FracTracker-logo-horizontal.pngErica Jackson2018-12-19 12:31:022021-04-15 14:57:02Storing Natural Gas Liquids in Appalachia
In 2012, a battle between Ohio, West Virginia, and Pennsylvania was underway. Politicians and businesses from each state were eagerly campaigning for the opportunity to host Royal Dutch Shell’s “world-class” petrochemical facility. The facility in question was an ethane cracker, the first of its kind to be built outside of the Gulf Coast in 20 years. In the end, Pennsylvania’s record-breaking tax incentive package won Shell over, and construction on the ethane cracker plant began in 2017.
Once completed, the ethane cracker will convert ethane from fracked wells into 1.6 million tons of polyethylene plastic pellets per year.
Shell’s ethane cracker, under construction in Beaver County, PA. Image by Ted Auch, FracTracker.
Aerial support provided by LightHawk.
Ohio and West Virginia, however, have not been left out of the petrochemical game. In addition to the NGL pipelines, cryogenic plants, and fractionation facilities in these states, plans for ethane cracker projects are also in the works.
In 2017, PTT Global Chemical (PTTGC) put Ohio in second place in the “race to build an ethane cracker,” when it decided to build a plant in Belmont County, Ohio.
But first, why is the petrochemical industry expanding in the Ohio River Valley?
Fracking has opened up huge volumes of natural gas in the Marcellus and Utica shales in Pennsylvania, Ohio, and West Virginia. Fracked wells in these states extract methane, which is then transported in pipelines and used as a residential, industrial, or commercial energy source. The gas in this region, however, contains more than just methane. Classified as “wet gas,” the natural gas stream from regional wells also contains natural gas liquids (NGLs). These NGLs include propane, ethane, and butane, and industry is eager to create a market for them.
Plastic pellets, also called “nurdles,” the end product of ethane crackers.
Major processing facilities, such as cryogenic and fractionation plants, receive natural gas streams and separate the NGLs, such as ethane, from the methane. After ethane is separated, it can be “cracked” into ethylene, and converted to polyethylene, the most common type of plastic. The plastic is shipped in pellet form to manufacturers in the U.S. and abroad, where it is made into a variety of plastic products.
By building ethane crackers in the Ohio River Valley, industry is taking advantage of the region’s vast underground resources.
PTTGC ethane cracker: The facts
PTTGC’s website states that the company “is Thailand’s largest and Asia’s leading integrated petrochemical and refining company.” While this ethane cracker has been years in the making, the company states that “a final investment decision has not been made.” The image below shows land that PTTGC has purchased for the plant, totaling roughly 500 acres, in Dilles Bottom, Mead Township.
According to the Ohio EPA, the plant will turn ethylene into:
700,000 tons of high density polyethylene (HDPE) per year
900,000 tons Linear low-density polyethylene (LLDPE)
HDPE is a common type of plastic, used in many products such as bags, bottles, or crates. Look for it on containers with a “2” in the recycling triangle. LLDPE is another common type of plastic that’s weaker and more flexible; it’s marked with a “4.”
The ethane cracker complex will contain:
An ethylene plant
Four ethylene-based derivatives plants.
Six 552 MMBtu/hour cracking furnaces fueled by natural gas and tail gas with ethane backup
Three 400 MMBTU/hr steam boilers fueled by natural gas and ethane
A primary and backup 6.2 MMBtu/hour thermal oxidizer
A high pressure ground flare (1.8 MMBtu/hour)
A low pressure ground flare (0.78 MMBtu/hour)
Wastewater treatment systems
Equipment to capture fugitive emissions
Railcars for pygas (liquid product) and HDPE and LLDPE pellets
Emergency firewater pumps
Emergency diesel-fired generator engines
A cooling tower
Impacts on air quality
The plant received water permits last year, and air permits are currently under review. On November 29, 2018, the Ohio EPA held an information session and hearing for a draft air permit (the permit can be viewed here, by entering permit number P0124972).
The plant will be built in the community of Dilles Bottom, on the former property of FirstEnergy’s R.E. Burger Power Station, a coal power plant that shut down in 2011. The site was demolished in 2016 in preparation for PTTGC’s ethane cracker. In 2018, PTTGC also purchased property from Ohio-West Virginia Excavating Company. In total, the ethane cracker will occupy 500 acres.
R.E. Burger Power Station, which has been demolished for the PTTGC Ethane Cracker. Image Source
Table 1, below, is a comparison of the previous major source of air pollution source, the R.E. Burger Power Station, and predictions of the future emissions from the PTTGC ethane cracker. The far right column shows what percent of the former emissions the ethane cracker will release.
Table 1: Former and Future Air Emissions in Dilles Bottom, Ohio
Pollutant
R.E.Burger Power Station (2010 emissions, tons per year)
PTTGC Ethane Cracker (predicted emissions, tons per year)
Percent of former emissions
CO (carbon monoxide)
143.33
544
379.5%
NOx (nitrogen oxides)
1861.2
164
8.81%
SO2 (sulfur dioxide)
12719
23
0.18%
PM10 (particulate matter, 10)
179.25
89
49.65%
PM2.5 (particulate matter, 2.5)
77.62
86
110.8%
VOCs (volatile organic compounds)
0.15
396
264000%
As you can see, the ethane cracker will emit substantially less sulfur dioxide and nitrogen dioxides compared with the R.E. Burger site. This makes sense, as these two pollutants are associated with burning coal. On the flip side, the ethane cracker will emit almost four times as much carbon monoxide and 263,900% more volatile organic compounds (percentages bolded in Table 1, above).
In addition to these pollutants, the ethane cracker will emit 38 tons per year of Hazardous Air Pollutants (HAPS), a group of pollutants that includes benzene, chlorine, and ethyl chloride. These pollutants are characterized by the EPA as being “known or suspected to cause cancer or other serious health effects, such as reproductive effects or birth defects, or adverse environmental effects.”
Finally, the ethane cracker is predicted to emit 1,785,043 tons per year of greenhouse gasses. In the wake of recent warnings on the urgent need to limit greenhouse gas emissions from the Intergovernmental Panel on Climate Change and National Climate Assessment, this prediction is highly concerning.
While these emission numbers seem high, they still meet federal requirements and nearly all state guidelines. If the ethane cracker becomes operational, pollutant monitoring will be important to ensure the plant is in compliance and how emissions impact air quality. The plant will also attract more development to an already heavily industrialized area; brine trucks, trains, pipelines, fracked wells, compressor stations, cryogenic facilities, and natural gas liquid storage are all part of the ethane-to-plastic manufacturing process. The plastics coming from the plant will travel to facilities in the U.S. and abroad to create different plastic products. These facilities are an additional source of emissions.
Air permitting does not consider the full life cycle of the plant, from construction of the plant to its demolition, or the development associated with it.
As such, this plant will be major step back for local air quality, erasing recent improvements in the Wheeling metropolitan area, historically listed as one of the most polluted metropolitan areas in the country. Furthermore, the pollutants that will be increasing the most are associated with serious health effects. Over short term exposure, high levels of VOCs are associated with headaches and respiratory symptoms, and over long term exposure, cancer, liver and kidney damage.
Emergency preparedness
In addition to air quality impacts, ethane cracker plants also pose risks from fires, explosions, and other types of unplanned accidents. In 2013, a ruptured boiler at an ethane cracker in Louisiana caused an explosion that sent 30,000 lbs. of flammable hydrocarbons into the air. Three hundred workers evacuated, but sadly there were 167 suffered injuries and 2 deaths.
While researching Shell’s ethane cracker in Beaver County, FracTracker worked with the Emergency Operations Center (EOC) in St. Charles Parish, Louisiana, to learn about emergency planning around the petrochemical industry. Emergency planners map out two and five mile zones around facilities, called emergency planning zones, and identify vulnerabilities and emergency responders within them.
With this in mind, the map below shows a two and five-mile radius around PTTGC’s property, as reported by Belmont County Auditor. Within these emergency planning zones are the locations of schools, day cares, hospitals, fire stations, emergency medical services, hospitals, and local law enforcement offices, reported by Homeland Infrastructure Foundation Level Data.
The map also includes census data from the EPA that identifies potential environmental justice concerns. By clicking on the census block groups, you will see demographic information, such as income status, age, and education level. These data are important in recognizing populations that may already be disproportionately burdened by or more vulnerable to environmental hazards.
Finally, the map displays environmental data, also from the EPA, including a visualization of particulate matter along the Ohio River Valley, where massive petrochemical development is occurring. By clicking on a census block and then the arrow at the top, you will find a number of other statistics on local environmental concerns.
Emergency planning zones for Shell’s ethane cracker are available here.
Within the 5 mile emergency planning zone, there are:
9 fire or EMS stations
17 schools and/or day cares
1 hospital
6 local law enforcement offices
Within the 2 mile emergency planning zone, there are:
3 fire or EMS stations
7 schools and/or day cares
No hospitals
3 local law enforcement offices
Sites of capacity, such as the fire and EMS stations, could provide emergency support in the case of an accident. Sites of vulnerability, such as the many schools and day cares, should be aware of and prepared to respond to the various physical and chemical risks associated with ethane crackers.
The census block where the ethane cracker is planned has a population of 1,252. Of this population, 359 are 65 years or older. That is well above national average and important to note; air pollutants released from the plant are associated with health effects such as cardiovascular and respiratory disease, to which older populations are more vulnerable.
Conclusion
PTTGC’s ethane cracker, if built, will drastically alter the air quality of Belmont County, OH, and the adjacent Marshall County, WV. Everyday, the thousands of people in the surrounding region, including the students of over a dozen schools, will breathe in its emissions.
This population is also vulnerable to unpredictable accidents and explosions that are a risk when manufacturing products from ethane, a highly flammable liquid. Many of these concerns were recently voiced by local residents at the air permit hearing.
Despite these concerns and pushback, PTTGC’s website for this ethane cracker, pttgcbelmontcountyoh.com, does not address emergency plans for the area. It also fails to acknowledge the potential for any adverse environmental impacts associated with the plant or the pipelines, fracked wells, and train and truck traffic it will attract to the region.
With this in mind, we call upon PTTGC to acknowledge the risks of its facility to Belmont County and provide the public with emergency preparedness plans, before the permitting process continues.
If you have thoughts or concerns regarding PTTGC’s ethane cracker and its impact on air quality, the Ohio EPA is accepting written comments through December 11, 2018. We encourage you to look through the data on this map or conduct your own investigations and submit comments on air permit #P0124972.
“The aeroplane has unveiled for us the true face of the earth.” by French writer and aviator Antoine de Saint-Exupéry author of Le Petit Prince (The Little Prince)
I always tell people that you can’t really understand or appreciate the enormity, heterogeneity, and complexity of the unconventional oil and gas industry’s impact unless you look at the landscape from the cockpit of a Cessna 172. This bird’s-eye-view allows you to see the grandeur and nuance of all things beautiful and humbling. Conversely, and unfortunately more to the point of what I’ve seen in the last year, a Cessna allows one to really absorb the extent, degree, and intensity of all things destructive.
I’ve had the opportunity to hop on board the planes of some amazing pilots like Dave Warner, a forester formerly of Shanks, West Virginia (Note: More on our harrowing West Virginia flight with Dave later!!), Tim Jacobson Esq. out of La Crosse, Wisconsin, northern Illinois retired commodity and tree farmer Doug Harford, and Target corporate jet pilot Fred Muskol out of the Twin Cities area of Minnesota.
Since joining FracTracker I’ve been fortunate to have completed nearly a dozen of these “morning flights” as I like to call them, and five of those have taken place since August 2017. I’m going to take the next few paragraphs to share what I’ve found in my own words and by way of some of the photos I think really capture how hydraulic fracturing, and all of its tentacles, has impacted the landscape.
The following is by no means an empirical illustration. I’m increasingly aware, however, that often times tables, charts, and graphs fail to capture much of the scale and scope of fossil fuel’s impact. Photos, if properly georeferenced and curated, are as robust a source of data as a spreadsheet or shapefile, both of which are the traditional coins of the realm here at FracTracker.
West Central Wisconsin Frac Sand Mines
August 2, 2017
Figure 1. Wisconsin and Winona, Minnesota silica sand mines, processing facilities, and related operations
It was nearly a year ago today that I met Bloomer, Wisconsin dairy farmer Ken Schmitt at the Chippewa Valley Regional Airport (KEAU) and soon thereafter jumped into Tim Jacobson’s Cessna 172 to get a bird’s-eye-view of the region’s many frac sand mines and their impacts (Figure 1). These sites are spread out over a 12-county region known as West Central Wisconsin (WCW). Ken hadn’t been up to see these mines since October of 2016 and was eager to see how they had “progressed,” knowing what he did about their impact on his neck of the woods in northern Chippewa County.
Ken is one of the smartest guys I’ve ever met, and – befitting a dairy farmer – he is also one of the most conservative and analytical folks I’ve ever met. However, that morning it was clear that his patience with county administrators and the frac sand mining industry had long since run out. He was tired of broken promises, their clear and ubiquitous bullying tactics, and a general sense that his livelihood and the farm he was hoping to leave his kids were at risk due to sand mining’s complete capture of WCW’s residents and administrators.
Meanwhile Mr. Jacobson Esq. was intimately familiar with some of the legal tools residents were using to fight the spread of sand mining in the WCW. This is something he referred to as “anticipatory nuisance” lawsuits, which he and his colleagues were pursuing on behalf of several landowners against OmniTrax’s (f/k/a Terracor) “sand mine, wet and dry processing, a conveyor system to a rail load out with manifest yard” proposal in Jackson County, Wisconsin. I, too, have worked with Tim to inform some of his legal work with respect to the nuisance stories and incidents I’ve documented in my travels, as well as research into the effects of sand mining across Michigan, Illinois, Minnesota, and Wisconsin.
Explore details from our sand mining tour by clicking on the images below:
Our flight lasted nearly 2.5 hours and stretched out over 4,522 square miles. It included nearly 20 sand mines – and related infrastructure – in the counties of Jackson, Wood, Clark, Eau Claire, Monroe, Trempealeau, and Buffalo. What we saw was a sizeable expansion of the mining complex in the region since the last time I flew the area – nearly four years earlier on October 8, 2013. The number and size of mines that had popped up since that trip were far greater than any of us had expected.
This expansion paralleled the relative – and total –increase in demand for “proppant” from the High Volume Hydraulic Fracturing (HVHF) all across the country (Figure 2).
Figure 2. A map of the likely destination for Wisconsin’s frac sand mines silica sand based on an analysis of Superior Silica Sand’s 2015 SEC 10Ks.
West Virginia Panhandle & Southeastern Ohio
January 26, 2018
On the morning of January 26th, I woke up on the west side of Cleveland thinking there was very little chance we were going to get up in the air for our flight with SouthWings’ pilot Dave Warner due to inclement weather. There was a part of me that was optimistic, however, so I decided to make the three hour drive down to the Marshall County Airport (KMPG) in Moundsville, West Virginia from Cleveland in the hopes that the “cold rain and snow” we’d been receiving was purely lake effect stuff and the West Virginia panhandle had not been in the path of the same cold front.
Marshall County, West Virginia Airport (KMPG) staff clearing the runway for our flight with SouthWings pilot Dave Warner, 1/26/2018
Unfortunately, when I arrived at the Moundsville airport I was wrong, and the runway was pretty slick around 8:00 a.m. However, the airport’s staff worked diligently to de-ice and plow the runway and by the time Dave Warner arrived from southern West Virginia conditions were ideal. The goal of this flight was two-fold:
Photograph some of the large-scale high-volume hydraulic fracturing (HVHF) infrastructure in the West Virginia counties of Doddridge, Wetzel, and Marshall owned and operated by MarkWest, and
Allegheny Front’s Julie Grant was doing a story on natural gas gathering pipeline’s impact on waterways, and more specifically the Hellbender Salamander (Cryptobranchus alleganiensis). She was looking to see the impacted landscape from the air.
Both of these goals were achieved efficiently and safely, with the resulting Allegheny Front piece receiving significant interest across multiple public radio and television platforms including PRI’s Living On Earth.
Explore details from our WV / OH tour by clicking on the images below:
On my return drive home that afternoon the one new thing that really resonated with me was the fact that hydraulic fracturing or fracking has come to be defined by 4-5 acre well pads across Appalachian, Texas, Oklahoma, and North Dakota. This is a myth, however, expertly perpetuated by the oil and gas industry and their talking shops. Fracking’s extreme volatility and quick declines in rates of return necessitate that this latest fossil fuel iteration install large pieces of infrastructure like compressor stations and cracking facilities. This all is to ensure timely movement of product from supply to demand and to optimize the “value added” products the global markets demand and plastics industry uses as their primary feedstocks. This large infrastructure was never mentioned at the outset of the shale revolution, and I would imagine if it had been there would be far more resistance.
The one old thing the trip reinforced was the omnipresence and sinuosity of natural gas gathering lines across extremely steep and forested Appalachian geographies. How these pipelines will hold up and what their hasty construction is doing to terrestrial and aquatic wildlife, not to mention humanity, is anyone’s guess; the data is just so darn bad.
Southeastern Ohio
March 5, 2018 – aka, The XTO Powhatan Point Well Pad Explosion Flight
Around 9 a.m. on Thursday, February 15, 2018, an explosion occurred at XTO’s Schnegg frack pad “as the company worked to frack a fourth well” in Powhatan Point, Belmont County, Ohio. Shortly thereafter, a two-mile Temporary Flight Restriction (TFR) was enacted by the Federal Aviation Administration (FAA) around the incident’s location. The TFR was supposed to lapse during the afternoon of March 5, however, due to complications at the site the TFR was extended to the evening of March 8.
We were antsy to see what we could see, so we caught an emergency flight with Dave Warner, only this time under the LightHawk umbrella. We left on the morning of March 5th out of the all too familiar[1]Carroll County-Tolson Airport (KTSO). Although we couldn’t get close to the site, there was a holler valley to the northwest of the pad that allowed us to capture a photo of the ongoing releases. Additionally, within several weeks we obtained by FOIA the raw Ohio State Trooper monitoring footage from their helicopter and posted this footage to our YouTube channel, where it has received 4,787 views since March 19, 2018. This type of web traffic is atypical for anything that doesn’t include kittens, the Kardashians, or the Kardashians’ kittens.
Explore details from our Southeastern Ohio tour by clicking on the images below:
Much like our flight in January the most salient points I got out of Dave’s plane thinking about were:
Astonishment regarding the number of gas gathering lines and the fact that they seem to have been installed with very little-to-no reclamation forethought. They are also installed during a time of year when – even if hydroseed is applied – it won’t grow, leaving plenty of chances for predictable spring rains to cause major problems for streams and creeks, and
It is a big plant, a very big plant and far bigger than other plants around here… What’s really amazing that we got it up and running in six months. No one believed that we could do that. – Momentum Midstream spokesman Eric Mize discussing their natural gas liquids-separating complex in Scio, Ohio.
LaSalle County, Illinois
May 24 & 26, 2018
Frac Sand Mines and The Nature Conservancy’s Nachusa Grasslands Buffalo Herd, Franklin Grove, Illinois
Fast forward to the week of May 21st of this year, and I was back in the frac sand capital to interview several folks that live near these mines or have been advocating for a more responsible industry. I conducted a “morning flight” with several journalists and county officials from neighboring Ottawa County.
LaSalle County is an extremely interesting case study for anyone even remotely interested in the food, energy, and water (FEW) conversation that has begun to receive significant attention in the age of the “Shale Revolution.” (Such focus is largely thanks to the extreme amounts of water required during the fracking process.) While LaSalle County has never experienced even a single HVHF permit, it is home to much of the prized silica or “proppant” the HVHF industry prizes. La Salle receives this recognition due to its location above one of the finest sources of silica sand: the St. Peter Sandstone formation. This situation has prompted a significant expansion in the permitting of new silica sand mines and expansion of existing mines throughout the county – from small townships like North Utica and Oglesby to Troy Grove 7 miles north on East 8th Road.
Meanwhile, LaSalle County is home to some of the most productive soils in the United States, due largely to the carbon sequestration capabilities of the tallgrass prairies that once dominated the region. In any given year, the county ranks in the top 5 nationally based on the amount of soybean and corn produced on a per-acre basis. According to an analysis of the most recent USDA agricultural census, total agricultural value in LaSalle County exceeds $175 million or seven times the national average by county of roughly $23 million.
Needless to say, the short-term extraction of silica sands in the name of “energy independence” stands to have a profound impact on long-term “food security” in the U.S. and worldwide. Sadly, this conflict is similar to the one facing the aforementioned West Central Wisconsin, home to similarly productive soils. The cows that feed on the forage those soils produce some of the highest quality dairy anywhere. (As an aside: both regions are facing the realities of their disproportionate support for Donald Trump and the effects his trade war will have on their economies.)
… vertical walls of moss-covered stone formed by glacial meltwater that slice dramatically through tree-covered sandstone bluffs. More than 13 miles of trails allow access to waterfalls, fed season runoff or natural springs, sandstone overhangs, and spectacular overlooks. Lush vegetation supports abundant wildlife, while oak, cedar and pine grow on drier, sandy bluff tops. – IL DNR
Starved Rock receives more than 2.5 million visitors annually, which is the most of any Illinois state park. However, it is completely surrounded by existing or proposed frac sand mines, including US Silica’s Covel Creek mine. US Silica even recently pitched an expansion to the doorstep of Starved Rock and future plans to nearly engulf the park’s perimeter. What such an expansion would do to the attractiveness of the park and its trickle down economic impact is debatable, but LaSalle County residents Paul Wheeler and photographer Michelle McCray took a stab at illustrating the value of the state park to residents for our audience back in August, 2016:
Our flight with LightHawk pilot and neighboring Mazon, Illinois retired farmer Doug Harford lifted off from Illinois Valley Regional Airport (KVYS) at around 9:00 a.m. local time on the morning of May 24th. We had perfect conditions for taking photos, with no clouds and a comfortable 70-75°F for the duration of a two-hour flight. We covered nearly 200 square miles and ten existing, abandoned, or permitted frac sand mines.
Explore details from our Illinois tour by clicking on the images below:
All passengers were struck by how large these mines were and how much several of the mines had expanded since the last time we all flew over them in June of 2016. The mines that had experienced the greatest rates of expansion were US Silica’s LaSalle Voss mine along Interstate 80 and the aforementioned Illinois River mine along with Fairmount Mineral’s major expansion, both in terms of infrastructure and actual mine footprint, in Wedron along the Fox River.
Figure 3. A map of the LaSalle County frac sand mines and associated St. Peter sandstone formation, along with the city of Chicago for some geographic perspective.
Most of this expansion is due to three critical distinguishing characteristics about the industry in LaSalle County:
The processing and export infrastructure (i.e., east-west rail) is in place and allows for mining to take place at times when other sand mining regions are mothballed,
Due to the large aggregation of parcels for farming purposes, companies can lease or outright purchase large amounts of land from relatively few landowners, and
Only the largest firms are active in the region, and with economies of scale they are not subject to the same types of shocks that smaller firms are when the price of oil collapses (like it did between June 2015 and February 2016). This means that the conflict will only be amplified in the coming months and years as the frac sand mining industry looks to supersede agriculture as LaSalle County’s primary economic driver.
However, all is not lost in North Central Illinois. This hope was stoked during our sojourn – and my subsequent trip in person – up to see The Nature Conservancy’s 3,600 acre preserve in Franklin Grove on the border of Lee and Ogle counties. As someone who is working hard to establish a small plot of prairie grasses and associated wildflowers at my home outside Cleveland, I was hoping to see what an established prairie looks like from the air. My primary goal, however, was to see what a healthy herd of native bison looks like.[2] The Nachusa bison are unique in that they came:
… from Wind Cave National Park in South Dakota and…Unlike most other American bison, animals from the Wind Cave herd have no history of cross-breeding with cattle. Bison from Wind Cave are the species’ most genetically pure and diverse specimens.
We were fortunate during our flight to have spotted the heard at the western edge of the preserve in what volunteer naturalist, Betty Higby, later told me the staff calls Oak Island. While I am not a person of faith, seeing these behemoths roaming freely and doing what 20-30 million of their ancestors used to do across much of North America moved me in a way I was not prepared for. I was immediately overwhelmed with a sense of awe and humility. How was I going to explain this beast’s former ubiquity and current novelty to my 5-year-old son, who shares a love of the North American Bison with me and would most certainly ask me what happened to this majestic creature?
Medina & Stark counties, Ohio NEXUS Pipeline flight
June 25, 2018
Ohio is currently home to 2,840 fracking permits, with 2,370 of these laterals having been drilled since September 2010. The growing concern around the fracking and petrochemicals conversation across much of the Midwest is the increasing number of FERC-permitted natural gas pipeline “proposals”[3] the industry is demanding it needs to maximize potential. Most residents in the path of these pipelines have strong objections to such development, citing the fact that imminent domain should not be invoked for corporate gain.
Much like all of the other patterns and processes we’ve documented and/or photographed at FracTracker, we felt that a flight over the latest FERC-approved pipeline – The NEXUS pipeline – would give us a better understanding of how this critical piece of infrastructure has altered the landscapes of Medina and Stark counties. Given the population density of these two northeastern Ohio counties, we also wanted to document the pipeline’s pathway with respect to urban and suburban centers.
Our flight on June 25th was delayed due to low clouds and last minute changes to the flight plan, but once we took off from Wadsworth Municipal Airport (3G3) with a local flight instructor it was clear that NEXUS is a pipeline that navigates a sinuous path in cities and townships like Green, Medina, Rittman, and Seville – coming dangerously close to thousands of homes and farms, as well as many schools and medical facilities.
Explore details from our NEXUS Pipeline tour by clicking on the images below:
Will this be the last FERC-approved pipeline to transverse Ohio in the name of “energy independence”? Will this pipeline and its brethren with names like the Utopia and ET Rover be monitored in real-time? If not, why? It is unfortunate, to say the least, that we so flippantly assume these pipelines are innocuous given their proximity to so many Ohioans. And, as if to add insult to injury, imminent domain is invoked. All this for a piece of oil and gas infrastructure that will profit companies on the global market, with only a fraction of the revenue returning to affected communities.
What’s Next?
I don’t know of a better way to understand the magnitude of these pipelines than flying over them at 1,000-1,500 feet, and I will continue to monitor and photograph oil and gas developments from the air with the assistance of amazing pilots like those affiliated with LightHawk and SouthWings.
To this end, I will be returning to West Central Wisconsin for yet another “morning flight” with the aforementioned La Crosse-area pilot and lawyer Tim Jacobson and frequent collaborator University of Wisconsin-Stout professor Tom Pearson.[4] Our flight plan will return us to the northern Wisconsin frac sand counties of Chippewa, Barron, Dunn, Eau Claire, and if we have time we’ll revisit the mines we photographed in August of last year. We’ve been told by Susan Bence, an environmental reporter out of Milwaukee Public Radio, that she is trying to convince the powers that be at NPR in Washington, DC that this is a story the entire country should hear about. Wish us luck!
Flyover Partners
By Ted Auch, Great Lakes Program Coordinator
Bird’s-Eye-View Endnotes
The first of my morning fracking flights was out of this airport back in June, 2012 along with the other passenger on this flight Paul Feezel of Carroll Concerned Citizens and David Beach of the Cleveland Museum of Natural History’s Green City Blue Lakes program.
The Conservancy initially brought at least 30 bison of different ages and genders to Nachusa. The bison graze on approximately 1,500 acres of the prairie and the site currently supports more than 120 bison according to site volunteer naturalist Betty Higby.
I put quotes around this word because in my travels across Ohio interviewing those in the path of these transmission pipelines it is clear that this is not the correct word because ‘proposals’ implies that these pipelines might not happen or are up for debate. Yet, neither could be further from the truth with most folks indicating that it was very clear very early in their interactions with FERC and the pipeline companies that there was never a chance that these pipelines were not going to happen with “imminent domain for private gain” being the common thread throughout my conversations.
Tom is the author of a recently published book on the topic “When the Hills Are Gone.”
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2018/07/Sand-Flyover-Feature.jpg400900Ted Auch, PhDhttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2021/04/2021-FracTracker-logo-horizontal.pngTed Auch, PhD2018-08-08 10:31:522021-04-15 14:57:41Documenting Fracking Impacts: A Yearlong Tour from a Bird’s-Eye-View
Photo by Ted Auch, FracTracker Alliance
What does the petrochemical build out look like in the Ohio River Valley?
Taking photos of pipeline development and recording your observations is a great way to monitor impacts. One tool to use while monitoring is the 
We found 240 private water wells within 1/4 mile of the Falcon.
