In this forest fragmentation analysis, FracTracker looked at existing vegetation height in the northern portion of Pennsylvania’s Susquehanna River Basin. The vegetation height data is available from LANDFIRE, a resource used by multiple federal agencies to assess wildfire potential by categorizing the vegetation growth in 30 by 30 meter pixels into different categories. In the portion of Pennsylvania’s Susquehanna Basin where we looked, there were 29 total categories based on vegetation height. For ease of analysis, we have consolidated those into eight categories, including roads, developed land, forest, herbs, shrubs, crops, mines and quarries, and open water.
We compared the ratio of the total number of each pixel type to the type that was found at vertical and horizontal wells in the region. In this experiment, we hypothesized that we would see evidence of deforestation in the areas where oil and gas development is present. Per our correspondence with LANDFIRE staff, the vegetation height data represents a timeframe of about 2014, so in this analysis, we focused on active wells that were drilled prior to that date. We found that the pixels on which the horizontal wells were located had a significantly different profile type than the overall pixel distribution, whereas conventional wells had a more modest departure from the general characteristics of the region.
Figure 1 – Vegetation profile of the northern portion of Pennsylvania’s Susquehanna River Basin. The area is highly impacted by O&G development, a trend that is likely to continue in the coming years.
In Figure 1, we see that the land cover profile where vertical wells (n=6,198) are present is largely similar to the overall distribution of pixels for the entire study area (n=40,897,818). While these wells are more than six times more likely to be on areas classified as mines, quarries, or barren, it is surprising that the impact is not even more pronounced. In terms of forested land, there is essentially no change from the background, with both at about 73%. However, the profile for horizontal wells (n=3,787) is only 51% forested, as well as being four times more likely than the background to be categorized as herbs, which are defined in this dataset as having a vegetation height of around one meter.
Why Aren’t the Impacts Even More Pronounced?
While the impacts are significant, particularly for horizontal wells, it is a bit surprising that evidence of deforestation isn’t even more striking. We know, for example, that unconventional wells are usually drilled in multi-well pads that frequently exceed five acres of cleared land, so why aren’t these always classified as mines, quarries, and barren land, for example? There are several factors that can help to explain this discrepancy.
First, it must be noted that at 900 square meters, each pixel represents almost a quarter of acre, so the extent of these pixels will not always match with the area of disturbance. And in many cases, the infrastructure for older vertical wells is completely covered by the forest canopy, so that neither well pad nor access road is visible from satellite imagery.
The map above shows horizontal and vertical wells in a portion of Centre County, Pennsylvania, an area within our study region. Note that many of the vertical wells, represented by purple dots, appear to be in areas that are heavily forested, whereas all of the horizontal wells (yellow dots) are on a defined well pad in the lower right part of the frame. Panning around to other portions of Centre County, we find that vertical wells are often in a visible clearing, but are frequently near the edge, so that the chances of the 30 by 30 meter pixel that they fall into is much more likely to be whatever it would have been if the well pad were not there.
We must also consider that this dataset has some limitations. First of all, it was built to be a tool for wildfire management, not as a means to measure deforestation. Secondly, there are often impacts that are captured by the tool that were not exactly on the well site. For this reason, it would make sense to evaluate the area around the well pad in future versions of the analysis.
Figure 2 – A close up of a group of wells in the study area. Note that the disturbed land (light grey) does not always correspond exactly with the well locations.
In Figure 2, we see a number of light grey areas –representing quarries, strip mines, and gravel pits –with an O&G well just off to the side. Such wells did not get classified as being on deforested land in this analysis.
And finally, after clarifying the LANDFIRE metadata with US Forest Service personnel involved in the project, we learned that while the map does represent vegetation cover circa 2014, it is actually build on satellite data collected in 2001, which has subsequently been updated with a detailed algorithm. However, the project is just beginning a reboot of the project, using imagery from 2015 and 2016. This should lead to much more accurate analyses in the future.
Why Forest Fragmentation Matters
The clearing of forests for well pads, pipelines, access roads, and other O&G infrastructure that has happened to date in the Susquehanna Basin is only a small fraction of the planned development. The industry operates at full capacity, there could be tens of thousands of new unconventional wells drilled on thousands of well pads in the region through 2030, according to estimates by the Nature Conservancy. They have also calculated an average of 1.65 miles of gathering lines from the well pad to existing midstream infrastructure. With a typical right-of-way being 100 feet wide, these gathering lines would require clearing 20 acres. It isn’t unusual for the total disturbance for a single well pad and the associated access road to exceed ten acres, making the total disturbance about 30 acres per well pad. Based on the vegetation distribution of the region, we can expect that 22 of these acres, on average, are currently forested land. Taking all of these factors into consideration, a total disturbance of 100,000 to 200,000 acres in Pennsylvania’s Susquehanna River Basin due to oil and gas extraction, processing, and transmission may well be a conservative estimate, depending on energy choices we make in the coming years.
This forest fragmentation has a number of deleterious effects on the environment. First, many invasive plant species, such as bush honeysuckle and Japanese knotweed, tend to thrive in recently disturbed open areas, where competing native plants have been removed. The practice also threatens numerous animal species that thrive far from the forest’s edge, including a variety of native song birds. The disturbed lands create significant runoff into nearby rivers and streams, which can have an impact on aquatic life. And the cumulative release of carbon into the atmosphere is staggering – consider that the average acre of forest in the United States contains 158,000 pounds of organic carbon per acre. As the area is 73% forested, the total cumulative impact could result in taking 5.8 to 11.6 million tons of organic carbon out of forested storage. Much of this carbon will find its way into the atmosphere, along with the hydrocarbons that are purposefully being extracted from drilling operations.
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2017/06/Forest-Fragmentation-Feature.jpg400900Matt Kelso, BAhttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2019/10/Fractracker-Color-Logo.jpgMatt Kelso, BA2017-06-06 10:09:452020-03-12 15:52:31Forest Fragmentation and O&G Development in PA’s Susquehanna Basin
In March 2015, the National Fuel Gas Supply Corporation and Empire Pipeline Company filed a joint application with the Federal Energy Resource Commission (FERC) to construct a new natural gas pipeline and related infrastructure, known collectively as the Northern Access Project (NAPL). The pricetag on the project is $455 million, and is funded through international, as well as local, financial institutions. The Public Accountability Initiative recently produced a report detailing the funding for this pipeline project, entitled “The Power Behind the Pipeline“.
The proposed Northern Access Project consists of a 97-mile-long, 24” pipe that would carry Marcellus Shale gas from Sergeant Township (McKean County), PA, to the Porterville Compressor Station in the Town of Elma (Erie County), NY. Nearly 69% of the proposed main pipeline will be co-located in existing pipeline and power line rights-of-way, according to FERC. The agency says this will streamline the project and reduce the need to rely on eminent domain to most efficiently route the project.
A $42 million, 15,400 horsepower Hinsdale Compressor Station along the proposed pipeline route was completed in 2015. In addition to the pipeline itself, the proposed project includes:
Additional 5,350 HP compression at the existing Porterville Compressor Station, a ten-fold increase of the capacity of that station
A new 22,214 HP compressor station in Pendleton (Niagara County), NY
Two miles of pipeline in Pendleton (Niagara County), NY
A new natural gas dehydration facility in Wheatfield (Niagara County), NY
An interconnection with the Tennessee Gas Pipeline in Wales (Erie County), NY, as well as tie-ins in McKean, Allegany, and Cattaraugus counties
A metering, regulation and delivery station in Erie County
Mainline block valves in McKean, Allegany, Cattaraugus and Erie counties; and
Access roads and contractor/staging yards in McKean, Allegany, Cattaraugus and Erie counties
The above map shows the proposed pipeline (green) and related infrastructure (bright pink). The pale yellow and pink lines on the map are the existing pipelines that the Northern Access Project would tie into. Click here to explore the map fullscreen.
National Fuel maintains that the goal of the proposed project would be to supply multiple markets in Western New York State and the Midwest. The project would also supply gas for export to Canada via the Empire Pipeline system, and New York and New England through the Tennessee Gas Pipeline 200 Line. The company anticipates that the project would be completed by late 2017 or early 2018. Proponents are hoping that NAPL will keep fuel prices low, raise tax revenues, and create jobs.
Push-back against this project has been widespread from citizens and environmental groups, including Sierra Club and RiverKeeper. This is despite an environmental assessment ruling in July 2016 that FERC saw no negative environmental impacts of the project. FERC granted a stamp of approval for the project on February 4, 2017.
Concerns about the Proposed Pipeline
The Bufffalo-Niagara Riverkeeper, asserts that the project presents multiple threats to environmental health of the Upper Lake Erie and Niagara River Watersheds. In their letter to FERC, they disagreed with the Commission’s negative declaration that the project would result in “no significant impact to the environment.” The pipeline construction will require crossings of 77 intermittent and 60 perennial streams, 19 of which are classified by the New York State Department of Environmental Conservation (NYS DEC) as protected trout streams. Twenty-eight of the intermittent streams impacted also flow into these protected streams. Resulting water quality deterioration associated with bank destabilization, increased turbidity, erosion, thermal destabilization of streams, and habitat loss is likely to impact sensitive native brook trout and salamanders. Riverkeeper found that National Fuel’s plan on how to minimize impacts to hundreds of wetlands surround the project area was insufficient. FERC’s Environmental Assessment of the project indicated that approximately 1,800 acres of vegetation would affected by the project.
Several groups have also taken issue with the proposed project’s plan to use the “dry crossing” method of traversing waterways. Only three crossings will be accomplished using horizontal directional drilling under the stream bed — a method that would largely protect the pipes from dynamic movement of the stream during floods. The rest will be “trenched” less than 5 feet below the stream bed. Opponents of the project point out that NYSDEC, federal guidelines, and even industry itself discourage pipe trenching, because during times of high stream flow, stream scour may expose the pipes to rocks, trees, and other objects. This may lead to the pipes leaking, or even rupturing, impacting both the natural environment, and, potentially, the drinking water supply.
A December 2016 editorial to The Buffalo News addressed the impacts that the proposed Northern Access Project could have to the Cattaraugus Creek Basin Aquifer, the sole source of drinking water for 20,000 residents in surrounding Cattaraugus, Erie, and Wyoming counties in New York. In particular, because the aquifer is shallow, and even at the surface in some locations, it is particularly vulnerable to contamination. The editorial took issue with the absence of measures in the Environmental Assessment that could have explored how to protect the aquifer.
Other concerns include light and noise pollution, in addition to well-documented impacts on climate change, created by fugitive methane leakage from pipelines and compressors.
NYSDEC has held three public hearings about the project already: February 7th at Saint Bonaventure University (Allegany, NY), February 8th at Iroquois High School (Elma, NY), February 9th at Niagara County Community College (Sanborn, NY). The hearing at Saint Bonaventure was attended by nearly 250 people.
While FERC approved the project on February 4, 2017, the project still requires approvals from NYSDEC – including a Section 401 Water Quality Certification. These decisions have recently been pushed back from March 1 to April 7.
Proponents for the project – particularly the pipefitting industry – have emphasized that it would create up to 1,700 jobs during the construction period, and suggested that because of the experience level of the construction workforce, there would be no negative impacts on the streams. Other speakers emphasized National Fuel’s commitment to safety and environmental compliance.
Seneca Nation President Todd Gates expressed his concerns about the gas pipeline’s impacts on Cattaraugus Creek, which flows through Seneca Nation land (Cattaraugus Indian Reservation), and is downstream from several tributaries traversed by the proposed pipeline. In addition, closer to the southern border of New York State, the proposed pipeline cuts across tributaries to the Allegheny River, which flows through the Allegany Indian Reservation. One of New York State’s primary aquifers lies beneath the reservation. The closest that the proposed pipeline itself would pass about 12 miles from Seneca Nation Territory, so National Fuel was not required contact the residents there.
Concerns about Wheatfield dehydration facility & Pendleton compressor station
According to The Buffalo News, National Fuel has purchased 20 acres of land from the Tonawanda Sportsmen’s Club. The company is building two compressors on this property, totaling 22,000 HP, to move gas through two miles of pipeline that are also part of the proposed project, but 23 miles north of the primary stretch of newly constructed pipeline. Less than six miles east of the Pendleton compressor stations, a dehydration facility is also proposed. The purpose of this facility is to remove water vapor from the natural gas, in accordance with Canadian low-moisture standards. According to some reports from a National Fuel representative, the dehydration facility would run only a few days a year, but this claim, has not been officially confirmed.
Residents of both Pendleton and Wheatfield have rallied to express their concerns about both components of the project, citing potential impacts on public health, safety, and the environment relating to air and water quality.
Northern Access Project Next Steps
The deadline for public comment submission is 5 pm on February 24, 2017 — less than two weeks away. To file a comment, you can either email NYS DEC directly To Michael Higgins at NFGNA2016Project@dec.ny.gov, or send comments by mail to NYS DEC, Attn. Michael Higgins, Project Manager, 625 Broadway, 4th Floor, Albany, NY 12233.
Note: this article originally stated that the Porterville Compressor Station would double its capacity as a result of the NAPL project. In fact, the capacity increase would be ten-fold, from 600 hp to about 6000 hp. We regret this error.
By Wendy Park, senior attorney with the Center for Biological Diversity
If the Bureau of Land Management (BLM) gets its way, large areas of Mississippi’s Bienville and Homochitto national forests will be opened up to destructive fracking. This would harm one of the last strongholds for the rare and beautiful red-cockaded woodpecker, create a new source of climate pollution, and fragment our public forests with roads, drilling pads and industrial equipment. That’s why we’re fighting back.
My colleagues and I at the Center for Biological Diversity believe that all species, great and small, must be preserved to ensure a healthy and diverse planet. Through science, law and media, we defend endangered animals and plants, and the land air, water, and climate they need. As an attorney with the Center’s Public Lands Program, I am helping to grow the “Keep It in the Ground” movement, calling on President Obama to halt new leases on federal lands for fracking, mining, and drilling that only benefit private corporations.
That step, which the president can take without congressional approval, would align U.S. energy policies with its climate goals and keep up to 450 billion tons of greenhouse gas pollution from entering the atmosphere. Already leased federal fossil fuels will last far beyond the point when the world will exceed the carbon pollution limits set out in the Paris Agreement, which seeks to limit warming to 1.5 °C above pre-industrial levels. That limit is expected to be exceeded in a little over four years. We simply cannot afford any more new leases.
Fracking Will Threaten Prime Woodpecker Habitat
In Mississippi, our concerns over the impact of fracking on the rare red-cockaded woodpecker and other species led us to administratively protest the proposed BLM auction of more than 4,200 acres of public land for oil and gas leases the Homochitto and Bienville national forests. The red-cockaded woodpecker is already in trouble. Loss of habitat and other pressures have shrunk its population to about 1% of its historic levels, or roughly 12,000 birds. In approving the auction of leases to oil and gas companies, BLM failed to meet its obligation to protect these and other species by relying on outdated forest plans, ignoring the impact of habitat fragmentation, not considering the effects of fracking on the woodpecker, and ignoring the potential greenhouse gas emissions from oil and gas taken from these public lands. The public was also not adequately notified of BLM’s plans.
Mississippi National Forests, Potential BLM Oil & Gas Leasing Parcels, and Red Cockaded Woodpecker Sightings
According to the National Forest Service’s 2014 Forest Plan Environmental Impact Statement, core populations of the red-cockaded woodpecker live in both the Bienville and Homochitto national forests, which provide some of the most important habitat for the species in the state. The Bienville district contains the state’s largest population of these birds and is largely untouched by oil and gas development. The current woodpecker population is far below the target set by the U.S. Fish and Wildlife Service’s recovery plan. A healthy and fully recovered population will require large areas of mature forest. But the destruction of habitat caused by clearing land for drilling pads, roads, and pipelines will fragment the forest, undermining the species’ survival and recovery.
New leasing will likely result in hydraulic fracturing and horizontal drilling. In their environmental reviews, BLM and the Forest Service entirely ignore the potential for hydraulic fracturing and horizontal drilling to be used in the Bienville and Homochitto national forests and their effects on the red-cockaded woodpecker. Fracking would have far worse environmental consequences than conventional drilling. Effects include increased pollution from larger rigs; risks of spills and contamination from transporting fracking chemicals and storing at the well pad; concentrated air pollution from housing multiple wells on a single well pad; greater waste generation; increased risks of endocrine disruption, birth defects, and cardiology hospitalization; and the risk of earthquakes caused by wastewater injection and the hydraulic fracturing process (as is evident in recent earthquakes in Oklahoma and other heavily fracked areas).
Greenhouse Gas Emissions and Climate Change
Oil and gas development also results in significant greenhouse gas emissions from construction, operating fossil-fuel powered equipment during production, reclamation, transportation, processing and refining, and combustion of the extracted product. But BLM and the Forest Service have refused to analyze potential emissions or climate change effects from new leasing. Climate change is expected to worsen conditions for the woodpecker, compounding the harms of destructive drilling practices. Extreme weather events will become more frequent in the Southeast U.S. as temperatures rise. Hurricane Katrina resulted in significant losses of woodpecker habitat and birds in the Mississippi national forests. The Forest Service should be redoubling its efforts to restore and preserve habitat, but instead it is turning a blind eye to climate change threats.
At a time when world leaders are meeting in Morocco to discuss the climate crisis and scientists tell us we already have enough oil and gas fields operating to push us past dangerous warming thresholds, it’s deeply disturbing that the Obama administration continues to push for even more oil and gas leases on America’s public lands. The BLM’s refusal to acknowledge and analyze the effects of fracking on the climate, at-risk species, and their habitat, is not only inexcusable it is illegal. The science is clear: The best way to address catastrophic warming — and protect wildlife — is to keep fossil fuels in the ground.
OH Utica Production, Water Usage, and Waste Disposal by County Part II of a Multi-part Series
By Ted Auch, Great Lakes Program Coordinator, FracTracker Alliance
In this part of our ongoing “Water-Energy Nexus” series focusing on Water and Water Use, we are looking at how counties in Ohio differ between how much oil and gas are produced, as well as the amount of water used and waste produced. This analysis also highlights how the OH DNR’s initial Utica projections differ dramatically from the current state of affairs. In the first article in this series, we conducted an analysis of OH’s water-energy nexus showing that Utica wells are using an ave. of 5 million gallons/well. As lateral well lengths increase, so does water use. In this analysis we demonstrate that:
Drillers have to use more water, at higher pressures, to extract the same unit of oil or gas that they did years ago,
Where production is relatively high, water usage is lower,
As fracking operations move to the perimeter of a marginally productive play – and smaller LLCs and MLPs become a larger component of the landscape – operators are finding minimal returns on $6-8 million in well pad development costs,
Market forces and Muskingum Watershed Conservancy District (MWCD) policy has allowed industry to exploit OH’s freshwater resources at bargain basement prices relative to commonly agreed upon water pricing schemes.
At current prices1, the shale gas industry is allocating < 0.27% of total well pad costs to current – and growing – freshwater requirements. It stands to reason that this multi-part series could be a jumping off point for a more holistic discussion of how we price our “endless” freshwater resources here in OH.
In an effort to better understand the inter-county differences in water usage, waste production, and hydrocarbon productivity across OH’s 19 Utica Shale counties we compiled a data-set for 500+ Utica wells which was previously used to look at differenced in these metrics across the state’s primary industry players. The results from Table 1 below are discussed in detail in the subsequent sections.
Table 1. Hydrocarbon production totals and per day values with top three producers in bold
It will come as no surprise to the reader that OH’s Utica oil and gas production is being led by Carroll County, followed distantly by Harrison, Noble, Belmont, Guernsey and Columbiana counties. Carroll has produced 3.7 million barrels of oil to date, while the latter have combined to produce an additional 4.5 million barrels. Carroll wells have been in production for nearly 67,000 days2, while the aforementioned county wells have been producing for 42,886 days. The remaining counties are home to 49 wells that have been in production for nearly 8,800 days or 7% of total production days in Ohio.
Combined with the state’s remaining 49 producing wells spread across 13 counties, OH’s Utica Shale has produced 8.3 million barrels of oil as well as 251,844,311 Mcf3 of natural gas and 5.4 million barrels of brine. Oil and natural gas together have an estimated value of $2.99 billion ($213 million per quarter)4 assuming average oil and natural gas prices of $96 per barrel and $8.67 per Mcf during the current period of production (2011 to Q2-2014), respectively.
Potential Revenue at Different Severance Tax Rates:
Current production tax, 0.5-0.8%: $19 million ($1.4 Million Per Quarter (MPQ). At this rate it would take the oil and gas industry 35 years to generate the $4.6 billion in tax revenue they proposed would be generated by 2020.
Proposed, 1% gas and 4% oil: At Governor Kasich’s proposed tax rate, $2.99 billion translates into $54 million ($3.9 MPQ). It would still take 21 years to return the aforementioned $4.6 billion to the state’s coffers.
The bottom-line is that a production tax of 11-25% or more ($24-53 MPQ) would be necessary to generate the kind of tax revenue proposed by the end of 2020. This type of O&G taxation regime is employed in the states of Alaska and Oklahoma.
From an outreach and monitoring perspective, effects on air and water quality are two of the biggest gaps in our understanding of shale gas from a socioeconomic, health, and environmental perspective. Pulling out a mere 1% from any of these tax regimes would generate what we’ll call an “Environmental Monitoring Fee.” Available monitoring funds would range between $194,261 and $1.8 million ($16 million at 55%). These monies would be used to purchase 2-21 mobile air quality devices and 10-97 stream quantity/quality gauges to be deployed throughout the state’s primary shale counties to fill in the aforementioned data gaps.
On a per-day oil production basis, Belmont and Columbiana (20 barrels per day (BPD)) are overshadowed by Washington (59 BPD) and Muskingum (40 BPD) counties’ four giant Utica wells. Carroll is able to maintain such a high level of production relative to the other 15 counties by shear volume of producing wells; Noble (268 BPD), Guernsey (147 BPD), and Harrison (136 BPD) counties exceed Carroll’s production on a per-day basis. The bottom of the league table includes three oil-free wells in Ashland, Knox, and Medina, as well as seventeen <10 BPD wells in Jefferson and Mahoning counties.
With respect to natural gas, Harrison (1,840 Mcf per day (MPD)) and Guernsey counties are replaced by Monroe (7,348 MPD) and Jefferson (2,447 MPD) counties’ 26 Utica wells. The range of production rates for natural gas is represented by the king of natural gas producers, Belmont County, producing 8,578 MPD on the high end and Mahoning and Coshocton counties in addition to the aforementioned oil dry counties on the low end. Four of the five oil- or gas-dry counties produce the least amount of brine each day (BrPD). Coshocton, Medina, and Noble county Utica wells are currently generating 267-363 barrels of BrPD, with an additional seven counties generating 100-200 BrPD. Only four counties – 1.2% of OH Utica wells – are home to unconventional wells that generate ≤ 30 BrPD.
Freshwater is needed for the hydraulic fracturing process during well stimulation. For counties where we had compiled a respectable sample size we found that Monroe and Noble counties are home to the Utica wells requiring the greatest amount of freshwater to obtain acceptable levels of productivity (Figure 1). Monroe and Noble wells are using 10.6 and 8.8 million gallons (MGs) of water per well. Coshocton is home to a well that required 10.8 MGs, while Muskingum and Washington counties are home to wells that have utilized 10.2 and 9.5 MGs, respectively. Belmont, Guernsey, and Harrison reflect the current average state of freshwater usage by the Utica Shale industry in OH, with average requirements of 6.4, 6.9, and 7.2 MGs per well. Wells in eight other counties have used an average of 3.8 (Mahoning) to 5.4 MGs (Tuscarawas). The counties of Ashland, Knox, and Medina are home to wells requiring the least amount of freshwater in the range of 2.2-2.9 MGs. Overall freshwater demand on a per well basis is increasing by 220,500-333,300 gallons per quarter in Ohio with percent recycled water actually declining by 00.54% from an already trivial average of 6-7% in 2011 (Figure 2).
Figure 1. Average water usage (gallons) per Utica well by county
Figure 2. Average water usage (gallons) on per well basis by OH Utica Shale industry, shown quarterly between Q3-2010 & Q2-2014.
Belmont County’s 30+ Utica wells are the least efficient with respect to oil recovery relative to freshwater requirements, averaging 7,190 gallons of water per gallon of oil (Figure 3). A distant second is Jefferson County’s 14 wells, which have required on average 3,205 gallons of water per gallon of oil. Columbiana’s 26 Utica wells are in third place requiring 1,093 gallons of freshwater. Coshocton, Mahoning, Monroe, and Portage counties are home to wells requiring 146-473 gallons for each gallon of oil produced.
Belmont County’s 14 Utica wells are the least efficient with respect to natural gas recovery relative to freshwater requirements (Figure 4). They average 1,306 gallons of water per Mcf. A distant second is Carroll County’s 250+ wells, which have injected 520 gallons of water 7,000+ feet below the earth’s service to produce a single Mcf of natural gas. Muskingum’s Utica well and Noble County’s 39 wells are the only other wells requiring more than 100 gallons of freshwater per Mcf. The remaining nine counties’ wells require 15-92 gallons of water to produce an Mcf of natural gas.
Figure 3. Average water usage (gallons) per unit of oil (gallons) produced across 19 Ohio Utica counties
Figure 4. Average water usage (gallons) per unit of gas produced (Mcf) across 19 Ohio Utica counties
The aforementioned Jefferson wells are the least efficient with respect to waste vs. product produced. Jefferson wells are generating 12,728 gallons of brine per gallon of oil (Figure 5).6 Wells from this county are followed distantly by the 32 Belmont and 26 Columbiana county wells, which are generating 5,830 and 3,976 gallons of brine per unit of oil.5 The remaining counties (for which we have data) are using 8-927 gallons of brine per unit of oil; six counties’ wells are generating <38 gallons of brine per gallon of oil.
Figure 5. Average brine production (gallons) per gallon of oil produced per day across 19 Ohio Utica Counties
The average Utica well in OH is generating 820 gallons of fracking waste per unit of product produced. Across all OH Utica wells, an average of 0.078 gallons of brine is being generated for every gallon of freshwater used. This figure amounts to a current total of 233.9 MGs of brine waste produce statewide. Over the next five years this trend will result in the generation of one billion gallons (BGs) of brine waste and 12.8 BGs of freshwater required in OH. Put another way…
233.9 MGs is equivalent to the annual waste production of 5.2 million Ohioans – or 45% of the state’s current population.
Due to the low costs incurred by industry when they choose to dispose of their fracking waste in OH, drillers will have only to incur $100 million over the next five years to pay for the injection of the above 1.0 BGs of brine. Ohioans, however, will pay at least $1.5 billion in the same time period to dispose of their municipal solid waste. The average fee to dispose of every ton of waste is $32, which means that the $100 million figure is at the very least $33.5 million – and as much as $250.6 million – less than we should expect industry should be paying to offset the costs.
In summary, there are two ways to look at the potential “energy revolution” that is shale gas:
Using the same traditional supply-side economics metrics we have used in the past (e.g., globalization, Efficient Market Hypothesis, Trickle Down Economics, Bubbles Don’t Exist) to socialize long-term externalities and privatize short-term windfall profits, or
We can begin to incorporate into the national dialogue issues pertaining to watershed resilience, ecosystem services, and the more nuanced valuation of our ecosystems via Ecological Economics.
The latter will require a more real-time and granular understanding of water resource utilization and fracking waste production at the watershed and regional scale, especially as it relates to headline production and the often-trumpeted job generating numbers.
We hope to shed further light on this new “environmental accounting” as it relates to more thorough and responsible energy development policy at the state, federal, and global levels. The life cycle costs of shale gas drilling have all too often been ignored and can’t be if we are to generate the types of energy our country demands while also stewarding our ecosystems. As Mark Twain is reported to have said “Whiskey is for drinking; water is for fighting over.” In order to avoid such a battle over the water-energy nexus in the long run it is imperative that we price in the shale gas industry’s water-use footprint in the near term. As we have demonstrated so far with this series this issue is far from settled here in OH and as they say so goes Ohio so goes the nation!
A Moving Target
Figure 6. ODNR projection map of potential Utica productivity from spring 2012
OH’s Department of Natural Resources (ODNR) originally claimed a big red – and nearly continuous – blob of Utica productivity existed. The projection originally stretched from Ashtabula and Trumbull counties south-southwest to Tuscarawas, Guernsey, and Coshocton along the Appalachian Plateau (See Figure 6).
However, our analysis demonstrates that (Figures 7 and 8):
This is a rapidly moving target,
The big red blob isn’t as big – or continuous – as once projected, and
It might not even include many of the counties once thought to be the heart of the OH Utica shale play.
This last point is important because counties, families, investors, and outside interests were developing investment and/or savings strategies based on this map and a 30+ year timeframe – neither of which may be even remotely close according to our model.
Figure 7a. An Ohio Utica Shale oil production model using Kriging6 for Q1-2013
Figure 7b. An Ohio Utica Shale oil production model using Kriging for Q2-2014
Figure 8a. An Ohio Utica Shale gas production model using Kriging for Q1-2013
Figure 8b. An Ohio Utica Shale gas production model using Kriging for Q2-2014
$4.25 per 1,000 gallons, which is the current going rate for freshwater at OH’s MWCD New Philadelphia headquarters, is 4.7-8.2 times less than residential water costs at the city level according to Global Water Intelligence.
Carroll County wells have seen days in production jump from 36-62 days in 2011-2012 to 68-78 in 2014 across 256 producing wells as of Q2-2014.
One Mcf is a unit of measurement for natural gas referring to 1,000 cubic feet, which is approximately enough gas to run an American household (e.g. heat, water heater, cooking) for four days.
Assuming average oil and natural gas prices of $96 per barrel and $8.67 per Mcf during the current period of production (2011 to Q2-2014), respectively
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2014/11/Nexus2-Feature.png400900Ted Auch, PhDhttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2019/10/Fractracker-Color-Logo.jpgTed Auch, PhD2014-11-17 17:00:262020-03-12 14:24:14The Water-Energy Nexus in Ohio, Part II
Like most states, the data from the Pennsylvania Department of Environmental Protection do not explicitly tell you which wells have been hydraulically fractured. They do, however, designate some wells as unconventional, a definition based largely on the depth of the target formation:
An unconventional gas well is a well that is drilled into an Unconventional formation, which is defined as a geologic shale formation below the base of the Elk Sandstone or its geologic equivalent where natural gas generally cannot be produced except by horizontal or vertical well bores stimulated by hydraulic fracturing.
Naturally occurring karst in Cumberland County, PA. Photo by Randy Conger, via USGS.
While Pennsylvania has been producing oil and gas since before the Civil War, the arrival of unconventional techniques has brought greater media scrutiny, and at length, tougher regulations for Marcellus Shale and other deep wells. We know, however, that some companies are increasingly looking at using the combination of horizontal drilling and hydraulic fracturing in much shallower formations, which could be of greater concern to those reliant upon well water than wells drilled into deeper unconventional formations, such as the Marcellus Shale. The chance of methane or fluid migration through karst or other natural fissures in the underground rock formations increase as the distance between the hydraulic fracturing activity and groundwater sources decrease, but the new standards for unconventional wells in the state don’t apply.
The following chart summarizes data for wells through May 16, 2014 that are not drilled vertically, but that are considered to be conventional, based on depth:
These wells are listed as conventional, but are not drilled vertically.
Note that there have already been more horizontal wells in this group drilled in 2014 than any previous year, showing that the trend is increasing sharply.
Of the 26 horizontal wells, 12 are considered oil wells, five are gas wells, five are storage wells, three are combination oil and gas, and one is an injection well. These 177 wells have been issued a total of 97 violations, which is a violation per well ratio of 62 percent. 429 permits in have been issued in Pennsylvania to date for non-vertical wells classified as conventional. Greene county has the largest number of horizontal conventional wells, with eight, followed by Bradford (5) and Butler (4) counties.
We can also take a look at this data in a map view:
Conventional, non-vertical wells in Pennsylvania. Please click the expanding arrows icon at the top-right corner to access the legend and other map controls. Please zoom in to access data for each location.
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2014/05/PA_CNV_BlogFeature.png5151004Matt Kelso, BAhttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2019/10/Fractracker-Color-Logo.jpgMatt Kelso, BA2014-05-19 16:10:222014-05-19 16:10:22Conventional, Non-Vertical Wells in PA
This post has been archived. It is provided here for informational purposes only.
People often want to know which operators perform the best (or worst) among their peers in terms of adhering to the laws set forth in a given state. In principle, the easiest metric for determining this is to look at the ratio of violations issued per well, or VpW.
However, in order to make that analysis, we would obviously need to have violations data. Unfortunately, out of the twenty states that we have shale viewers for on FracMapper, we only have violations data for Arkansas, Colorado, and Pennsylvania, with the latter being far and away more robust and complete when compared to the other two. We have been told that the data is also available for North Dakota as well, if we are willing to pay for it, so we might be able to perform a VpW analysis for the Peace Garden State in the near future.
Then, of course, there is the realization that, “What is a violation?” is actually somewhat of a philosophical question in Pennsylvania. In the past, I’ve determined that the Pennsylvania Department of Environmental Protection (PADEP) uses the number of unique violation ID numbers issued to calculate their totals. However, historically, the department would often lump several issues that showed up on the Compliance Report together under the same violation ID. Others have taken to looking at Notices of Violations (NOV’s), which are more limited in number. Still others exclude any violations marked as being administrative in nature, an idea that makes sense superficially, but a closer look at the data shows that the label is extremely misleading. For example, “Pits and tanks not constructed with sufficient capacity to contain pollutional substances” is an administrative violation, as is, “Improper casing to protect fresh groundwater”.
In addition to all of that, the cast of operators is constantly shifting as new operators come on board, old ones get bought out by rivals, joint ventures are formed between them, and the like. Sometimes a parent company will shift the active operator status to one of its subsidiaries, so wells that were originally Consol will then be listed under CNX, for example.
In terms of violations per well, there is a further complication, in that all of the drilled wells data reflect the current custodians of the wells, whereas the violations data reflect those that received the violations. The result is that there are records issued for Turm Oil (really!) for wells where Chesapeake is now listed as the operator. In some respects, this makes sense: why should Chesapeake carry the burden of the legacy mistakes of Turm in their compliance record?
But it does make analysis somewhat tricky. My approach has been to combine operators that are obviously the same parent company, and to do the analysis in several different ways, and over different time frames. Who’s ready for some numbers?
Violations per Well (VpW) for operators of unconventional wells in Pennsylvania with 50 or more wells. Those operators with scores higher than the average of their peers are highlighted in pink.
Here, violations per well are based on the number of violation ID’s issued, where as NOVpW is based on the number of Notices of Violations. The date range for this table is from January 1, 2000 through October 21, 2013, and please note that the totals represent those that are included on the chart, not statewide totals. A lot of violations are lost of the shuffle when we look at only the largest current operators, but it also helps eliminate some of the noise that can be generated with small sample sizes, as well as with the inconsistencies described above. Here’s a look at data from this year:
Violations per Well (VpW) for operators with unconventional wells in Pennsylvania in 2013, through October 21. Those operators with scores higher than on violation per well or NOV per well are highlighted in pink.
Notice that the highest violations per well and notices of violations per well scores are much higher than the data aggregated since 2000, whereas the statewide averages of the two scores are actually much lower. The former is almost certainly attributable to having a smaller sample size, but there is something else at play with the latter:
Violations per well of Pennsylvania’s unconventional wells. 2013 data through 10/21/2013.
The number of violations per well drilled has been steadily decreasing since 2009, and it is now down to an average of less than one violation issued per every two wells. There is nothing in the data that indicates why this is the case, however.
Note: This post was edited on 12/18/2013. The table showing operators violations per well and NOV’s per well in 2013 originally stated that that values higher than the average of their peers are highlighted in pink. In fact, only those with values of 1.00 or higher are highlighted in that fashion.
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2013/10/WetzelCo_truck.jpg250610Matt Kelso, BAhttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2019/10/Fractracker-Color-Logo.jpgMatt Kelso, BA2013-10-29 11:12:202019-07-19 06:47:44Violations per Well Among PA Operators
A few years ago, the Department of Conservation and Natural Resources (DCNR), the agency responsible for state park and state forest lands throughout Pennsylvania, published maps on their website showing which state forest lands had been leased for the purpose of unconventional oil and gas exploration and development. Not only has that page been taken down, but the data are also not among the hundreds of Pennsylvania-specific datasets available on the Pennsylvania Spatial Data Access (PASDA), to which DCNR is a key contributor.
This data does still exist though, and it was provided to the FracTracker Alliance from DCNR upon request, along with data showing areas of the state forest where unconventional oil and gas rights are owned by the state, which is not always the case. However, this fulfillment of our data request came with some strings attached:
I understand that the accuracy of this data set and its boundaries cannot be guaranteed and should not be considered precise.
I will not distribute raw data to other entities outside the scope of this request.
I will annually provide the Bureau of Forestry with a status update of the project activities and findings. If the project is abandoned, I will provide the Bureau of Forestry copies of the available information from the project.
I will provide the Bureau of Forestry with copies of draft reports, articles, publications and so forth that result from this analysis.
If requested, I agree to supply the Bureau of Forestry with copies of data analysis.
I understand that the Bureau of Forestry or the Commonwealth of Pennsylvania is not relinquishing any rights or interests with this agreement.
Obviously, this ties our hands with regards to making the data available for download, either through the download section of our site, or through ArcGIS Online, but we feel as if the scope of our request was worded in such a way as to allow us to produce a map of these layers, and make that available for public viewing. Readers interested in obtaining similar data will have to contact DCNR directly, until the agency decides to release the data regarding Pennsylvania’s public lands without conditions.
We have combined this data with drilling data from the Pennsylvania Department of Environmental Protection, so that we can finally take a closer look at drilling on public lands in Pennsylvania, including an approximation of which wells are drilled on lands have been leased by the state, and which by third parties. So with all appropriate disclaimers, here is that map:
Drilled unconventional wells in Pennsylvania and control of mineral rights on state forest land. To access full controls, such as legends, layer controls, and layer descriptions, please click the expanding arrows in the top-right corner of the map.
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2013/10/severed-and-leased.png5671082Matt Kelso, BAhttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2019/10/Fractracker-Color-Logo.jpgMatt Kelso, BA2013-10-09 12:42:362015-06-10 12:13:05Leases and Severed Rights in PA’s State Forests
By Kyle Ferrar, CA Program Coordinator, FracTracker Alliance
Environmental regulations in California are considered conservative by most state standards. To name a few practices, the state has developed an air quality review board that conducts independent toxicological assessments on a level competitive with the U.S. EPA, and the state instituted the U.S.’s first green house gas cap and trade program. But most recently the California Department of Conservation’s Division of Oil, Gas and Geothermal Resources (DOGGR) has been criticized in the media for its lack of monitoring of hydraulic fracturing activity. DOGGR has been responsive to criticism and preemptive of legislative action and has begun a full review of all well-sites in California to identify which wells have been hydraulically fractured and plan to monitor future hydraulic fracturing. Additionally they have maintained historical records of all wells drilled, plugged, and abandoned in the state in web-accessible databases, which include data for oil and gas, geothermal, and injection wells, as well as other types of support wells such as pressure maintenance, steam flood etc.. The data is also viewable in map format on the DOGGR’s online mapping system (DOMS).
To understand what is missing from the DOGGR dataset, it was compared to the dataset extracted from FracFocus.org by SkyTruth. The map “Hydraulic Fracturing in California” compares these two datasets, which can be viewed individually or together as one dataset with duplicates removed. It is interesting to note the SkyTruth dataset categorizes 237 wells as hydraulically fractured that DOGGR does not, and identifies three wells (API #’s 11112215, 23727206, and 10120788) not identified in the DOGGR database. For the some of these 237 wells, DOGGR identifies them as new, which means they were recently drilled and hydraulically fractured and DOGGR will be updating their database. Many are identified as active oil and gas wells., while the rest are identified as well types other than oil and gas. Also the SkyTruth dataset from FracFocus data contains additional information about each well-site, which DOGGR does not provide. This includes volumes of water used for hydraulic fracturing and the fracture date, both of which are vital pieces of monitoring information.
The California State Legislature is currently reviewing California Senate Bill 4 (CA SB 4) written by Sen. Fran Pavley (D-Agoura Hills), which would put in place a regulatory structure for permitting and monitoring hydraulic fracturing and other activity. A caveat for acidification is also included that would require companies to obtain a specific permit from the state before acidizing a well. The bill has received criticism from both industry and environmentalists. While it does not call for a moratorium or regulate what chemicals are used, it is the first legislation that requires a full disclosure of all hydraulic fracturing fluid additives, including those considered proprietary. This is the last of at least seven bills on the issue, the majority of which have been turned down by lawmakers. The most conservative bills (Assemblywoman Mitchell; D-Culver City) proposed moratoriums on hydraulic fracturing in the state. Earlier this year lawmakers approved a bill (Sen. Pavley; D-Agoura Hills) that would direct the state to complete and independent scientific risk assessment of hydraulic fracturing. The bill directs permitters to deny permits if the study is not finished by January 1, 2015, and also requires public notice before drilling as well as disclosure of chemicals (besides those considered proprietary). In May, a bill (Sen. Wold; D-Davis) was passed requiring drillers to file a $100,000 indemnity bond for each well, with an optional blanket indemnity bond of $5 million for operators with over 20 wells. Another bill (Jackson; D-Santa Barbara) that would require monitoring of both transportation and disposal of wastewater was tabled until next year.
Although hydraulic fracturing has been conducted in California for over a decade, it was not monitored or regulated, and the majority of Californians were not aware of it. Industry groups have portrayed the lack of attention as a testament to its environmental neutrality, but Californians living smack dab in the middle of the drilling tend to tell a different story. The issue is now receiving attention because hydraulic fracturing is such a hotbed topic of contention, along with the potential future of the billions of barrels of oil in the Monterey Shale. The unconventional extraction technology necessary to recover the oil from these deep shale formations is state of the art, which means it is not tried and true. The methods include a combination of high tech approaches, such as horizontal drilling, high volume hydraulic fracturing, and acidification to name a few. Realize: if this technology existed for the last 60 years, the Monterey Shale would already have been developed long ago, along with the rest of the U.S. deep shale formations.
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2013/08/California-Hydraulic-Fracturing-Map.jpg558493Kyle Ferrar, MPHhttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2019/10/Fractracker-Color-Logo.jpgKyle Ferrar, MPH2013-08-23 20:37:582017-10-25 12:02:15Keeping Track of Hydraulic Fracturing in California
By Kyle Ferrar, CA Program Coordinator, FracTracker Alliance
The FracTracker Alliance has just recently opened a new office based out of Berkeley, California. As a first step in addressing the unique issues of oil and gas extraction in the Golden State, FracTracker has queried the data that is published by the state’s regulatory agencies, and has translated those datasets into various maps that highlight specific issues. As a first step in this process, FracTracker transcribed the well-site data that is publicly available from the California Department of Conservation’s (DOC) Division of Oil, Gas and Geothermal Resources (DOGGR).
This first phase of analysis is presented in FracMapper on the California page, here. FracTracker has translated the entire DOGGR database into a map layer that can be viewed on the California Shale Viewer map, here. The California Shale Viewer will be continuously updated to map the expanding oil and gas development as it occurs. Featured map layers on the California Shale Viewer focus on hydraulic fracturing in the state of California. The hydraulic fracturing well-site data comes from two sources. First, the layer “CA Hydraulically Fractured Wells Identified by DOGGR” portrays the maps identified by regulatory agency as having been hydraulically fractured. The DOGGR is aware that their dataset is not complete in terms of identifying all wells that have been hydraulically fractured. The second source of data is from our friends at SkyTruth, and provided in the layer “CA Hydraulically Fractured Wells Identified by SkyTruth”. Using a crowd-source platform, SkyTruth has generated a dataset based on the information reported to FracFocus.org. FracFocus.org refuses to provide aggregated datasets of their well-site data. These hydraulically fractured well-sites can be viewed as a individual datasets in the California Shale Viewer, or as a combined layer in the map “California Hydraulically Fractured and Conventional Oil and Gas Wells” map, where you are also able to view the dataset of wells FracFocus identifies as hydraulically fractured, but DOGGR does not.
More information concerning the many different types of wells drilled in California and the status of these wells (whether they are planned, active, idle or plugged) can be found in the “Well Type” map and “Well Status” map, also available on the FracTracker California page.
The FracTracker Alliance got its start by monitoring the Marcellus Shale in Pennsylvania in the summer of 2010. Since then, many things have changed, including increased interest in shale deposits in a variety of formations throughout the country. We have been attempting to keep current in a variety of states, as requests come in for us to do so. To that end, we have recently added shale viewers for Oklahoma, Virginia, and Wyoming:
Oklahoma Shale Viewer
Oklahoma shale viewer, including layers depicting shale wells and Class II injection wells. To access full controls, click the “Fullscreen” button.
Virginia Shale Viewer
Virginia shale viewer, including layers depicting horizontal permits and drilled wells.
Wyoming Shale Viewer
Wyoming shale viewer, including layers depicting horizontal wells and Class II disposal wells.
As always, be sure to click on the “About” tool to learn more about the data. And keep an eye out for data related to these three states to be added to our data page in the coming days.
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2019/10/Fractracker-Color-Logo.jpg00Matt Kelso, BAhttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2019/10/Fractracker-Color-Logo.jpgMatt Kelso, BA2013-06-26 13:43:402015-06-10 12:16:00New Maps for Oklahoma, Virginia, and Wyoming
FracTracker Alliance studies, maps, and communicates the risks of oil and gas development to protect our planet and support the renewable energy transformation.