The majority of FracTracker’s posts are generally considered articles. These may include analysis around data, embedded maps, summaries of partner collaborations, highlights of a publication or project, guest posts, etc.

Crime and the Utica Shale

June 9, 2014/by Ted Auch, PhD

By Ted Auch, OH Program Coordinator, FracTracker Alliance

No matter where you live in Ohio you have probably asked yourself if crime trends will be – or have already been – affected by the shale gas boom.

To quantify the relationship between crime rates and oil and gas development, we compared 14 OH counties (that have more than 10 Utica permits) to statewide safety metrics. Ohio State Highway Patrol’s Statistical Analysis Unit provided us with the necessary crime data. From this dataset, we chose to analyze several metrics:

a. three types of arrests,
b. two types of violations and accidents, and
c. misdemeanors and suspended licenses (as proxies for changes in safety).

$Image of accident involving truck carrying freshwater for fracking between January 20th and 27th of 2014 during snowstorm adjacent to Seneca Lake, Noble and Guernsey Counties, Ohio adjacent to Antero pad off State Route 147$	$Map of Senaca Lake, OH frackwater truck accident between January 20th and 27th, 2014. Map of the area including producing or drilled Antero wells (Red Points) and laterals along with State Route 147$
Accident involving truck carrying freshwater for fracking between Jan. 20 and 27 of 2014 during snowstorm adjacent to Seneca Lake, Noble and Guernsey Counties, OH adjacent to Antero pad off State Route 147	Map of Senaca Lake, OH Jan 2014 frackwater truck accident including producing or drilled Antero wells (Red Points) and laterals along with State Route 147

Crunching the Data

The data in Table 1 below are corrected for changes in population at the state level (+0.2% per year) and at the county level, with the annualized rate for the counties of interest ranging between -2.2% in Jefferson and -0.05 in Tuscarawas. We used the first four months of 2014 to determine an annualized rate for the rest of 2014. Since the first Utica permit was issued on Sept. 28, 2010, we assumed that the 2009 data would be an close measure for the ambient levels for the nine crime metrics we investigated across Ohio prior to shale gas development.

Statewide Crime Trends

$Overturned frac sand trucks in Carroll County, OH May, 2014 (Courtesy of Carol McIntire, The Free Press Standard)$

Overturned frac sand trucks in Carroll County, OH May, 2014 (Courtesy of Carol McIntire, The Free Press Standard)

Commercial Vehicle Enforcements (CVE) and Crashes Investigated are the only metrics that increase by 8.9% and 6.9% per year, larger than the statewide averages of 2.8% and 6.0%. Respectively, 10 of the 14 shale gas counties have experienced rates that exceed the state average. Noble, Harrison, Columbiana, Carroll, and Monroe are experiencing annualized CVE increases that are 15-57% higher than Ohio as a whole.

Meanwhile, Crashes Investigated are increasing at a slower pace relative to the state wide average, with Carroll, Noble, and Jefferson counties experiencing >5% rate increases relative to the entire state (Table 1). There is a strong increasing linear relationship between the number of Utica permits and the average percent change in CVE and Crashes Investigated. The former accounts for a combined 66% change in the latter. From a macro perspective, the Utica counties accounted for 19.8% of all OH CVEs in 2009 prior to shale gas exploration and now account for 25.1% of all CVEs. Crashes Investigated as a percentage of state totals, however, only increased from 21.3% to 21.7%.

The other variable that is significantly and positively correlated with Utica permitting at the present time is the number of Suspended License reports, with the former explaining 22% of the average annual change in the latter since 2009.

Given that we investigated changes in nine public safety metrics we thought it would be worth categorizing the fourteen counties by state wide averages:

Significantly Less Safe (SLS) – >5 of 9 metrics increasing,
Noticeably Less Safe (NLS) – 4 metrics, and
Marginally Less Safe (MLS) – <3 metrics.

Our findings support that about half the Utica counties fall within the SLS category, with Harrison, Jefferson, Columbiana, and Trumbull experiencing higher relative rates across seven or more of the metrics investigated. Trumbell specifically has had public safety rate increases that are greater than the state in all categories but for Suspended Licenses. Guernsey and Washington counties fall within the NLS category; both are seeing elevated Resisting Arrests and CVEs relative to changes in statewide rates. Surprisingly, Carroll County, home to 404 Utica permits as of the middle of May 2014, falls within the MLS category with only two of nine metrics increasing at a rate that exceeds the state’s. However, the two metrics that are worse than the state average (Crashes Investigated (+21.4%) and CVEs (59.8%)) are increasing at a rate that is significantly higher than the other Ohio Utica counties. Additional MLS counties include Belmont, Portage, and Monroe, which are in the upper, middle, and lower third of Utica permits at the present time.

Conclusion

While correlation does not mean causation, there is a significant correlation between certain public safety metrics and Utica permitting in Ohio’s primary shale gas counties, specifically when looking at Crashes Investigated and CVEs. Additionally, many of the Ohio Utica counties are experiencing notable increases in criminal activity. Whether this trend will continue to increase in the long-term is uncertain, but the short-term trends are concerning given that these counties populations are decreasing; there is more criminal activity within a smaller population. Finally, these trends will differ based on whether or not county sheriffs and emergency responders working with the Ohio State Highway Patrol have the necessary resources and manpower to address increasing criminal activity. This issue is of concern to most southeastern Ohioans regardless of their stance on fracking. We will continue to monitor these relationships and are working to generate a map in the coming months that illustrates these trends.

Table 1. Average percent change in select public safety metrics across Ohio’s primary Utica Shale Counties relative to parallel changes across the state of Ohio between 2009 and 2014.

	Percent Change Between 2009 and 2014^†
	Arrests			Violations
County	Felony	Resisting	OVI	Weapons	Drug	Crashes Investigated	CVE	Misdemeanor Issued	Suspended License
Noble (93, 6^‡)	87.7	0	10.5	16.9	16.8	11.2	50.5	11.8	7.4
Harrison (232, 0)	22.3	0	35.8	0	34.3	10.1	34.7	67.1	33.3
Belmont (102, 2)	12.7	5.5	2.2	17.2	20.3	10.5	4.0	16.6	10.2
Jefferson (39, 1)	50.1	3.6	11.6	43.3	45.9	11.3	12.5	42.0	10.4
Columbiana (103, 0)	20.3	-3.8	6.9	28.9	27.1	7.9	17.8	25.9	10.6
Tuscarawas (16, 6)	41.2	28.9	7.0	0	0.8	7.6	12.0	61.4	3.6
Washington (10, 13)	10.1	52.7	-2.7	47.3	19.8	8.3	4.6	19.2	2.6
Stark (13, 17)	7.3	9.4	0.3	46.4	7.2	6.7	2.6	11.1	-0.5
Trumbull (15, 20)	32.9	18.9	8.6	42.9	42.1	9.3	11.5	41.1	9.4
Mahoning (30, 10)	21.4	20.7	3.6	81.4	31.8	6.0	8.5	27.7	10.2
Portage (15, 19)	80.7	4.5	4.1	85.0	40.3	3.5	1.6	15.5	7.6
Guernsey (99, 5)	22.8	32.9	8.1	14.7	10.4	2.7	11.0	10.8	7.6
Carroll (404, 4)	0	0	-20.2	0	-29.1	21.4	59.8	-30.2	3.8
Monroe (80, 0)	0	0	-4.1	0	0	97.4	50.8	20.4	27.0
County	16.5	4.3	3.5	10.3	17.6	6.9	8.9	17.8	5.8
State	17.4	6.7	7.3	16.5	23.6	6.0	2.8	24.5	10.5
% of State 2009	14.0	17.6	19.3	18.7	16.1	21.3	19.8	17.8	18.4
% of State 2014	12.9	15.2	16.7	16.8	14.0	21.7	25.1	13.1	14.5

^† 2014 annualized using the first 4 months of the year.

^‡ Number of Permitted Utica wells and Class II Salt Water Disposal (SWD) wells as of May, 2014

Fracturing wells and land cover in California

May 29, 2014/by FracTracker Alliance

By Andrew Donakowski, Northeastern Illinois University

Land cover data can play an important role in spatial analysis; satellite or aerial imagery can effectively demonstrate the extent and make-up of land cover characteristics for large areas of land. For fracking analysis, this can be used to explore important spatial relationships between fracking infrastructure and the area and/or ecosystems surrounding them. Working with FracTracker, I have compiled data concerning land cover classifications and geologic rock areas to examine areas that may be particularly vulnerable to unconventional drilling – e.g. fracking. After computing the makeup of land cover type for each geologic area, I then mapped locations of known fracking wells for further analysis. This is part of FracTracker’s ongoing interest in understanding changes in ecosystem services and plant/soil productivity associated with well pads, pipelines, retention ponds, etc.

Developed

First, by looking at the Developed areas (below), we can see that, for the most part, hydraulic fracturing is occurring relatively far from large population areas. (That is to say, on this map we can see that these types of wells are not found as often in areas where population density is high (<20 people per square mile) or a Developed land cover classification is predominate as they are in areas with a lower Develop land cover percentage). However, we can also see that there is quite a large cluster of fracking wells in the southern portion of the state, and many cities fall within 5 or 10 mi of some wells. While there may not be an immediate danger to cities that fall within this radius, we can see that some areas of the state may be more likely to encounter the effects of fracking and its associated infrastructure than others.

Forested

Next, the map depicting Forested land cover areas is, in my opinion, the most aesthetically groovy of the land cover maps; the variations in forested areas throughout the state provide a cool image. By looking at this data, we can see that much of California’s forested land lies in the northern part of the state, while most fracking wells are located in the south and central parts of the state.

Cultivated

To me, the most interesting map is the one below showing the location of fracking wells in relation to Cultivated lands (which includes pasture areas and cropland). What is interesting to note is the fertile Central Valley, where a high percentage of land is covered with agriculture and pasture lands (Note: The Central Valley accounts for 1% of US farmland but 25% of all production by value). Notably, it is also where many fracking wells are concentrated. When one stops to think about this, it makes sense: Farmers and rural landowners are often approached with proposals to allow drilling and other non-farming activities on their land. Yet, it also raises a potential area for concern: A lot of crops grown in this area are shipped across the country to feed a significant number of people. When we consider the uncertainties of fracking on surrounding areas, we must also consider what effects fracking could have beyond the immediate area and think about how fracking could affect what is produced in that area (in this case, it is something as important as our food supply.)

The Usefulness of Maps

Finally, as previously mentioned, mapping the extent of these land coverage can be useful for future analysis. Knowing now the areas of relatively large concentrations of forested, herbaceous, and wetland (which can be highly sensitive to ecological intrusions) areas can be good to know down the line to see if those areas are retreating or if the overall coverage is diminishing. Additionally, by allowing individuals to visualize spatial relationships between fracking areas and land coverage, we can make connections and begin to more closely examine areas that may be problematic. The next step will be: a) parsing forest cover into as many of the six major North American forest types and hopefully stand age, b) wetland type, and c) crop and/or pasture species. All of this will allow us to better quantify the inherent ecosystem services and CO2 capture/storage potential at risk in California and elsewhere with the expansion of the fracking industry. As an example of the importance of the intersection between forest cover and the fracking industry we recently conducted an analysis of frac sand mining polygons in Western Wisconsin and found that 45.8% of Trempealeau County acreage is in agriculture while only 1.8% of producing frac sand mine polygons were in agriculture prior to mining with the remaining acreage forested prior to mining which buttresses our anecdotal evidence that the frac sand mining industry is picking off forested bluffs and slopes throughout the northern extent of the St. Peter Sandstone formation.

A Quick Note on the Data

Datasets for this project were obtained from a few different sources. First, land cover data were downloaded from the National Land cover Classification Database (NLCD) from the Multi-Resolution Land Character Consortium. Geologic data were taken from the United States Geologic Survey (USGS) and their Mineral Resources On-Line Spatial Data. Lastly, locations of fracking wells were taken from the FracTracker data portal, which, in turn, were taken from SkyTruth’s database. Once the datasets were obtained, values from the NLCD data were reclassified to highlight land-coverage types-of-interest using the Raster Calculator tool in ArcMap 10.2.1. Then, shapefiles from the USGS were overlaid on top of the reclassified raster image, and ArcMaps’s Tabulate Area tool was used to determine the extent of land coverage within each geologic rock classification area. Known fracking wells downloaded from FracTracker.org were added to the map for comparative analysis.

About the Author

Andrew Donakowski is currently studying Geography & Environmental Studies, with a focus on Geographic Information Systems (GIS), at Northeastern Illinois University (NEIU) in Chicago, Ill. These maps were created in conjunction with FracTracker’s Ted Auch and NEIU’s Caleb Gallemore as part of a service-learning project conducted during the spring of 2014 aimed at addressing real-world issues beyond the classroom.

Conventional, Non-Vertical Wells in PA

May 19, 2014/by Matt Kelso, BA

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.

Well Worker Safety and Statistics

May 14, 2014/by FracTracker Alliance

By Samantha Malone, MPH, CPH – Manager of Science and Communications, FracTracker Alliance

The population most at risk from accidents and incidents near unconventional drilling operations are the drillers and contractors within the industry. While that statement may seem quite obvious, let’s explore some of the numbers behind how often these workers are in harm’s way and why.

O&G Risks

Fig. 1. Number of oil and gas worker fatalities over time
Data Source: U.S. Bureau of Labor Statistics, U.S. Department of Labor, 2014

Drilling operations, whether conventional or unconventional (aka fracking), run 24 hours a day, 7 days a week. Workers may be on site for several hours or even days at a time. Simply the amount of time spent on the job inherently increases one’s chances of health and safety concerns. Working in the extraction field is traditionally risky business. In 2012, mining, quarrying, and oil and gas extraction jobs experienced an overall 15.9 deaths for every 100,000 workers, the second highest rate among American businesses. (Only Agriculture, forestry, fishing and hunting jobs had a higher rate.)

According to the Quarterly Census of Employment and Wages of the U.S. Bureau of Labor Statistics, the oil and gas industry employed 188,003 workers in 2012 in the U.S., a jump from 120,328 in 2003. Preliminary data indicate that the upward employment trend continued in 2013. However, between 2003 and 2012, a total of 1,077 oil and gas extraction workers were killed on the job (Fig. 1).

Causes of Injuries and Fatalities in Oil and Gas Field

Fig. 2. Reasons for O&G Fatalities 2003-12. Aggregated from Table 1.

Like many industrial operations, here are some of the reasons why oil and gas workers may be hurt or killed according to OSHA:

Vehicle Accidents
Struck-By/ Caught-In/ Caught-Between Equipment
Explosions and Fires
Falls
Confined Spaces
Chemical Exposures

If you drill down to the raw fatality-cause numbers, you can see that the fatal worksite hazards vary over time and job type¹ (Table 1, bottom). Supporting jobs to the O&G sector are at higher risk of fatal injuries than those within the O&G extraction job category². The chart to the right shows aggregate data for years 2003-12. Records indicate that the primary risk of death originated from transportation incidents, followed by situations where someone came into contact with physical equipment (Fig. 2).

Silica Research

Fig. 3. Number of total silica-exposed workers and those exposed above PEL – compared across industries
Source: OSHA Directorate of Standards and Guidance

A recent NIOSH study by Esswein et al. regarding workplace safety for oil and gas workers was that the methods being employed to protect workers against respirable crystalline silica³ were not adequate. This form of silica can be found in the sand used for hydraulic fracturing operations and presents health concerns such as silicosis if inhaled over time. According to Esswein’s research, workers were being exposed to levels above the permissible exposure limit (PEL) of ~0.1 mg/m³ for pure quartz silica because of insufficient respirator use and inadequate technology controls on site. It is unclear at this time how far the dust may migrate from the well pad or sand mining site, a concern for nearby residents of the sand mines, distribution methods, and well pads. (Check out our photos of a recent frac sand mine tour.) The oil and gas industry is not the only employer that must protect people from this airborne workplace hazard. Several other classes of jobs result in exposure to silica dust above the PEL (Fig. 3).

References and Additional Resources

1. What do the job categories in the table below mean?

For the Bureau of Labor Statistics, it is important for jobs to be classified into groups to allow for better reporting/tracking. The jobs and associated numbers are assigned according to the North American Industry Classification System (NAICS).

(NAICS 21111) Oil and Gas Extraction comprises establishments primarily engaged in operating and/or developing oil and gas field properties and establishments primarily engaged in recovering liquid hydrocarbons from oil and gas field gases. Such activities may include exploration for crude petroleum and natural gas; drilling, completing, and equipping wells; operation of separators, emulsion breakers, desilting equipment, and field gathering lines for crude petroleum and natural gas; and all other activities in the preparation of oil and gas up to the point of shipment from the producing property. This industry includes the production of crude petroleum, the mining and extraction of oil from oil shale and oil sands, the production of natural gas, sulfur recovery from natural gas, and the recovery of hydrocarbon liquids from oil and gas field gases. Establishments in this industry operate oil and gas wells on their own account or for others on a contract or fee basis. Learn more

(NAICS 213111) Drilling Oil and Gas Wells comprises establishments primarily engaged in drilling oil and gas wells for others on a contract or fee basis. This industry includes contractors that specialize in spudding in, drilling in, redrilling, and directional drilling. Learn more

(NAICS 213112) Support Activities for Oil and Gas Operations comprises establishments primarily engaged in performing support activities on a contract or fee basis for oil and gas operations (except site preparation and related construction activities). Services included are exploration (except geophysical surveying and mapping); excavating slush pits and cellars, well surveying; running, cutting, and pulling casings, tubes, and rods; cementing wells, shooting wells; perforating well casings; acidizing and chemically treating wells; and cleaning out, bailing, and swabbing wells. Learn more

2. Fifteen percent of all fatal work injuries in 2012 involved contractors. Source

3. What is respirable crystalline silica?

Respirable crystalline silica – very small particles at least 100 times smaller than ordinary sand you might encounter on beaches and playgrounds – is created during work operations involving stone, rock, concrete, brick, block, mortar, and industrial sand. Exposures to respirable crystalline silica can occur when cutting, sawing, grinding, drilling, and crushing these materials. These exposures are common in brick, concrete, and pottery manufacturing operations, as well as during operations using industrial sand products, such as in foundries, sand blasting, and hydraulic fracturing (fracking) operations in the oil and gas industry.

4. OSHA Fact Sheet: OSHA’s Proposed Crystalline Silica Rule: General Industry and Maritime. Learn more

Employee health and safety are protected under the following OSHA regulations. These standards require employers to make sure that the workplace is in due order:

Table 1. 2003-2012 U.S. fatalities in oil & gas industries by year, job category, & event/exposure
Year	Oil and Gas (O&G) Industries^a	Total Fatal Injuries (number)^b	Event or Exposure^c
Year	Oil and Gas (O&G) Industries^a	Total Fatal Injuries (number)^b	Violence / injuries by persons / animals^d	Transportation^e	Fires & Explosions	Falls, Slips, Trips	Exposure to Harmful Substances or Environments	Contact w/Objects & Equipment
2012
	O&G Extraction	26	0	8	6	5	3	4
	Drilling O&G Wells	39	0	10	6	8	3	10
	Support Activities	77	0	46	11	5	3	10
	Yearly Totals	142	0	64	23	18	9	24
2011
	O&G Extraction	13	0	7	0	0	0	3
	Drilling O&G Wells	41	0	15	5	4	5	12
	Support Activities	58	3	29	7	4	4	11
	Yearly Totals	112	3	51	12	8	9	26
2010
	O&G Extraction	12	0	5	3	0	3	0
	Drilling O&G Wells	47	0	8	14	7	6	12
	Support Activities	48	3	28	8	0	0	8
	Yearly Totals	107	3	41	25	7	9	20
2009
	O&G Extraction	12	0	6	0	0	0	3
	Drilling O&G Wells	29	0	9	0	0	4	13
	Support Activities	27	0	12	5	0	4	5
	Yearly Totals	68	0	27	5	0	8	21
2008
	O&G Extraction	21	0	7	4	0	0	5
	Drilling O&G Wells	30	0	6	3	4	4	13
	Support Activities	69	0	36	11	4	6	12
	Yearly Totals	120	0	49	18	8	10	30
2007
	O&G Extraction	15	0	5	0	0	0	5
	Drilling O&G Wells	42	0	12	0	4	8	16
	Support Activities	65	0	33	6	0	5	19
	Yearly Totals	122	0	50	6	4	13	40
2006
	O&G Extraction	22	0	6	7	0	3	4
	Drilling O&G Wells	36	0	11	0	5	4	14
	Support Activities	67	0	2	12	0	5	21
	Yearly Totals	125	0	19	19	5	12	39
2005
	O&G Extraction	17	0	4	5	0	0	4
	Drilling O&G Wells	34	0	9	0	7	4	10
	Support Activities	47	0	21	5	0	5	13
	Yearly Totals	98	0	34	10	7	9	27
2004
	O&G Extraction	29	0	17	0	0	0	8
	Drilling O&G Wells	30	0	6	0	6	3	11
	Support Activities	39	0	22	5	0	0	10
	Yearly Totals	98	0	45	5	6	3	29
2003
	O&G Extraction	17	0	9	4	0	0	3
	Drilling O&G Wells	26	0	5	5	0	0	13
	Support Activities	42	0	17	10	0	3	10
	Yearly Totals	85	0	31	19	0	3	26
2003-12	TOTAL FATALITIES	1077	6	411	142	63	85	282
a	Oil and gas extraction industries include oil and gas extraction (NAICS 21111), drilling oil and gas wells (NAICS 213111), and support activities for oil and gas operations (NAICS 213112).
b	Data in event or exposure categories do not always add up to total fatalities due to data gaps.
c	Based on the BLS Occupational Injury and Illness Classification System (OIICS) 2.01 implemented for 2011 data forward
d	Includes violence by persons, self-inflicted injury, and attacks by animals
e	Includes highway, non-highway, air, water, rail fatal occupational injuries, and fatal occupational injuries resulting from being struck by a vehicle.

Utica Shale Drill Cuttings Production – Back of the Envelope Recipe

May 8, 2014/by Ted Auch, PhD

By Ted Auch, OH Program Coordinator, FracTracker Alliance

Ohio is the only shale gas state in the Marcellus and/or Utica Shale Basin that has decided to go “all in.” i.e. The state is moving forward with shale gas production, Class II Injection Well disposal of brine waste from fracking, and more recently the processing and disposal of drill cuttings/muds via the state’s Solid Waste Disposal (SWD) districts and waste landfills. The latter would fall under the joint ODNR, ODH, and EPA’s September 18, 2012 Solidification and Disposal Activities Associated with Drilling-Related Wastes advisory. It occurred to us that it might be time to try to estimate how much of these materials are produced here in Ohio on a per-well basis using basic math, data gleaned from Ohio’s current inventory of Utica wells and the current inventory of PLAT maps, and some broad assumptions as to the density of Ohio’s geology.

Developing the Estimate

1) Start with a 341 Actual Utica well lateral dataset generated utilizing the ODNR Ohio Oil & Gas Well Database PLAT inventory or the current inventory of 1,137 permitted Utica wells. Generate a Straight Line lateral dataset by converting this data from “XY To Line” with the following summary statistics:

Variable	Actual	Straight Line
#	341	1,137
Minimum	186	50
Maximum	20,295	12,109
Sum	2,196,856	7,190,889
Mean	6,442 ±1,480	6,386 ±1,489
Median	6,428	6,096

2) Average Vertical Depth for 109 Utica wells utilizing data from the ODNR RBDMS Microsoft Access database = 6,819 feet (207,843 centimeters)

Average Lateral + Vertical Footage = 13,205-13,261 total feet (402,488-404,195 centimeters) (Figure 1)

Ohio Utica Shale Actual Vs Straight Line Lateral Lengths

Fig. 1. An example of Actual and Straight Line Utica well laterals in Southeast Carroll County, Ohio

3) We assume a rough diameter of 8″ down to 5″ (20-13 centimeters) for all of 1) and 14″ to 8″ (36-20 centimeters) for the entirety of 2)

4) The density of 1) is roughly 2.61 g cm³ assuming the average of seven regional shale formations (Manger, 1963)

5) None of the materials being drilled through are igneous or metamorphic (limestone, siltstone, sandstone, and coal) thus the density of 2) is all going to be
≈2.75 g cm³

6) The volume of the above is calculated assuming the volume of a cylinder
(i.e., V = hπr²):

Σ of Actual Lateral Length 49,205,721 cm³ * 2.61 g = 128,180,904 g
Σ of Actual Lateral Length 153,991,464 cm³ * 2.75 g = 423,476,526 g

Average Lateral + Vertical Volume = 551,657,430 grams = 1,216,195 pounds =
608 tons of drill cuttings per Utica well * 829 drilled, drilling, or producing wells = 504,113 million tons

To put these numbers into perspective, the average Ohio household of 2.46 people generates about 3,933 pounds of waste per year or 1.78 metric tons.

7) Caveats include:

The coarse assumptions as to density of materials and the fact that these materials experience significant increases in surface area once they have been drilled through.
The assumptions as to pipe diameter could be over or underestimating drill cuttings due to the fact that we know laterals taper as they near their endpoint. We assume 45% of the vertical depth is comprised of 14″ diameter pipe, 40% 11″ diameter pipe, and 15% 8″ pipe. Similarly we assume the same percentage distribution for 8″, 6.5″, and 5″ lateral pipe.

Ohio Drilling Mud Generation and Processing

Caroll-Columbiana-Harrison Ohio Solid Waste District Drilling Muds Processed (January, 2011-April, 2014)

Fig. 2. Month-to-month and cumulative drilling muds processed by CCHSWD, one of six OH SWDs charged with processing shale gas drilling waste from OH, WV, and PA.

Ohio’s primary SWDs responsible for handling the above waste streams – from in state as well as from Pennsylvania and West Virginia – are the six southeastern SWDs along with the counties of Portage and Mahoning according to several anonymous sources. However, when attempting to acquire numbers that speak to the flows/stocks of fracking related SWD waste (i.e., drilling muds) the only district that keeps track of this data is the Carroll-Columbiana-Harrison Solid Waste District (CCHSWD). The CCHSWD’s Director of Administration was generous enough to provide us with this data. According to a month-over-month analysis they have processed 636,450 tons generating a fixed fee of $3.5 per ton or $2.23 million to date (Figure 2). This trend translates into a 1,046-1,571 ton monthly increase depending on how you fit your trend line to the data (i.e., linear Vs power functions) or put another way annual drilling mud increases of 12,546-18,847 tons.

An Open Letter to FracFocus

April 30, 2014/by FracTracker Alliance

FracFocus.org is the preferred chemical disclosure registry for the oil and gas (O&G) industry, and use of your website by the industry is mandated by some states and regulatory agencies. As such, we hope you’ll be responsive to this call by FracTracker, other organizations, and concerned citizens across the country to live up to the standards of accessibility and transparency required by similar data registries.

A Focus on Data Transparency

Recent technological advances in high volume hydraulic fracturing operations have changed the landscape of O&G drilling in the United States. As residents adjust to the presence of large-scale industrial sites appearing in their communities, the public’s thirst for knowledge about what is going on is both understandable and reasonable. The creation of FracFocus was a critical first step down the pathway to government and industry transparency, allowing for some residents to learn about the chemicals being used in their immediate vicinities. The journey, however, is not yet complete.

Design Limitations on FracFocus

Query by Date

Even with the recently added search features there is no way to query reports by date. Currently a visitor would be unable to search by the date hydraulic fracturing / stimulation was performed, or when the report itself was submitted. Reports can only be viewed one PDF at a time, which would take someone quite a while to view all 68,000+ well sites in your system.

Aggregate Data Downloads

In October 2013, you informed us that “each registered state regulatory agency has access to the xml files for their state but they are not distributable from FracFocus to the public.” We must ask the reasonable question of “why not?” We understand that setting up a downloadable data system is a time-intensive process, as we manage one ourselves, but the benefits of providing such a service more than compensate for the effort expended. It is no longer possible to aggregate data, either automatically or manually, because of bandwidth limitations that keep users from downloading more than an arbitrarily limited number of reports in a single session. Considering public concern over the composition of frac fluid, as well as the volume and geographic extent of complaints of drinking water complaints to be related to O&G extraction, prudence would suggest making the data as accessible as possible. For example, making the aggregated data available to the public as a machine-readable download would greatly reduce the load on your servers, because users would no longer be forced to download the individual PDF reports. Changes in the way the reports are curated would also improve efficiency and reduce your server load; we would be more than happy to discuss these changes with you.

An Issue of Money?

The basic infrastructure to provide this service via FracFocus.org is already in place. An organization like the Groundwater Protection Council with a website serving some of the world’s wealthiest corporations loses credibility when making claims that “we have no way to meet your needs for the data.” Withholding data from the public only serves to compound the distrust that many people have with regards to the oil and gas extraction industry. Additionally, agencies that use FracFocus as a means of satisfying open government requirements are currently being short changed by the lack of access to your aggregated datasets; restricting access to data that is in the public interest is fundamentally at odds with data transparency initiatives, including the President’s 2013 Executive Order on Open Data.

One Small Step for a Company…

Within this discussion is a simple realization: The Ground Water Protection Council, Interstate Oil and Gas Compact Commission, participating companies and states, and the federal government should recognize that data transparency is not merely a lofty ideal, but an actual obligation to our open society. Once that realization has been made, the path of least resistance becomes clear: you, FracFocus, should make all of your aggregate data available to the public, beginning with the easiest step: the statewide datasets that are already being provided to government agencies.

FracTracker operates in the public interest. We – and the thousands of individuals and organizations who use our services and yours – request no less from you. Thank you for addressing these critical matters.

Sincerely,
-The FracTracker Alliance-

Geopolitics, Shale Gas, and Pipelines

April 22, 2014/by Ted Auch, PhD

By Ted Auch, OH Program Coordinator, FracTracker Alliance

The “Why?”

Recently, the US has proposed to ship American shale gas abroad to buffer Europe’s 15-30% reliance on Russian gas imports in the face of the annexation of Crimea by Russia – and parallel 80% increases in LNG prices paid by Eastern Europeans to Russia’s Gazprom. The FracTracker map below illustrates all proposed and existing hydrocarbon pipelines across South America, Africa, Europe, the Persian Gulf, and Asia/Russia¹. Creating such a map seems the least we could do given that this conflict has been called the “worst crisis with the West since the end of the Cold War.” The situation in Crimea is a chronic crisis; folks like Oxford University’s Jonathan Stern have suggested:

Ukraine owes Gazprom $2 billion for already delivered hydrocarbons,
Russia can easily turn their supplies to Japan which will pay a premium relative to what they are getting from the European Union, and
The duration of European oil and gas contracts with Gazprom, which extend 15-35 years, can’t be broken (Einhorn, 2014; Henderson and Stern, 2014).

The rhetoric framing here in the US has been lead by – and regurgitated by media outlets such as NPR who suggested “Putin Could Send Europe Scrambling For Energy Sources” – the likes of the Council on Foreign Relations Richard Haass and the Brookings Institution’s Bruce Jones. Both of these entities have the ears of congress domestically and global decision makers at gatherings such as the World Economic Forum in Davos, Switzerland (Gwertzman, 2014; Wade and Rascoe, 2014).

Stepping up hydrocarbon and extraction technologies is not universally espoused:

This is not an immediate-term solution. It’s not even an intermediate-term solution. – Paul Bledsoe, German Marshal Fund, in The New York Times

Fracking is unlikely to reduce gas prices to the extent its proponents desire. – London School of Economics (LSE) (Krauss, 2014; McDonnell, 2014)

Originally, shale gas production was proposed as a way for the US to become “energy independent,” but the dogma has rapidly and in a coordinated fashion shifted to the export of shale gas itself and the technology used to get it out of the ground. This rhetoric is now the focus not just of Washington, DC think tanks but academics (Bordoff, 2014) .

This is a graph depicting global CO2 emissions as a function of per capita Gross Domestic Product (GDP) (US$) across 204 countries CO2 emissions data were gathered from the United Nations Statistics Division (http://unstats.un.org/unsd/ENVIRONMENT/datacollect.htm) and the US Department of Energy's Carbon Dioxide Information Analysis Center (CDIAC) (http://cdiac.ornl.gov/trends/emis/meth_reg.html)

Figure 1a) Global CO2 Per Capita Emissions (Tons) Vs Per Capita Gross Domestic Product (GDP) (US $)

The above regions are ripe for – or currently experiencing – significant political uprisings from the Niger Delta and Venezuela to the percolating anger associated with increasing economic stratification and political elite disconnect in countries like Saudi Arabia, Libya, Yemen, Pakistan, Mediterranean Africa writ large, Sudan, and Oman². Often this discontent is emanating out of citizens’ concerns as to where oil revenues are going and how often the hydrocarbon largesse is concentrated in a handful of political elites and/or oligarchs (Nossiter, 2014). The EIA estimates Russia and China sit atop an estimated 107 billion barrels of shale oil and 1,400 TCF of shale gas. Much of this resource will be required if they are to continue > 2-5% Gross Domestic Product (GDP) growth. The remainder they will undoubtedly use as a cudgel to deflect the west’s suggestions and/or demands within their borders or their “near abroad.” In the case of Russia, the “near abroad” generally refers to the eight former Communist pliable nations – and are incidentally home to nontrivial shale oil and gas reserves – that act as a physical and ideological buffer between them and NATO/European Union states. In an effort to combat the asymmetric hydrocarbon supply and demand issues and secure access to the sizable shale reserves in eastern Europe, the European Union continues to push the European Neighborhood Policy meant to create a “ring of friends”³ – with Ukraine just the latest significant test and the only successes being Tunisia and Moldova (Charlemagne, 2014). With respect to China, their “near abroad” nations include shale oil and gas rich nations like Indonesia, Thailand, Myanmar, Cambodia, and Vietnam, along with ex-Soviet region Central Asian countries which provide China with 80% of its natural gas needs. However, the east-west tug of war has come down to the willingness of the east to offer larger instant loans, cheaper gas, and labor/technology needed to develop pipeline networks. The nexus between these two eastern giants is the proposed – and recently agreed upon – $400 billion Sino-Russian energy cooperation natural gas and oil pipeline. This proposal will stretch across heretofore relatively undisturbed and isolated communities and the ecosystems they have evolved with across the Eurasian Steppe and Siberia (Einhorn, 2014).

This is a graph depicting global CO2 emissions as a function of Oil Consumption Per day (Barrels) across 204 countries CO2 emissions data were gathered from the United Nations Statistics Division (http://unstats.un.org/unsd/ENVIRONMENT/datacollect.htm) and the US Department of Energy's Carbon Dioxide Information Analysis Center (CDIAC) (http://cdiac.ornl.gov/trends/emis/meth_reg.html) Oil consumption data drawn from EnerDatas' World Energy Statistics "Global Energy Statistical Yearbook 2013" (http://yearbook.enerdata.net/)

Figure 1b) Global CO2 Per Capita Emissions (Tons) Vs Oil Consumption Per Day (Barrels) across 204 countries

The fomenting anger and geopolitical combativeness that result from these conditions put the global hydrocarbon transport network at risk. Analogies to R.A. Radford’s The Economic Organization of a P.O.W. Camp can be made here, where the economy that Mr. Radford created flourished until the input stream from the Red Cross stopped. It was at this time that the economy collapsed due to its singular reliance on one input source. Similar analogies exist across emerging, P5+1, and frontier markets worldwide, with many countries largely dependent upon hydrocarbon imports or exports to stoke GDP. Such imports, along with oil consumption, account for 98% of per country CO₂ emissions (Table 1 below, Figure 1a-b). Revolution or even temporary and targeted political instability will fuel the type of hydrocarbon transport/production disruption that will produce the kind of jump condition described by Mr. Radford. A jump condition occurs in situations when suitable hydrocarbon stocks/flows are lost, pipelines are turned off, and alternative transport channels are deemed too perilous. Such a crisis is one that no industrialized or industrializing nation is prepared to manage, making the 2007-08 Financial Crisis look and feel like child’s play. Thus, many private and state actors are proposing new and expanded hydrocarbon pipeline networks to reduce reliance on single-large networks emanating from or traveling through volatile regions. Proposals range from the large Nabucco pipeline proposal connecting Asia and Europe or the Nord Stream AG Baltic Sea Gas Pipeline to small regional or inter-state proposals in Africa, the Persian Gulf, and Eastern Europe.

The “When?”

With this map, which was initiated in January 2014, we have attempted to accurately quantify as many existing and proposed pipeline routes as possible in Europe, Africa, South America, Asia, and the Persian Gulf. We will be updating this map periodically, and it should be noted that all layers are predetermined aggregations of regional pipelines. Given the recent EIA global shale oil and gas estimates, it is only a matter of time before: a) European nations like Germany, Ukraine, Poland, and Romania begin to explore shale gas extraction in the name of “energy independence,” and b) Argentina hands over the proverbial keys to its 16.2-22.5 billion barrels of oil in the Vaca Muerta shale basin to the likes of Shell or Repsol-YPF (Canty, 2011; Gonzalez and Cancel, 2013; Romero and Krauss, 2013; Staff, 2013). This conversation will be accompanied by additional pipeline proposals for inter- and intra-region transport, all of which we will incorporate into this map on a quarterly basis. If you know of proposals that are not currently shown on the map, please let us know.

Table 1. Major Worldwide Flows of Oil (Thousand Barrels Per Day).

Country	Production (a)	Consumption (b)	(b)/(a)	Export	Import
Saudi Arabia	11726	2861	24	8865
United States	11105	18490	167		7386
Russia	10397	3195	31	7201
China	4372	10277	235		5904
Canada	3856	2281	59	1576
Iran	3589	1709	48	1880
UAE	3213	618	19	2595
Iraq	2987	752	25	2235
Mexico	2936	2144	73
Kuwait	2797	383	14	2414
Brazil	2652	2807	106
Nigeria	2524	270	11	2254
Venezuela	2489	777	31	1712
Norway	1902	218	12	1684
Algeria	1875	328	18	1547
Japan		4726			4591
India		3622			2632
Germany		2388			2219
South Korea		2301			2240
France		1740			1668
Indonesia		1590			616
United Kingdom		1503
Angola				1738
Qatar				1389
Kazakhstan				1355
Libya
Singapore					1360
Spain					1260
Italy					1198
Taiwan					1058
Netherlands					949
Turkey					614
Belgium					607

^† Compiled from U.S. Energy Information Administration World Overview (http://www.eia.gov/countries/)

References

Bordoff, J., 2014. Adding Fuel to the Fire: How the American shale gas boom can weaken Russia’s hand in Ukraine, Foreign Policy Magazine, Washington, DC.

Canty, D., 2011. Repsol hails largest ever 927 million bbl oil find, ArabianOilandGas.com. ITP Business Portal.

Charlemagne, 2014. How to be good neighbours: Ukraine is the biggest test of the EU’s policy towards countries on its borderlands, The Economist, London, UK.

Einhorn, B., 2014. How the Ukraine Crisis Could Help Clear Beijing’s Smog, Bloomberg Businessweek. Bloomberg LP, New York, NY.

Gonzalez, P., Cancel, D., 2013. Shell to Triple Argentine Shale Spending as Winds Change, Bloomberg Magazine. Bloomberg LP, New York, NY.

Gwertzman, B., 2014. How to respond to Ukraine’s Crisis, Council on Foreign Relations, Washington, DC.

Henderson, J., Stern, J., 2014. The Potential Impact on Asia Gas Markets of Russia’s Eastern Gas Strategy, Oxford Energy Comment. The Oxford Institute for Energy Studies, Oxford, UK, p. 13.

Klein, N., 2008. The Shock Doctrine: The Rise of Disaster Capitalism. Picador.

Klein, N., 2014. Why US Fracking Companies Are Licking Their Lips Over Ukraine: From climate change to Crimea, the natural gas industry is supreme at exploiting crisis for private gain – what I call the shock doctrine, The Guardian, London, UK.

Krauss, C., 2014. U.S. Gas Tantalizes Europe, but It’s Not a Quick Fix, The New York Times, New York, NY.

McDonnell, A., 2014. Fracking is unlikely to reduce gas prices to the extent its proponents desire, The London School of Economics and Political Science – British Politics and Policy. The London School of Economics, London, UK.

Nossiter, A., 2014. Nigerians Ask Why Oil Funds Are Missing, The New York Times, New York, NY.

Romero, S., Krauss, C., 2013. An Odd Alliance in Patagonia, The New York Times, New York, NY.

Staff, 2013. Argentina’s YPF: Swallowed Pride, The Economist, London, UK.

Wade, T., Rascoe, A., 2014. Global gas trade may soften foreign policy of Russia, China, Reuters, New York, NY.

Footnotes

[1] Last month we wrote about a similar North American Pipeline Proposal map.

[2] The EIA estimates Mediterranean Africa contains 5,772 TCF of estimated wet shale natural gas and 1,373,770 million barrels of oil, the Former Soviet Union 4,738 TCF and 310,567 million barrels, and South America 2,465 TCF and 643,864 million barrels 73% of which is in Brazil and Argentina’s Vaca Muerta.

[3] According to The Economist “The Europeans should also rethink the neighbourhood policy, which lumps together disparate countries merely because they happen to be nearby. In the south it may have to devise a wider concept of its interests stretching out to the Sahel, the Horn of Africa and the Middle East. Here Europe has no real friends, lots of acquaintances and not a few enemies. To the east it needs better ways of helping those who want to move closer to the EU.”

Pipeline Incidents Updated and Analyzed

April 14, 2014/by Matt Kelso, BA

Pipeline spill in Mayflower, AR on March 29, 2013. Photo by US EPA via Wikipedia.

The debate over the Keystone XL pipeline expansion project has grabbed a lot of headlines, but it is just one of several proposed major pipeline projects in the United States. As much of the discussion revolves around potential impacts of the pipeline system, a review of known incidents is relevant to the discussion.

A year ago, the FracTracker Alliance calculated that there was an average of 1.6 pipeline incidents per day in the United Sates. That figure remains accurate, with 2,452 recorded incidents between January 1, 2010 and March 3, 2014, a span of 1,522 days.

The Pipeline and Hazardous Materials Safety Administration (PHMSA) classifies the incidents into three categories:

Gas transmission and gathering: Gathering lines take natural gas from the wells to midstream infrastructure. Transmission lines transport natural gas from the regions in which it is produced to other locations, often thousands of miles away. Since 2010, there have been 486 incidents on these types of lines, resulting in 10 fatalities, 71 injuries, and $620 million in property damage.
Oil and hazardous liquid: This includes all materials overseen by PHMSA other than natural gas, predominantly crude and refined petroleum products. Liquified natural gas is included in this category. There were 1,511 incidents during the reporting period for these pipelines, causing 6 deaths and 15 injuries, and $1.8 billion in property damage.
Gas distribution: These pipelines are used by utilities to get natural gas to consumers. In just over 40 months, there were 455 incidents, resulting in 42 people getting killed, 183 reported injuries, and $86 million in property damage.

Curiously, while incidents on distribution lines accounted for 72 percent of fatalities and 67 percent of all injuries, the property damage in these cases were only responsible for just over 3 percent of $2.5 billion in total property damage from pipeline spills since 2010. A reasonable hypothesis accounting for the deaths and injuries is that distribution lines are much more common in densely populated areas than are the other types of pipelines; an incident that might be fatal in an urban area might go unnoticed for days in more remote locations, for example. However, as the built environment is also much more densely located in urban areas, it does seem surprising that reported property damage isn’t closer to being in line with physical impacts on humans.

How accurate are the data?

In the wake of the events of September 11, 2001, governmental agency data suddenly became much more opaque. In terms of pipelines, public access to the pipeline data that had been mapped to that point was removed. It was later restored, with limitations. As it stands now, most pipeline data in the United States, including the link to the pipeline proposal map above, are intentionally generalized to the point where pipelines might not even be rendered in the appropriate township, let alone street.

There are some exceptions, though. If you would like to know where pipelines are in US waters in the Gulf of Mexcio, for example, the Bureau of Ocean Energy Management makes that data not only accessible to view, but available for download on data.gov, a site dedicated to data transparency. While the PHMSA will not do the same with terrestrial pipelines, the do release location data along with their incident data.

Pipeline incidents from 1/1/2010 through 3/3/2014. To access details, legend, and other map controls, please click the expanding arrows icon in the top-right corner of the map.

This fatal pipeline incident was in Allentown, PA, but was given coordinates in Greenland.

Unfortunately, we see evidence that the data are not well vetted, at least in terms of location. One of the most serious incidents in the timeframe, an explosion in Allentown, Pennsylvania that killed five people and injured three more, was given coordinates that render in the middle of Greenland. Another incident leading to fatalities was given location data that put it in Manatoba, well outside of the reach of the US agency that publishes the data. Still another incident appears to be in the Pacific Ocean, 1,300 miles west-southwest of Mexico. There are many more examples as well, but the majority of incidents seem to be reasonably well located.

Fuzzy data: are national security concerns justified?

Anyone who watches the news on a regular basis knows that there are people out there who mean others harm. However, a closer look at the incident data shows that pipelines are not a common means of accomplishing such an end.

Causes of pipeline incidents from 1/1/10 to 3/3/14, with counts.

For each category showing causation, there are numerous subcategories. While we don’t need to look into all of those here, it is worth pointing out that there is a subcategory of, “other outside force damage” that is designated as, “intentional damage.” Of the 2,452 total incidents, nine incidents fall into this subcategory. These subcategories are further broken down, and while there is an option to express that the incident is a result of terrorism, none have been designated that way in this dataset . Five of the nine incidents are listed as acts of vandalism, however. To be thorough, and because it provides a fascinating insight into work in the field, let’s take a look at the narrative description for each incident that are labeled as intentional in origin:

Approximately 2 bbls of crude oil were released when an unknown person(s) removed the threaded pressure warning device on the scraper trap’s closure door. As a result of the absence of the 1/2 inch pressure warning device crude oil was able to flow from the open port upon start up of the pipeline and pressurization of the scraper trap. Once this was discovered the 1/2 inch pressure warning device was properly put back into the scaper trap.
Aboveground piping intentionally shot by unknown party. Installed stoppall on line at 176+73 (7 146′) upstream of damaged aboveground piping. Cut and capped pipeline.
Friday october 18th at approximately 6:00 p.m. we were notified of a gas line break at Kayenta Mobile Home Park. The Navajo Police responded to an emergency call about vandals in one of the parks alley ways kicking at meters. Upon arrival they found the broke meter riser at the mobile home park and expediently used the emergency shutdown system to remedy the situation. This immediately cut service to 118 customers in the park. [Names removed] responded to the call. we arrived on site at approximately 9:30 p.m. We located the damage and fixed the system at approximately 1:30 a.m. i called the Amerigas emergency call center and informed them that we would be restarting the system the following morning and to tell our customers they would need to be home in order to restore service. We then started the procedure of shutting every valve off to all customers before restarting the system. We started the system back up at 9:30a.m. 10/19/2013. Once the system was up to full pressure and all systems were normal we began putting customers back into service. The completion of re-establishing service to all customers on the system was completed on 10/23/2013.
A service tech was called at 1:15 am Sunday morning to respond to the Marlboro Fire Department at an apparent explosion and house fire. The tech arrived and called for additional resources. He then began to check for migrating gas in the surrounding buildings along the service to the house and in the street. no gas readings were detected. The distribution and service on call personnel arrived and began calling in additional company resources to assist in the response effort and controlling the incident. A distribution crew was called in to shut off and cut the service. Additional service techs were called in to assist in checking the surrounding buildings and in the streets at catch basins and manholes around the entire block. Gas supply personnel were called in and dispatched to take odorant samples in the houses directly across from 15 Grant Ct. that had active gas service. Gas survey crews were called in to survey Grant St. and the two parallel streets McEnelly St. and Washington Ct. along with the portion of Washington st. in between these streets. The meter and meter bar assembly were taken by the investigators as evidence. The service was pressure tested to the riser which was witnessed by a representative of the DPI. The service was cut off at the main. After the investigators completed gathering evidence at the scene they gave permission to begin cleaning up the site. There was a tenant home at the time of the explosion who was conscious and walking around when the fire department arrived. He was taken to the hospital and reports are that he sustained 2nd and 3rd degree burns on portions of his body.
On Friday, September 7, 2012 PSE&G responded to a gas emergency call involving a gas ignition. The initial call came in from the Orange Fire Department at 17:09 as a house fire at 272 Reock Ave Orange; the fire chief stated gas was not involved and the fire was caused by squatters. Subsequent investigation of the incident revealed that the fire was caused when one of the squatters lit a match which ignited leaking gas originating from gas piping removed from the head of an inside meter set. The gas meter inlet valve and associated piping were all removed by an unknown person on an unknown date prior to the fire. An appliance service tech responded and shut the gas off at the curb at 17:40 on September 7 2012. A street crew was dispatched and the gas service to 272 reock ave was cut at the curb at 19:00. Two people (names unknown) squatters were injured one by the fire one was injured jumping out a window to escape the fire. The home in question was vacated by the owner and the injured parties were trespassing on the property at the time of the incident. PSE&G has been unable to confirm any information on the status of their injuries due to patient confidentiality laws.
The homeowner tampered with company piping by removing 3/4″ steel end cap with a 3/4″ steel nipple on the tee was removed which caused the gas leak in the basement and resulted in a flash fire. The most likely source of ignition was the water heater. The homeowner died in the incident.
A structure fire involved an unoccupied hardware store and a small commercial 12-meter manifold. There were no meters on the manifold and no customers lost service. The heat from the structure fire melted a regulator on the manifold which in turn released gas and contributed to the fire. The cause is officially undetermined; however according to the fire department the cause appears to be arson with the fire starting in the back of the building and not from PG&E facilities. PG&E was notified of this incident by the fire department at 1802 hours. The gas service representative arrived on scene at 1830 hours. The fire department stopped the flow of gas by closing the service valve and the fire was extinguished at approximately 1900 hours. this incident was determined to be reportable due to damages to the building exceeding $50,000. There were no fatalities and no injuries as a result of this incident. Local news media was on-site but no major media was present.
A house explosion and fire occurred at approximately 0208 hours on 2/7/10. The fire department called at PG&E at 0213 hours. PG&E personnel arrived at 0245 hours. The fire department had shut off the service valve and removed the meter before PG&E arrived. The house was unoccupied at the time of the explosion. The gas service account was active and the gas service was on (contrary to initial report). The cause of the explosion is undetermined at the time of this report but the fire department has indicated the cause appears to be arson. After the explosion, PG&E performed a leak survey of the service the services on both sides of this address and the gas main in the front of all three of these addresses. No indication of gas was found. PG&E also performed bar hole tests over the service at 3944 17th Avenue and found no indication of gas. The gas service was cut off at the main and will be re-connected when the customer is ready for service.
On Monday, January 25, 2010 at approximately 2:30pm a single-family home at 2022 west 63rd Street Cleveland OH (Cuyahoga County) was involved in an explosion/fire. The gas service line was shut-off at approximately 4:30pm. A leak survey of the main lines and service lines on W. 83rd between Madison and Lorain revealed no indications of gas near the structure. A service leak at 2131 West 83rd Street was detected during the leak survey. This service line was replaced upon discovery. On Tuesday, January 26th, 2010 the service line at 2022 W. 83rd was air tested at operating pressure with no pressure loss. An odor test was conducted at 2028 West 83rd Street. The results of this odor test revealed odor levels well within dot compliance levels. Our investigation revealed an odor complaint at this residence on January 18th. Dominion personnel responded to the call and met with the Cleveland Fire Department. Dominion found the meter disconnected and the meter shut-off valve in the half open position. The shut-off valve was closed by the Dominion technician and secured with a locking device. The technician placed a 3/4 inch plug in the open end of the valve. The technician also attempted to close the curb-slop valve but could not. The service line was then bar hole tested utilizing a combustible gas indicator from the street to the structure. As a result, no leakage was discovered. A second attempt to close the curb box valve on January 19th ended when blockage was discovered in the valve box. The valve box was in the process of being scheduled for excevatlon and shut off by a construction crew at the time of the incident. An investigation of the incident site determined the cause to be arson as approximately 6 inches of service line and the meter shut-off valve (with locking device still intact) detached from the service line were recovered inside the structure.

While several of these narratives do make it seem as if the incidents in question were deliberate, these seem to have been caused by people on the ground, not by some GIS-powered remote effort. Seven of the nine incidents were on distribution lines, which tend to occur in populated areas, where contact with gas infrastructure is in fact commonplace, and six out of those seven incidents occurred inside houses or other structures.

On the other hand, there is a real danger in not knowing where pipelines are located. 237 accidents were due to excavation activities, and 86 others were caused by boats, cars, or other vehicles unrelated to excavation activity. Better knowledge of the location of these pipelines could reduce these numbers significantly.

Water Use in WV and PA

April 4, 2014/by FracTracker Alliance

Water Resource Reporting and Water Footprint from Marcellus Shale Development in West Virginia and Pennsylvania

Report and summary by Meghan Betcher and Evan Hansen, Downstream Strategies; and Dustin Mulvaney, San Jose State University

The use of hydraulic fracturing for natural gas extraction has greatly increased in recent years in the Marcellus Shale. Since the beginning of this shale gas boom, water resources have been a key concern; however, many questions have yet to be answered with a comprehensive analysis. Some of these questions include:

What are sources of water?
How much water is used?
What happens to this water following injection into wells?

With so many unanswered questions, we took on the task of using publically available data to perform a life cycle analysis of water used for hydraulic fracturing in West Virginia and Pennsylvania.

Summary of Findings

Some of our interesting findings are summarized below:

In West Virginia, approximately 5 million gallons of fluid are injected per fractured well, and in Pennsylvania approximately 4.3 million gallons of fluid are injected per fractured well.
Surface water taken directly from rivers and streams makes up over 80% of the water used in hydraulic fracturing in West Virginia, which is by far the largest source of water for operators. Because most water used in Marcellus operations is withdrawn from surface waters, withdrawals can result in dewatering and severe impacts on small streams and aquatic life.
Most of the water pumped underground—92% in West Virginia and 94% in Pennsylvania—remains there, lost from the hydrologic cycle.
Reused flowback fluid accounts for approximately 8% of water used in West Virginia wells.
Approximately one-third of waste generated in Pennsylvania is reused at other wells.
As Marcellus development has expanded, waste generation has increased. In Pennsylvania, operators reported a total of 613 million gallons of waste, which is approximately a 70% increase in waste generated between 2010 and 2011.
Currently, the three-state region—West Virginia, Pennsylvania, and Ohio—is tightly connected in terms of waste disposal. Almost one-half of flowback fluid recovered in West Virginia is transported out of state. Between 2010 and 2012, 22% of recovered flowback fluid from West Virginia was sent to Pennsylvania, primarily to be reused in other Marcellus operations, and 21% was sent to Ohio, primarily for disposal via underground injection control (UIC) wells. From 2009 through 2011, approximately 5% of total Pennsylvania Marcellus waste was sent to UIC wells in Ohio.
The blue water footprint for hydraulic fracturing represents the volume of water required to produce a given unit of energy—in this case one thousand cubic feet of gas. To produce one thousand cubic feet of gas, West Virginia wells require 1-3 million gallons of water and Pennsylvania wells required 3-4 million gallons of water.

Table 1. Reported water withdrawals for Marcellus wells in West Virginia (million gallons, % of total withdrawals, 2010-2012)

Source: WVDEP (2013a). Note: Surface water includes lakes, ponds, streams, and rivers. The dataset does not specify whether purchased water originates from surface or groundwater. As of August 14, 2013, the Frac Water Reporting Database did not contain any well sites with a withdrawal “begin date” later than October 17, 2012. Given that operators have one year to report to this database, the 2012 data are likely very incomplete.

As expected, we found that the volumes of water used to fracture Marcellus Shale gas wells are substantial, and the quantities of waste generated are significant. While a considerable amount of flowback fluid is now being reused and recycled, the data suggest that it displaces only a small percentage of freshwater withdrawals. West Virginia and Pennsylvania are generally water-rich states, but these findings indicate that extensive hydraulic fracturing operations could have significant impacts on water resources in more arid areas of the country.

While West Virginia and Pennsylvania have recently taken steps to improve data collection and reporting related to gas development, critical gaps persist that prevent researchers, policymakers, and the public from attaining a detailed picture of trends. Given this, it can be assumed that much more water is being withdrawn and more waste is being generated than is reported to state regulatory agencies.

Data Gaps Identified

We encountered numerous data gaps and challenges during our analysis:

All data are self-reported by well operators, and quality assurance and quality control measures by the regulatory agencies are not always thorough.
In West Virginia, operators are only required to report flowback fluid waste volumes. In Pennsylvania, operators are required to report all waste fluid that returns to the surface. Therefore in Pennsylvania, flowback fluid comprises only 38% of the total waste which means that in West Virginia, approximately 62% of their waste is not reported, leaving its fate a mystery.
The Pennsylvania waste disposal database indicates waste volumes that were reused, but it is not possible to determine exactly the origin of this reused fluid.
In West Virginia, withdrawal volumes are reported by well site rather than by the individual well, which makes tracking water from withdrawal location, to well, to waste disposal site very difficult.
Much of the data reported is not publically available in a format that allows researchers to search and compare results across the database. Many operators report injection volumes to FracFocus; however, searching in FracFocus is cumbersome – as it only allows a user to view records for one well at a time in PDF format. Completion reports, required by the Pennsylvania Department of Environmental Protection (PADEP), contain information on water withdrawals but are only available in hard copy at PADEP offices.

In short, the true scale of water impacts can still only be estimated. There needs to be considerable improvements in industry reporting, data collection and sharing, and regulatory enforcement to ensure the data are accurate. The challenge of appropriately handling a growing volume of waste to avoid environmental harm will continue to loom large unless such steps are taken.

Report Resources

Complete Report | Webinar

This report was written on behalf of Earthworks and was funded by a Network Innovation Grant from the Robert & Patricia Switzer Foundation.

This FracTracker article is part of the Water Use Series

Finding PA Department of Environmental Protection Data

March 28, 2014/by FracTracker Alliance

Data transparency is a major issue in the oil and gas world. Some states in the U.S. do not make the location or other details associated with wells easy to find. If one is looking for Pennsylvania data, however, the basic datasets are quite accessible. The PA Department of Environmental Protection (DEP) maintains several datasets on unconventional drilling activity in the Commonwealth and provides this information online and free of charge to the public. The following databases are ones that we commonly use to update our maps and perform data analyses:

1. Wells Drilled (Spudded)

2. Permitted Wells

3. O&G Violations

Search Criteria

Below are tips for how to search the PA DEP’s records and download datasets if you would like:

Dates

Date ranges must be entered in these databases in order to narrow down the search. We suggest starting with 1/1/2000 through current if you would like to see all unconventional activity to date.

County, Municipality, Region, and Operator

This criteria can be further refined by selecting particular counties, regions, etc.

Unconventional Only

For all datasets, “Unconventional Only – Yes” should be selected if you are only interested in the wells that have been drilled into unconventional shale formations and hydraulically fractured, or “fracked.”

“Unconventional” definitions according to PA Code, Chapter 78:

Unconventional well — A bore hole drilled or being drilled for the purpose of or to be used for the production of natural gas from an unconventional formation.

Unconventional formation — A geological shale formation existing below the base of the Elk Sandstone or its geologic equivalent stratigraphic interval where natural gas generally cannot be produced at economic flow rates or in economic volumes except by vertical or horizontal well bores stimulated by hydraulic fracture treatments or by using multilateral well bores or other techniques to expose more of the formation to the well bore.

Download

Once search criteria have been defined, click View Report to see the most up to date information compiled below. From there, the file can be downloaded in different formats, such as a PDF or Excel file.

Visit this page to see all of the oil and gas reports that the PA DEP issues.