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13 - Evaluation of Potential Water Quality Impacts in Unconventional Oil and Gas Extraction

The Application of Elemental Ratio Approaches to Pennsylvania Pre-Drill Data

from Part III - Case Studies

Published online by Cambridge University Press:  28 July 2022

By
Daniel J. Bain ,
Tetiana Cantlay ,
Rebecca Tisherman  and
John F. Stolz
Edited by
John Stolz ,
Daniel Bain  and
Michael Griffin
John Stolz
Affiliation:
Duquesne University, Pittsburgh
Daniel Bain
Affiliation:
University of Pittsburgh
Michael Griffin
Affiliation:
Carnegie Mellon University, Pennsylvania
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Summary

Historical data can be used to evaluate water impacts from unconventional oil and gas extraction. “Grey” literature measurements of water quality before, during, and after unconventional extraction activities offer a potentially powerful resource for the evaluation of water quality impacts, and these data have rapidly expanded with regulatory response to the unconventional boom. However, historical data are limited in the variety of measured constituents and require substantial effort to reconstruct, revisit, and re-evaluate. Ultimately, available data were limited as data from only a single county (Bradford) included constituents necessary to use the vast majority of these elemental ratio systems. Further, even when data were available, they were often measured with relatively poor sensitivity, precluding their use as early indicators of contamination. This case study accentuates the continued need to establish background conditions, particularly in regions that have accumulated historical impacts, and further, ensure these characterizations incorporate sensitive testing for known chemistries associated with emerging and novel processes.

Keywords

mass ratio analysisbromideproduced watermine drainage
Type
Chapter
Information
Environmental Impacts from the Development of Unconventional Oil and Gas Reserves , pp. 313 - 339
Publisher: Cambridge University Press
Print publication year: 2022

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References

Abualfaraj, N, Gurian, PL, and Olson, MS. (2014). Characterization of Marcellus Shale flowback water. Environmental Engineering Science. 31(9): 514–524 DOI: 10.1089/ees.2014.0001.Google Scholar
Akob, DM, Cozzarelli, IM, Dunlap, DS, Rowan, EL, and Lorah, MM (2015). Organic and inorganic composition and microbiology of produced waters from Pennsylvania shale gas wells. Applied Geochemistry. 60: 116–125 DOI: 10.1016/j.apgeochem.2015.04.011.CrossRefGoogle Scholar
Birdsell, DT, Rajaram, H, Dempsey, D, and Viswanathan, HS (2015). Hydraulic fracturing fluid migration in the subsurface: A review and expanded modeling results. Water Resources Research. 51(9): 7159–7188.CrossRefGoogle Scholar
Blauch, ME, Myers, RR, Moore, T, Lipinski, BA, and Houston, NA (2009). Marcellus shale post-frac flowback waters-Where is all the salt coming from and what are the implications? In SPE Eastern Regional Meeting, Society of Petroleum Engineers.Google Scholar
Blondes, MS, Gans, KD, Engle, MA, Kharaka, YK, Reidy, ME, Saraswathula, V, Thordsen, JJ, Rowan, EL, and Morrissey, EA. (2018). U.S. Geological Survey National Produced Waters Geochemical Database (ver. 2.3, January 2018) Available at www.sciencebase.gov/catalog/item/59d25d63e4b05fe04cc235f9Google Scholar
Brantley, S (2018). Shale Network Data: Consortium for Universities for the Advancement of Hydrologic Sciences, Inc. (CUAHSI). DOI: 10.4211/his-data-shalenetwork.Google Scholar
Brantley, SL, Yoxtheimer, D, Arjmand, S, Grieve, P, Vidic, R, Pollak, J, Llewellyn, GT, Abad, J, and Simon, C (2014). Water resource impacts during unconventional shale gas development: The Pennsylvania experience. International Journal of Coal Geology. 126: 140–156 DOI: 10.1016/j.coal.2013.12.017.CrossRefGoogle Scholar
Burgos, WD, Castillo-Meza, L, Tasker, TL, Geeza, TJ, Drohan, PJ, Liu, X, Landis, JD, Blotevogel, J, McLaughlin, M, Borch, T et al. (2017). Watershed-scale impacts from surface water disposal of oil and gas wastewater in western Pennsylvania. Environmental Science & Technology. 51(15): 8851–8860 DOI: 10.1021/acs.est.7b01696.CrossRefGoogle ScholarPubMed
Cantlay, T, Bain, DJ, Curet, J, Jack, RF, Dickson, BC, Basu, P, and Stolz, JF (2020a). Determining conventional and unconventional oil and gas well brines in natural sample II: Cation analyses with ICP-MS and ICP-OES. Journal of Environmental Science and Health, Part A. 55(1): 11–23 DOI: 10.1080/10934529.2019.1666561.CrossRefGoogle ScholarPubMed
Cantlay, T, Bain, DJ, and Stolz, JF (2020b). Determining conventional and unconventional oil and gas well brines in natural samples III: Mass ratio analyses using both anions and cations. Journal of Environmental Science and Health, Part A. 55(1): 24–32 DOI: 10.1080/10934529.2019.1666562.CrossRefGoogle ScholarPubMed
Cantlay, T, Eastham, JL, Rutter, J, Bain, DJ, Dickson, BC, Basu, P, and Stolz, JF (2020c). Determining conventional and unconventional oil and gas well brines in natural samples I: Anion analysis with ion chromatography. Journal of Environmental Science and Health, Part A. 55(1): 1–10 DOI: 10.1080/10934529.2019.1666560.CrossRefGoogle ScholarPubMed
Capo, RC, Stewart, BW, Rowan, EL, Kohl, CAK, Wall, AJ, Chapman, EC, Hammack, RW, and Schroeder, KT (2014). The strontium isotopic evolution of Marcellus Formation produced waters, southwestern Pennsylvania. International Journal of Coal Geology. 126: 57–63.Google Scholar
Chapman, EC, Capo, RC, Stewart, BW, Kirby, CS, Hammack, RW, Schroeder, KT, and Edenborn, HM (2012). Geochemical and strontium isotope characterization of produced waters from Marcellus Shale natural gas extraction. Environmental Science & Technology. 46(6): 3545–3553.CrossRefGoogle ScholarPubMed
Clark, CE, Burnham, AJ, Harto, CB, and Horner, RM (2012). Introduction: The Technology and Policy of Hydraulic Fracturing and Potential Environmental Impacts of Shale Gas Development. Taylor & Francis.Google Scholar
Colborn, T, Kwiatkowski, C, Schultz, K, and Bachran, M (2011). Natural gas operations from a public health perspective. Human and Ecological Risk Assessment: An International Journal. 17(5): 1039–1056.Google Scholar
Cravotta, CA (2008). Dissolved metals and associated constituents in abandoned coal-mine discharges, Pennsylvania, USA. Part 1: Constituent quantities and correlations. Applied Geochemistry. 23(2): 166–202 DOI: 10.1016/j.apgeochem.2007.10.011.Google Scholar
Dilmore, RM, Sams, JI III, Glosser, D, Carter, KM, and Bain, DJ (2015). Spatial and temporal characteristics of historical oil and gas wells in Pennsylvania: Implications for new shale gas resources. Environmental Science & Technology. 49(20): 12015–12023.CrossRefGoogle ScholarPubMed
Dresel, PE and Rose, AW. (2010). Chemistry and origin of oil and gas well brines in western Pennsylvania. Pennsylvania Geological Survey (Fourth series): 56.Google Scholar
Entrekin, S, Trainor, A, Saiers, J, Patterson, L, Maloney, K, Fargione, J, Kiesecker, J, Baruch-Mordo, S, Konschnik, K, and Wiseman, H (2018). Water stress from high-volume hydraulic fracturing potentially threatens aquatic biodiversity and ecosystem services in Arkansas, United States. Environmental Science & Technology. 52(4): 2349–2358.Google Scholar
Fracktracker Alliance. (2020). Pennsylvania Shale Viewer. Pennsylvania Shale Viewer Available at: www.fractracker.org/map/us/pennsylvania/pa-shale-viewer [Accessed une 10, 2020]Google Scholar
Harkness, JS, Darrah, TH, Warner, NR, Whyte, CJ, Moore, MT, Millot, R, Kloppmann, W, Jackson, RB, and Vengosh, A (2017). The geochemistry of naturally occurring methane and saline groundwater in an area of unconventional shale gas development. Geochimica et Cosmochimica Acta. 208: 302–334 DOI: 10.1016/j.gca.2017.03.039.Google Scholar
Harrison, SS (1983). Evaluating system for ground‐water contamination hazards due to gas‐well drilling on the glaciated Appalachian Plateau. Groundwater. 21(6): 689–700.Google Scholar
Hayes, T (2009). Sampling and Analysis of Water Streams Associated with the Development of Marcellus Shale Gas. Final Report. Prepared for Marcellus Shale Coalition (Formerly the Marcellus Shale Committee).Google Scholar
Hopey, D (2011). DEP reviewing permit for hauler charged with illegal dumping. Pittsburgh Post-Gazette.Google Scholar
Johnson, JD, Graney, JR, Capo, RC, and Stewart, BW (2015). Identification and quantification of regional brine and road salt sources in watersheds along the New York/Pennsylvania border, USA. Applied Geochemistry. 60: 37–50.CrossRefGoogle Scholar
Kadlec, J, StClair, B, Ames, DP, and Gill, RA (2015). WaterML R package for managing ecological experiment data on a CUAHSI HydroServer. Ecological Informatics. 28: 19–28.CrossRefGoogle Scholar
Kargbo, DM, Wilhelm, RG, and Campbell, DJ (2010). Natural gas plays in the Marcellus shale: Challenges and potential opportunities. ACS Publications.Google Scholar
Kim, S, Omur-Ozbek, P, Dhanasekar, A, Prior, A, and Carlson, K (2016). Temporal analysis of flowback and produced water composition from shale oil and gas operations: Impact of frac fluid characteristics. Journal of Petroleum Science and Engineering. 147: 202–210 DOI: 10.1016/j.petrol.2016.06.019.CrossRefGoogle Scholar
Lane, MK and Landis, WG. (2016). An Evaluation of the Hydraulic Fracturing Literature for the Determination of Cause–Effect Relationships and the Analysis of Environmental Risk and Sustainability. In Environmental and Health Issues in Unconventional Oil and Gas Development Elsevier; 151–173.Google Scholar
Lloyd, OB Jr. and Carswell, LD. (1981). Groundwater resources of the Williamsport region, Lycoming County, Pennsylvania. Water Resource Report 51. Pennsylvania Geological Survey.Google Scholar
Miller, BA (2020). Unconventional oil and gas: Interactions with and implications for groundwater. In Regulating Water Security in Unconventional Oil and Gas, Buono, RM, López Gunn, E, McKay, J, and Staddon, C (eds.) Springer International Publishing, pp. 267–290. DOI: 10.1007/978-3-030-18342-4_13.Google Scholar
Milliken, P (2013). Brine dumper agrees to cooperate with U.S. Attorney. Youngstown Vindicator.Google Scholar
Mrdjen, I and Lee, J. (2016). High volume hydraulic fracturing operations: potential impacts on surface water and human health. International Journal of Environmental Health Research. 26(4): 361–380.Google Scholar
Olawoyin, R, McGlothlin, C, Conserve, DF, and Ogutu, J (2016). Environmental health risk perception of hydraulic fracturing in the US. Cogent Environmental Science. 2(1): 1209994.Google Scholar
Pennsylvania Department of Environmental Protection, Bureau, of Oil and Gas Management. (1991). NORM Survey Summary.Google Scholar
Phan, TT, Capo, RC, Stewart, BW, Macpherson, GL, Rowan, EL, and Hammack, RW (2016). Factors controlling Li concentration and isotopic composition in formation waters and host rocks of Marcellus Shale, Appalachian Basin. Chemical Geology. 420: 162–179.Google Scholar
Poth, CW (1962). The occurrence of brine in western Pennsylvania. Topographic and Geologic Survey (Bulletin M 47): 59.Google Scholar
R Core Team. (2013). R: A Language and Environment for Statistical Computing. R Foundation for Statistical Computing.Google Scholar
Rahm, BG, Vedachalam, S, Bertoia, LR, Mehta, D, Vanka, VS, and Riha, SJ 2015. Shale gas operator violations in the Marcellus and what they tell us about water resource risks. Energy Policy. 82: 1–11.Google Scholar
Rester, E and Warner, SD. (2016). Chapter 4 - A review of drinking water contamination associated with hydraulic fracturing. In, Kaden, D and Rose, T (eds.) Environmental and Health Issues in Unconventional Oil and Gas Development. Elsevier, pp. 49–60. DOI: 10.1016/B978-0-12-804111-6.00004-2.Google Scholar
Rowan, EL, Engle, MA, Kraemer, TF, Schroeder, KT, Hammack, RW, and Doughten, MW (2015a). Geochemical and isotopic evolution of water produced from Middle Devonian Marcellus shale gas wells, Appalachian basin, Pennsylvania. AAPG Bulletin. 99(2): 181–206 DOI: 10.1306/07071413146.Google Scholar
Rowan, EL, Engle, MA, Kraemer, TF, Schroeder, KT, Hammack, RW, and Doughten, MW (2015b). Geochemical and isotopic evolution of water produced from Middle Devonian Marcellus shale gas wells, Appalachian basin, Pennsylvania: Geochemistry of produced water from Marcellus Shale water, PA. Aapg Bulletin. 99(2): 181–206.CrossRefGoogle Scholar
Shih, J-S, Saiers, JE, Anisfeld, SC, Chu, Z, Muehlenbachs, LA, and Olmstead, SM (2015). Characterization and analysis of liquid waste from Marcellus Shale gas development. Environmental Science & Technology. 49(16): 9557–9565 DOI: 10.1021/acs.est.5b01780.Google Scholar
Stoner, JD (1987). Water Resources and the Effects of Coal Mining, Greene County, Pennsylvania. Pennsylvania Geological Survey.Google Scholar
Tasker, TL (2018). Tracing the Environmental and Human Health Impacts of Oil and Gas Development. Pennsylvania State University.Google Scholar
Tasker, TL, Warner, NR, and Burgos, WD. (2020). Geochemical and isotope analysis of produced water from the Utica/Point Pleasant Shale, Appalachian Basin. Environmental Science: Processes & Impacts. 22(5): 1224–1232 DOI: 10.1039/D0EM00066C.Google Scholar
Tisherman, R and Bain, DJ. (2019). Alkali earth ratios differentiate conventional and unconventional hydrocarbon brine contamination. Science of The Total Environment. 695: 133944 DOI: 10.1016/j.scitotenv.2019.133944.Google Scholar
Vengosh, A, Jackson, RB, Warner, N, Darrah, TH, and Kondash, A (2014). A critical review of the risks to water resources from unconventional shale gas development and hydraulic fracturing in the United States. Environmental Science & Technology. 48(15): 8334–8348 DOI: 10.1021/es405118y.Google Scholar
Vengosh, A, Kondash, A, Harkness, J, Lauer, N, Warner, N, and Darrah, TH (2017). The geochemistry of hydraulic fracturing fluids. Procedia Earth and Planetary Science. 17: 21–24 DOI: 10.1016/j.proeps.2016.12.011.Google Scholar
Warner, NR, Christie, CA, Jackson, RB, and Vengosh, A (2013). Impacts of Shale Gas Wastewater Disposal on Water Quality in Western Pennsylvania. Environmental Science & Technology. 47(20): 11849–11857 DOI: 10.1021/es402165b.Google Scholar
Warner, NR, Jackson, RB, Darrah, TH, Osborn, SG, Down, A, Zhao, K, White, A, and Vengosh, A (2012). Geochemical evidence for possible natural migration of Marcellus Formation brine to shallow aquifers in Pennsylvania. Proceedings of the National Academy of Sciences. 109(30): 11961 DOI: 10.1073/pnas.1121181109.CrossRefGoogle ScholarPubMed
Wickham, H, Averick, M, Bryan, J, Chang, W, McGowan, L, François, R, Grolemund, G, Hayes, A, Henry, L, and Hester, J (2019). Welcome to the Tidyverse. Journal of Open Source Software. 4(43): 1686.CrossRefGoogle Scholar
Williams, JH, Taylor, LE, and Low, DJ (1998). Hydrogeology and groundwater quality of the glaciated valleys of Bradford, Tioga, and Potter Counties, Pennsylvania. Pennsylvania Geological Survey.Google Scholar
Wilson, JM and Van Briesen, JM. (2013). Source Water Changes and Energy Extraction Activities in the Monongahela River, 2009–2012. Environmental Science & Technology. 47(21): 12575–12582 DOI: 10.1021/es402437n.Google Scholar
Wilson, JM, Wang, Y, and VanBriesen, JM (2014). Sources of high total dissolved solids to drinking water supply in Southwestern Pennsylvania. Journal of Environmental Engineering. 140(5) DOI: 10.1061/(ASCE)EE.1943-7870.0000733.Google Scholar
Zheng, Z, Zhang, H, Chen, Z, Li, X, Zhu, P, and Cui, X (2017). Hydrogeochemical and isotopic indicators of hydraulic fracturing flowback fluids in shallow groundwater and stream water, derived from dameigou shale gas extraction in the northern qaidam basin. Environmental Science & Technology. 51(11): 5889–5898.Google Scholar
Ziemkiewicz, PF and He, YT. (2015). Evolution of water chemistry during Marcellus Shale gas development: A case study in West Virginia. Chemosphere. 134: 224–231.Google Scholar
Ziemkiewicz, PF, Quaranta, JD, Darnell, A, Wise, R (2014). Exposure pathways related to shale gas development and procedures for reducing environmental and public risk. Journal of Natural Gas Science and Engineering. 16: 77–84 DOI: 10.1016/j.jngse.2013.11.003.Google Scholar

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