Data on the Effects of Oil and Gas Wastewater Components on Microbial Community Structure and Function

Oil and gas (OG) wastewaters are commonly disposed of by underground injection and previous research showed that activities at a disposal facility in West Virginia affected stream biogeochemistry and sediment microbial communities downstream from the facility. Microorganisms can control the fate and transport of organic and inorganic components of OG wastewater highlighting the need to characterize the effects of OG wastewater components on microbial activity. We conducted a series of aerobic microcosm experiments to assess the influence of high total dissolved solids (TDS) and hydraulic fracturing fluid additives (2,2-dibromo-3-nitrilopropionamide (DBNPA), a biocide, and ethylene glycol, an anti-scaling additive), on microbial community structure and function. Microcosms were constructed with sediment from upstream (background) or downstream (impacted) from the disposal facility in West Virginia and four treatment conditions each with heat-killed controls were tested: 1) brine (high TDS) + DBNPA, 2) brine + ethylene glycol, 3) brine, and 4) unamended control. Microbial terminal electron accepting processes were monitored over time and changes in microbial community composition were characterized. Over the course of the incubation, the sediment layer in the microcosms became anoxic, and addition of DBNPA was observed to inhibit iron reduction.

Data and Resources

Field Value
accessLevel public
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identifier USGS:6086c602d34eadd49d31affe
metadata_type geospatial
modified 20210817
old-spatial -81.2357, 37.7552, -80.8347, 38.0845
publisher U.S. Geological Survey
publisher_hierarchy Department of the Interior > U.S. Geological Survey
resource-type Dataset
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theme {geospatial}
Groups
  • AmeriGEOSS
  • National Provider
  • North America
Tags
  • amerigeo
  • amerigeoss
  • archaea
  • bacteria
  • biochemistry
  • chromatography
  • ckan
  • dna-sequencing
  • fayette-county
  • gas-chromatography
  • geo
  • geochemical-processes
  • geochemistry
  • geoss
  • hydraulic-fracturing
  • laboratory-experiments
  • liquid-chromatography
  • microbes
  • microbiology
  • molecular-biology
  • national
  • north-america
  • sediments
  • subsampling
  • time-series-datasets
  • united-states
  • usgs-6086c602d34eadd49d31affe
  • west-virginia
  • wolf-creek
isopen False
license_id notspecified
license_title License not specified
maintainer Denise M Akob
maintainer_email dakob@usgs.gov
metadata_created 2025-11-21T21:59:11.104339
metadata_modified 2025-11-21T21:59:11.104344
notes Oil and gas (OG) wastewaters are commonly disposed of by underground injection and previous research showed that activities at a disposal facility in West Virginia affected stream biogeochemistry and sediment microbial communities downstream from the facility. Microorganisms can control the fate and transport of organic and inorganic components of OG wastewater highlighting the need to characterize the effects of OG wastewater components on microbial activity. We conducted a series of aerobic microcosm experiments to assess the influence of high total dissolved solids (TDS) and hydraulic fracturing fluid additives (2,2-dibromo-3-nitrilopropionamide (DBNPA), a biocide, and ethylene glycol, an anti-scaling additive), on microbial community structure and function. Microcosms were constructed with sediment from upstream (background) or downstream (impacted) from the disposal facility in West Virginia and four treatment conditions each with heat-killed controls were tested: 1) brine (high TDS) + DBNPA, 2) brine + ethylene glycol, 3) brine, and 4) unamended control. Microbial terminal electron accepting processes were monitored over time and changes in microbial community composition were characterized. Over the course of the incubation, the sediment layer in the microcosms became anoxic, and addition of DBNPA was observed to inhibit iron reduction.
num_resources 2
num_tags 29
title Data on the Effects of Oil and Gas Wastewater Components on Microbial Community Structure and Function