Speciation of Mercury in Selected Areas of the Petroleum Value Chain

Petroleum, natural gas, and natural gas condensate can contain low levels of mercury (Hg). The speciation of Hg can affect its behavior during processing, transport, and storage so efficient and safe management of Hg requires an understanding of its chemical form in oil, gas and byproducts. Here, X-...

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Veröffentlicht in:Environmental science & technology 2018-02, Vol.52 (3), p.1655-1664
Hauptverfasser: Avellan, Astrid, Stegemeier, John P, Gai, Ke, Dale, James, Hsu-Kim, Heileen, Levard, Clément, O’Rear, Dennis, Hoelen, Thomas P, Lowry, Gregory V
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container_end_page 1664
container_issue 3
container_start_page 1655
container_title Environmental science & technology
container_volume 52
creator Avellan, Astrid
Stegemeier, John P
Gai, Ke
Dale, James
Hsu-Kim, Heileen
Levard, Clément
O’Rear, Dennis
Hoelen, Thomas P
Lowry, Gregory V
description Petroleum, natural gas, and natural gas condensate can contain low levels of mercury (Hg). The speciation of Hg can affect its behavior during processing, transport, and storage so efficient and safe management of Hg requires an understanding of its chemical form in oil, gas and byproducts. Here, X-ray absorption spectroscopy was used to determine the Hg speciation in samples of solid residues collected throughout the petroleum value chain including stabilized crude oil residues, sediments from separation tanks and condensate glycol dehydrators, distillation column pipe scale, and biosludge from wastewater treatment. In all samples except glycol dehydrators, metacinnabar (β-HgS) was the primary form of Hg. Electron microscopy on particles from a crude sediment showed nanosized (
doi_str_mv 10.1021/acs.est.7b05066
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The speciation of Hg can affect its behavior during processing, transport, and storage so efficient and safe management of Hg requires an understanding of its chemical form in oil, gas and byproducts. Here, X-ray absorption spectroscopy was used to determine the Hg speciation in samples of solid residues collected throughout the petroleum value chain including stabilized crude oil residues, sediments from separation tanks and condensate glycol dehydrators, distillation column pipe scale, and biosludge from wastewater treatment. In all samples except glycol dehydrators, metacinnabar (β-HgS) was the primary form of Hg. Electron microscopy on particles from a crude sediment showed nanosized (&lt;100 nm) particles forming larger aggregates, and confirmed the colocalization of Hg and sulfur. In sediments from glycol dehydrators, organic Hg­(SR)2 accounted for ∼60% of the Hg, with ∼20% present as β-HgS and/or Hg­(SR)4 species. β-HgS was the predominant Hg species in refinery biosludge and pipe scale samples. However, the balance of Hg species present in these samples depended on the nature of the crude oil being processed, i.e. sweet (low sulfur crudes) vs sour (higher sulfur crudes). 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In sediments from glycol dehydrators, organic Hg­(SR)2 accounted for ∼60% of the Hg, with ∼20% present as β-HgS and/or Hg­(SR)4 species. β-HgS was the predominant Hg species in refinery biosludge and pipe scale samples. However, the balance of Hg species present in these samples depended on the nature of the crude oil being processed, i.e. sweet (low sulfur crudes) vs sour (higher sulfur crudes). 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subjects Absorption spectroscopy
Byproducts
Condensates
Crude oil
Dehydration
Distillation
Earth Sciences
Electron microscopy
Mercury
Mercury (metal)
Microscopy
Natural gas
Particulates
Petroleum
Petroleum engineering
Petroleum residues
Refineries
Residues
Sciences of the Universe
Sedimentation tanks
Sediments
Speciation
Species
Sulfur
Value chain
Value engineering
Wastewater treatment
X-ray absorption spectroscopy
title Speciation of Mercury in Selected Areas of the Petroleum Value Chain
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