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3 Advances in Fourier transform mass spectrometry forensic tools for naphthenic acid fraction compounds in oil sand environmental samples and crude oil

  • Ian J. Vander Meulen , Rory P. Downham , Latifa Alostad , Kerry M. Peru , Dena W. McMartin , Mark P. Barrow and John V. Headley
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Abstract

During the past decade, there has been sustained interest in papers published on naphthenic acids (NAs) and the broader class of naphthenic acid-fraction compounds (NAFCs) as part of environmental and petroleomic studies. This increase attention in part reflects that NAs and related NAFCs are principal toxicants in oil sands process-affected water (OSPW). Furthermore, NAFCs are of industrial concern because they cause infrastructure scaling and corrosion during petroleum transport and processing. Many analytical strategies have therefore been developed for the detection and characterization of NAFCs, but Fourier transform mass spectrometry (FTMS)-based methods provide powerful molecular-level insights into these complex mixtures. This review focuses on the exceptional utility of ultrahigh resolving power FTMS applications to environmental forensics of NAFCs and crude oils. Highlighted are applications of Fourier transform ion cyclotron resonance mass spectrometry and Orbitrap mass spectrometry as ultrahigh resolution methods for (a) molecular-level measurement of environmental occurrence and fate of NAFCs across the Athabasca oil sands region, Canada; (b) improvement of understanding of molecular mechanisms of NAFC-related toxicity in aquatic environments; (c) assessment of treatment outcomes for OSPW; along with (d) compelling data visualizations of organic components in crude oils. Advances in instrumental technology and data processing continue to improve resolution and sensitivity across the mass range. The processing of data generated by these methods can be challenging, but offers unparalleled levels of insight into NAFC composition. Future studies are encouraged to further combine traditional petroleomic data visualization techniques with multivariate ordination methods. Such applications would be particularly useful for matching molecular characteristics with physical properties and with processes, such as toxicity, corrosion, as well as the environmental behaviour and fate of these compounds.

Abstract

During the past decade, there has been sustained interest in papers published on naphthenic acids (NAs) and the broader class of naphthenic acid-fraction compounds (NAFCs) as part of environmental and petroleomic studies. This increase attention in part reflects that NAs and related NAFCs are principal toxicants in oil sands process-affected water (OSPW). Furthermore, NAFCs are of industrial concern because they cause infrastructure scaling and corrosion during petroleum transport and processing. Many analytical strategies have therefore been developed for the detection and characterization of NAFCs, but Fourier transform mass spectrometry (FTMS)-based methods provide powerful molecular-level insights into these complex mixtures. This review focuses on the exceptional utility of ultrahigh resolving power FTMS applications to environmental forensics of NAFCs and crude oils. Highlighted are applications of Fourier transform ion cyclotron resonance mass spectrometry and Orbitrap mass spectrometry as ultrahigh resolution methods for (a) molecular-level measurement of environmental occurrence and fate of NAFCs across the Athabasca oil sands region, Canada; (b) improvement of understanding of molecular mechanisms of NAFC-related toxicity in aquatic environments; (c) assessment of treatment outcomes for OSPW; along with (d) compelling data visualizations of organic components in crude oils. Advances in instrumental technology and data processing continue to improve resolution and sensitivity across the mass range. The processing of data generated by these methods can be challenging, but offers unparalleled levels of insight into NAFC composition. Future studies are encouraged to further combine traditional petroleomic data visualization techniques with multivariate ordination methods. Such applications would be particularly useful for matching molecular characteristics with physical properties and with processes, such as toxicity, corrosion, as well as the environmental behaviour and fate of these compounds.

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