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Environmental application of elemental speciation analysis based on liquid or gas chromatography hyphenated to inductively coupled plasma mass spectrometry—A review
Authors:Maximilian Popp  Stephan Hann
Institution:a Department of Chemistry, Division of Analytical Chemistry, University of Natural Resources and Applied Life Sciences, BOKU Vienna, Muthgasse 18, A-1190 Vienna, Austria
b Current address: Department of Chemistry, Umea University, S-901 87 Umea, Sweden
Abstract:In recent years the number of environmental applications of elemental speciation analysis using inductively coupled plasma mass spectrometry (ICP-MS) as detector has increased significantly. The analytical characteristics, such as extremely low detection limits (LOD) for almost all elements, the wide linear range, the possibility for multi-elemental analysis and the possibility to apply isotope dilution mass spectrometry (IDMS) make ICP-MS an attractive tool for elemental speciation analysis. Two methodological approaches, i.e. the combination of ICP-MS with high performance liquid chromatography (HPLC) and gas chromatography (GC), dominate the field. Besides the investigation of metals and metalloids and their species (e.g. Sn, Hg, As), representing “classic” elements in environmental science, more recently other elements (e.g. P, S, Br, I) amenable to ICP-MS determination were addressed. In addition, the introduction of isotope dilution analysis and the development of isotopically labeled species-specific standards have contributed to the success of ICP-MS in the field. The aim of this review is to summarize these developments and to highlight recent trends in the environmental application of ICP-MS coupled to GC and HPLC.
Keywords:AB  arsenobetaine  AC  arsenocholine  AEC  anion exchange chromatography  AMPA  aminomethylphosphonic acid  As(III)  arsenite  As(V)  arsenate  BFR  brominated flame retardants  CCA  chromated copper arsenate  CE  capillary electrophoresis  CEC  cation exchange chromatography  CPC  cancerostatic platinum compound  CRM  certified reference material  CV  cold vapor generation  DBT  dibutyltin  DEL  diethyllead  DGT  diffusive gradient in thin film  DIHEN  direct insertion high efficiency nebulizer  DMA  dimethlylarsinate  DMAA  dimethylarsinoylacetate  DML  dimethyllead  DMT  dimethyltin  DPhA  diphenylarsinic acid  DPhT  diphenyltin  DRC  dynamic reaction cell  EI-MS  electron ionisation mass spectrometry  EMPA  ethyl methylphosphonic acid  EPA  environmental protection agency  ESI-MS  electrospray ionisation mass spectrometry  ESR  electron spin resonance  EtHg+  ethyl-mercury  GC  gas chromatography  GC-ICP-MS  gas chromatography inductively coupled plasma spectrometry  GC-ICP-TOF-MS  gas chromatography inductively coupled plasma time of flight mass spectrometry  HF-LPME  hollow fiber-liquid phase micro-extraction  HG-PT-GC-ICP-MS  purge and trap gas chromatography coupled to ICP-MS  HILIC  hydrophilic interaction chromatography  HPIC  high performance ion chromatography  HPLC  high performance liquid chromatography  HPLC-ICP-MS  high performance liquid chromatography coupled to inductively coupled plasma mass spectrometry  HS-SDME  head space single drop microextraction  HS-SPME  head space solid phase microextraction  IC  ion chromatography  IC-ICP-MS  ion chromatography inductively coupled plasma mass spectrometry  IC-ICP-QMS  ion chromatography coupled to ICP-QMS  IC-ICP-SFMS  ion chromatography coupled to ICP-SFMS  ICP  inductively coupled plasma  ICP-AES  inductively coupled plasma atomic emission spectrometry  ICP-DRC-MS  ICP-MS equipped with a dynamic reaction cell  ICP-MS  inductively coupled plasma mass spectrometry  ICP-QMS  inductively coupled plasma quadrupole mass spectrometry  ICP-SFMS  inductively coupled plasma sector-field mass spectrometry  ICP-TOF-MS  inductively coupled plasma time of flight mass spectrometry  ID  isotope dilution  ID-GC-ICP-MS  isotope dilution gas chromatography inductively coupled plasma mass spectrometry  IDMS  isotope dilution mass spectrometry  IMPA  isopropyl methylphosphonic acid  IT-MS  ion trap mass spectrometry  LC  liquid chromatography  LC-ICP-MS  liquid chromatography inductively coupled plasma mass spectrometry  LLE  liquid liquid extraction  LOD  limit of detection  MBT  monobutyltin  MCN  microconcentric nebulizer  Me2Hg  dimethyl-mercury  MeHg+  methylmercury  MIP-AES  microwave induced plasma atomic emission spectrometry  MMA  monomethylarsonate  MMT  monomethyltin  MPA  methylphosphonic acid  MPhT  monophenyltin  MRI  magnetic resonance imaging  NaBEt4  sodium tetraethylborate  NaBPr4  sodium tetrapropylborate  p-ASA  p-arsanilic acid  PBDPE  polybrominated diphenyl ether  PhA  phenylarsonic acid  PhAO  phenylarsine oxide  PhHg+  phenylmercury  ppb  parts per billion  ppt  parts per trillion  PT  purge and trap  PTI  purge and trap injection  QMS  quadrupole mass spectrometry  RF  radio frequency  RP  reversed phase  RP-HPLC  reversed phase high performance liquid chromatography  RP-HPLC-ICP-DRC-MS  high performance liquid chromatography coupled to inductively coupled plasma dynamic reaction cell mass spectrometry  RSD  relative standard deviation  SEC  size exclusion chromatography  SFMS  (double-focusing) sector field mass spectrometry  SPE  solid phase extraction  SPME  solid phase microextraction  SS  species specific  SU  species unspecific  TBT  tributyltin  TEL  triethyllead  TeMA  tetramethylarsonium  THM  trihalomethanes  TMAO  trimethylarsine oxide  TML  trimethyllead  TMSbCl2  trimethylantimony dichloride  TMT  trimethyltin  TOF-MS  time of flight mass spectrometry  TPhT  triphenyltin  USN  ultrasonic nebulizer
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