Determination of traces of sulphur by electrothermal evaporation and non-thermal excitation of S-containing species in a hollow cathode discharge (FANES/MONES) and in a microwave induced plasma (MIP)
- 47 Downloads
- 12 Citations
Summary
The determination of sulphur by emission of S-atoms, S+ ions, S2 and CS molecules using sulphate and other ions was investigated in such non-thermal excitation sources as the normal atmospheric argon-MIP and glow discharge in FANES/MONES (Furnace Nonthermal Excitation Spectrometry/Molecular Nonthermal Excitation Spectrometry). In both cases electrothermal evaporation (ETE) of the sample is applied. In the MIP technique (ETE-MIP) electrothermal evaporation from a new tungsten coil system is used and in the FANES samples are brought in the furnace. The thermal, electrical, chemical and pressure conditions were optimized and the emission spectra recorded. Detection limits are 90 ng for the ETE-MIP technique using the S 469.413 nm atom line. With the tungsten tube-FANES/MONES detection limits of 17 ng are obtained with S2 molecular band at 383.73 nm. With FANES/MONES in a carbon tube and measurements on CS molecular bands a detection limit of 2 ng is obtained.
Keywords
Furnace Detection Limit Tungsten Emission Spectrum Pressure ConditionPreview
Unable to display preview. Download preview PDF.
References
- 1.Rosen B (1970) International tables of selected constants, Bd 17. Pergamon Press, OxfordGoogle Scholar
- 2.Moussounda PS, Rausou P, Mermet JM (1985) Spectrochim Acta Part B 40:641Google Scholar
- 3.Beenakker CIM (1976) Spectrochim Acta Part B 31:483Google Scholar
- 4.Pivouka DE, Schleinmann AII, Fately WG, Fry RC (1986) Applied Spectrosc 40:766Google Scholar
- 5.Dittrich K, Vorberg B (1983) Anal Chim Acta 152:149Google Scholar
- 6.Belcher R, Bogdanski SL, Townshand A (1973) Anal Chim Acta 67:1Google Scholar
- 7.Dagnall RM, Thampson KC, West TS (1967) Analyst 92:506Google Scholar
- 8.Dittrich K (1980) Progr Anal Atom Spectrosc 5:209Google Scholar
- 9.Dittrich K (1986) CRC in Anal Chem 16:223Google Scholar
- 10.Falk H, Hoffmann E, Lüdke Ch (1981) Spectrochim Acta Part B 36:767Google Scholar
- 11.Falk H, Hoffmann E, Lüdke Ch (1988) Fresenius Z Anal Chem 307:362Google Scholar
- 12.Falk H, Hoffmann E, Lüdke Ch (1988) Progr Anal Spectrosc 11:417Google Scholar
- 13.Dittrich K, Fuchs H (1987) J Anal At Spectrom 2:533Google Scholar
- 14.Dittrich K, Glaubauf Th, Fuchs H, Mauersberger K (1988) J Anal At Spectrom 3:89Google Scholar
- 15.Dittrich K, Eismann G, Fuchs H (1988) Anal At Spectrom 3:459Google Scholar
- 16.Dittrich K, Berndt H, Broekaert JAC, Schaldach G, Tölg G (1988) Anal At Spectrom 3:1105Google Scholar
- 17.Dittrich K, Fuchs H (in press) J Anal At SpectromGoogle Scholar
- 18.Dittrich K, Fuchs H (in press) J Anal At SpectromGoogle Scholar
- 19.Dittrich K, Fuchs H, Mermet JM, Riviere B (in press) J Anal At SpectromGoogle Scholar
- 20.Beenakker CIM (1977) Spectrochim Acta Part B 32:173Google Scholar
- 21.Van Dalen JPJ, De Lezeune-Coulander PA, de Galan L (1987) Spectrochim Acta Part B 33:545Google Scholar
- 22.Hubert J, Moisan M, Ricard A (1979) Spectrochim Acta Part B 33:7Google Scholar
- 23.Aziz A, Broekaert JAC, Leis F (1985) Spectrochim Acta Part B 37:381Google Scholar
- 24.Broekaert JAC, Leis F (1985) Microchim Acta II:261Google Scholar
- 25.Berndt H, Schaldach G (1988) J Anal At Spectrom 3:709Google Scholar
- 26.Püschel P, Formanek Z, Hlavac R, Kolihova D, Sychra V (1981) 127:109Google Scholar
- 27.Heltai G, Broekaert JAC, Leis F, Tölg G (in press) Spectrochim Acta Part BGoogle Scholar