Direct current plasma optical emission spectrometry

Liquid Scintillation Systems, LSS Neutron Counting Systems, NCS Direct-Current Plasma Optical Emission Spectrometry, DCP-OES IR Spectroscopy (e.g. FTIR)... [Pg.630]

Direct Current Plasma Optical Emission Spectrometry (DCP-OES)... [Pg.13]

Brennan, M.C. and Svehla, G. (1989) Flow injection determination of boron, copper, molybdenum, tungsten and zinc in organic matrices with direct current plasma optical emission spectrometry, Fresenius Zeitschrift fur Analytische Chemie, 335, pp893-899. [Pg.106]

DCP-AES direct current plasma atomic emission spectrometry DCP-OES direct current plasma optical emission spectrometry see DCP-AES DELEIA dissociation-enhanced lanthanide fluoroimmunoassay demyeUnation removal of the myelin sheath of a nerve... [Pg.1680]

As shown in Table 28-1, several methods are used to atomize samples for atomic spectroscopic studies. Inductively coupled plasmas, flames, and electrothermal atomizers are the most widely used atomization methods we consider these three methods as well as direct current plasmas in this chapter. Flames and electrothermal atomizers are widely used in atomic absorption spectrometry, while the inductively coupled plasma is employed in optical emission and in atomic mass spectrometry. [Pg.839]

During the 1980s, a rapidly increasing number of methods have been published for mercury determination by AES (often called OES = optical emission spectrometry) after excitation/ionization in a gas plasma, usually argon. The plasma source most frequently used is an ICP, but also other kinds of plasma sources are used, e.g. alternating current plasma (ACP), direct current plasma (DCP), and microwave-induced plasma (MIP). AES has a wide multi-element capability the linear range extends over 4-6 orders of magnitude. [Pg.427]