Elemental Analysis of Nanomaterial Using Photon-Atom Interaction Based EDXRF Technique
Journal: Journal of Nuclear Physics, Material Sciences, Radiation and Applications (Vol.1, No. 1)Publication Date: 2013-08-05
Authors : Sanjeev Kumar; Arun Kumar; Mansi Chitkara; IS Sandhu; Devinder Mehta;
Page : 61-70
Keywords : Nanomaterial; EDXRF Technique; Photon-Atom Interaction;
Abstract
Presence of trace amount of foreign impurities (both metallic and non-metallic) in standard salts used for sample preparation and during the synthesis process can alter the physical and chemical behavior of the pure and doped nano-materials. Therefore, it becomes important to determine concentration of various elements present in synthesized nano-material sample. In present work, the elemental and compositional analysis of nano-materials synthesized using various methods has been performed using photon-atom interaction based energy dispersive x-ray fluorescence (EDXRF) technique. This technique due to its multielement analytical capability, lower detection limit, capability to analyze metals and non-metals alike and almost no sample preparation requirements can be utilized for analysis of nano-materials. The EDXRF spectrometer involves a 2.4 kW Mo anode x-ray tube (Pananalytic, Netherland) equipped with selective absorbers as an excitation source and an LEGe detector (FWHM = 150 eV at 5.895 keV, Canberra, US) coupled with PC based multichannel analyzer used to collect the fluorescent x-ray spectra. The analytical results showed good agreements with the expected values calculated on the basis of the precursor used in preparation of nano-materials.
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