The last decades have witnessed substantial efforts in the development of several detector technologies for X-ray fluorescence (XRF) applications. In spite of the increasing trend towards performing, cost-effective and reliable XRF systems, detectors for soft X-ray spectroscopy still remain a challenge, requiring further study, engineering and customization in order to yield effective and efficient systems. In this paper we report on the development, first characterization and tests of a novel multielement detector system based on low leakage current silicon drift detectors (SDD) coupled to ultra low noise custom CMOS preamplifiers for synchrotron-based low energy XRF. This new system exhibits the potential for improving the count rate by at least an order of magnitude resulting in ten-fold shorter dwell time at an energy resolution similar to that of single element silicon drift detectors.

A new detector system for low energy X-ray fluorescence coupled with soft X-ray microscopy: First tests and characterization

BUFON, JERNEJ;CARRATO, SERGIO;CAUTERO, GIUSEPPE;GIACOMINI, GABRIELE;GIURESSI, DARIO;Kourousias, George;MENK, RALF HENDRIK;PIEMONTE, CLAUDIO;RASHEVSKAYA, IRINA;VACCHI, Andrea;ZAMPA, GIANLUIGI;ZAMPA, NICOLA;
2016-01-01

Abstract

The last decades have witnessed substantial efforts in the development of several detector technologies for X-ray fluorescence (XRF) applications. In spite of the increasing trend towards performing, cost-effective and reliable XRF systems, detectors for soft X-ray spectroscopy still remain a challenge, requiring further study, engineering and customization in order to yield effective and efficient systems. In this paper we report on the development, first characterization and tests of a novel multielement detector system based on low leakage current silicon drift detectors (SDD) coupled to ultra low noise custom CMOS preamplifiers for synchrotron-based low energy XRF. This new system exhibits the potential for improving the count rate by at least an order of magnitude resulting in ten-fold shorter dwell time at an energy resolution similar to that of single element silicon drift detectors.
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11368/2866154
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