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DIGITAL PULSE PROCESSOR FOR ION BEAM MICROPROBE AND MICRO X RAY FLUORESCENCE 2-D AND 3-D IMAGING

机译:离子束微探针和微X射线荧光2-D和3-D成像的数字脉冲处理器

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摘要

For a long time, the implementation of optimal pulse processing in nuclear spectrometry was only possible with analogue electronic components. Following the development of fast analogue to digital converters, field programmable gate arrays, and digital signal processors, it became feasible to digitize pulses after a preamplifier or phototube and process them in a real time. Therefore, digital electronics, which were limited to data storage and control of the acquisition process, became feasible for signal processing as well. This brought numerous benefits, such as better energy resolution with higher data throughput, reduced size, easier upgrading, the ability to automate adjustment and control of the complete data acquisition process, and self-diagnostic capability. In the same time, evaluation of the Electronic Design Automation tools and Intellectual Property industry enables a System-On-a-Chip paradigm on high density reprogrammable devices and allows new approach for system level design. Such a design provides opportunity for small laboratories to develop a compact all digital' customized instrumentation. In this work, we presented a design of FPGA IP core for high resolution, digital X ray, γ ray or particle spectrometry using high level FPGA design tool (Xilinx System Generator and Matlab - Simulink). The IP core has been used to build a simple low cost digital spectrometer (Spartan 3 FPGA based) and advance system for ion beam microprobe and X ray fluorescence 2-D and 3-D imaging. (Virtex 4 FPGA based).
机译:长期以来,只有使用模拟电子元件才能在核能谱中实现最佳脉冲处理。随着快速模数转换器,现场可编程门阵列和数字信号处理器的发展,将前置放大器或光电管后的脉冲数字化并进行实时处理变得可行。因此,仅限于数据存储和采集过程控制的数字电子设备也可用于信号处理。这带来了许多好处,例如更好的能量分辨率和更高的数据吞吐量,更小的尺寸,更容易的升级,对整个数据采集过程进行自动调整和控制的能力以及自我诊断能力。同时,对电子设计自动化工具和知识产权行业的评估使高密度可重编程设备上的片上系统范例成为可能,并为系统级设计提供了新的方法。这种设计为小型实验室提供了开发紧凑的全数字化定制仪器的机会。在这项工作中,我们介绍了使用高级FPGA设计工具(Xilinx System Generator和Matlab-Simulink)的用于高分辨率,数字X射线,γ射线或粒子光谱的FPGA IP内核设计。 IP内核已用于构建简单的低成本数字光谱仪(基于Spartan 3 FPGA)和用于离子束微探针以及X射线荧光2-D和3-D成像的先进系统。 (基于Virtex 4 FPGA)。

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  • 会议地点 Vienna(AT)
  • 作者单位

    Ruder Boskovic Institute, Zagreb, Croatia;

    Faculty of Physics and Applied Computer Science, AGH University of Science and Technology, Krakow, Poland;

    Faculty of Physics and Applied Computer Science, AGH University of Science and Technology, Krakow, Poland;

    IAEA Nuclear Science and Applications/Physics section Seibersdorf, Austria;

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