HDL based FPGA interface library for data acquisition and multipurpose real time algorithm processing

A. Fernandes, R. Pereira, J. Sousa, A. Batista, Á. Combo, B. Carvalho, C. Correia, C. Varandas
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引用次数: 5

Abstract

The inherent parallelism of the logic resources, the flexibility in its configuration and the performance at high processing frequencies makes the field programmable gate array (FPGA) the most suitable device to be used both for real time algorithm processing and data transfer in instrumentation modules. Moreover, the reconfigurability of these FPGA based modules enables exploiting different applications on the same module. When using a reconfigurable module for various applications, the availability of a common interface library for easier implementation of the algorithms on the FPGA leads to more efficient development. The FPGA configuration is usually specified in a hardware description language (HDL) or other higher level descriptive language. The critical paths, as the management of internal hardware clocks, that require deep knowledge of the module behavior shall be implemented in HDL to optimize the timing constraints. The common interface library should include these critical paths, freeing the application designer from hardware complexity and able to choose any of the available high-level abstraction languages for the algorithm implementation. With this purpose a modular Verilog code was developed for the Virtex 4 FPGA of the in-house Transient Recorder and Processor (TRP) hardware module, based on the Advanced Telecommunications Computing Architecture (ATCA), with eight channels sampling at up to 400 MSamples/s. The TRP was designed to perform real time Pulse Height Analysis (PHA), Pulse Shape Discrimination (PSD) and Pile-Up Rejection (PUR) algorithms at a high count rate (few MHz). A brief description of this modular code is presented and examples of its use as interface with end user algorithms, including a PHA with PUR, are described.
基于HDL的FPGA接口库,用于数据采集和多用途实时算法处理
逻辑资源固有的并行性、配置的灵活性和高处理频率下的性能使现场可编程门阵列(FPGA)成为仪器模块中实时算法处理和数据传输的最合适器件。此外,这些基于FPGA的模块的可重构性使得在同一模块上开发不同的应用成为可能。当为各种应用使用可重构模块时,可用的通用接口库可以更容易地在FPGA上实现算法,从而提高开发效率。FPGA配置通常用硬件描述语言(HDL)或其他高级描述语言指定。关键路径作为内部硬件时钟的管理,需要深入了解模块行为,应在HDL中实现以优化时间约束。公共接口库应该包括这些关键路径,将应用程序设计人员从硬件复杂性中解放出来,并能够为算法实现选择任何可用的高级抽象语言。为此,基于先进电信计算架构(ATCA),为内部瞬态记录器和处理器(TRP)硬件模块的Virtex 4 FPGA开发了模块化Verilog代码,具有8通道采样速度高达400 MSamples/s。TRP设计用于在高计数率(低MHz)下执行实时脉冲高度分析(PHA)、脉冲形状判别(PSD)和堆积抑制(PUR)算法。简要介绍了该模块化代码,并描述了将其用作最终用户算法接口的示例,包括带有PUR的PHA。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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