{"title":"FPGAS in high energy physics experiments at CERN","authors":"L. Musa","doi":"10.1109/FPL.2008.4629896","DOIUrl":null,"url":null,"abstract":"CERN, the European Organization for Nuclear Research, is the worldpsilas largest particle physics centre. It provides state-of-the-art scientific facilities to use in exploring what matter is made of, and what forces hold it together. Observing phenomena at the subatomic level requires extraordinary instruments, particle accelerators and particle detectors. In a particle accelerator, beams of subatomic particles are boosted to nearly the speed of light and then brought into collision with either a stationary target or another beam of accelerated particles coming head-on. Each of these collisions is called an event. Each event is very complex since lots of particles are produced. In order to look for these various particles and decay products, multi-component detectors that study different aspects of an event are built around the collision point. Each component of a modern detector is used for measuring particle energies and momentum, and/or distinguishing different particle types. Most modern particle detectors produce tiny electrical signals that can be treated and recorded as computer data. Detectors in high-energy physics characteristically produce great quantities of data, whose acquisition, reduction and interpretation have made up a significant component of the experimental effort both technically and financially. For the past 60 years, the historic advances in elementary particle physics are linked to the progress in accelerator and detector technologies, as well as in the associated readout electronics technologies. Owing to the continuous evolution in the semiconductor industry, the front-end and readout electronics for High Energy Physics have been evolving to satisfy decade after decade the increasing demands of the experiments. Very deep submicron CMOS FPGAs not only offer speed, density, computational power and flexibility, but also intrinsic radiation tolerance. ASICs and FPGAs are largely used in many different areas in High Energy Physics: controls, monitoring, signal processing, data compression, high-speed data links, online reconstruction and selection of the collision events. This contribution aims at reviewing the important role that FPGAs play in modern High Energy Physics Experiments by presenting some of the most advanced and peculiar applications of FPGAs at CERN.","PeriodicalId":93570,"journal":{"name":"International Conference on Field-programmable Logic and Applications : [proceedings]. International Conference on Field-Programmable Logic and Applications","volume":"115 1","pages":"2"},"PeriodicalIF":0.0000,"publicationDate":"2008-09-23","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"8","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"International Conference on Field-programmable Logic and Applications : [proceedings]. International Conference on Field-Programmable Logic and Applications","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.1109/FPL.2008.4629896","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 8

Abstract

CERN, the European Organization for Nuclear Research, is the worldpsilas largest particle physics centre. It provides state-of-the-art scientific facilities to use in exploring what matter is made of, and what forces hold it together. Observing phenomena at the subatomic level requires extraordinary instruments, particle accelerators and particle detectors. In a particle accelerator, beams of subatomic particles are boosted to nearly the speed of light and then brought into collision with either a stationary target or another beam of accelerated particles coming head-on. Each of these collisions is called an event. Each event is very complex since lots of particles are produced. In order to look for these various particles and decay products, multi-component detectors that study different aspects of an event are built around the collision point. Each component of a modern detector is used for measuring particle energies and momentum, and/or distinguishing different particle types. Most modern particle detectors produce tiny electrical signals that can be treated and recorded as computer data. Detectors in high-energy physics characteristically produce great quantities of data, whose acquisition, reduction and interpretation have made up a significant component of the experimental effort both technically and financially. For the past 60 years, the historic advances in elementary particle physics are linked to the progress in accelerator and detector technologies, as well as in the associated readout electronics technologies. Owing to the continuous evolution in the semiconductor industry, the front-end and readout electronics for High Energy Physics have been evolving to satisfy decade after decade the increasing demands of the experiments. Very deep submicron CMOS FPGAs not only offer speed, density, computational power and flexibility, but also intrinsic radiation tolerance. ASICs and FPGAs are largely used in many different areas in High Energy Physics: controls, monitoring, signal processing, data compression, high-speed data links, online reconstruction and selection of the collision events. This contribution aims at reviewing the important role that FPGAs play in modern High Energy Physics Experiments by presenting some of the most advanced and peculiar applications of FPGAs at CERN.
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欧洲核子研究中心高能物理实验中的fpga
欧洲核子研究中心,即欧洲核研究组织,是世界上最大的粒子物理中心。它提供了最先进的科学设备,用于探索物质的构成,以及什么力量将物质结合在一起。观察亚原子水平的现象需要非凡的仪器,粒子加速器和粒子探测器。在粒子加速器中,亚原子粒子束被加速到接近光速,然后与静止的目标或迎面而来的另一束加速粒子束发生碰撞。每一次碰撞都被称为一个事件。每个事件都非常复杂,因为产生了许多粒子。为了寻找这些不同的粒子和衰变产物,在碰撞点周围建立了研究事件不同方面的多组分探测器。现代探测器的每个组成部分都用于测量粒子能量和动量,和/或区分不同的粒子类型。大多数现代粒子探测器都能产生微小的电信号,这些电信号可以作为计算机数据处理和记录。高能物理中的探测器具有产生大量数据的特点,这些数据的获取、还原和解释在技术上和财政上都是实验工作的重要组成部分。在过去的60年里,基本粒子物理学的历史性进步与加速器和探测器技术以及相关的读出电子技术的进步有关。由于半导体工业的不断发展,高能物理的前端和读出电子设备也在不断发展,以满足几十年来不断增长的实验需求。极深亚微米CMOS fpga不仅提供速度、密度、计算能力和灵活性,而且具有固有的辐射耐受性。asic和fpga广泛应用于高能物理的许多不同领域:控制、监测、信号处理、数据压缩、高速数据链路、在线重建和碰撞事件的选择。这篇文章旨在回顾fpga在现代高能物理实验中发挥的重要作用,通过介绍fpga在CERN的一些最先进和最特殊的应用。
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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Performance-Driven System Generation for Distributed Vertex-Centric Graph Processing on Multi-FPGA Systems "All programmable FPGA, providing hardware efficiency to software programmers" The evolution of architecture exploration of programmable devices Virtex-6 and Spartan-6, plus a look into the future In search of agile hardware
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