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128 channels of multi-gigasample-per-second waveform sampling and digitization in a 10 cm #x00D7; 10 cm #x00D7; 8 cm package

机译:采用10 cm×10 cm×8 cm封装的128通道每秒多千兆采样的波形采样和数字化

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Extremely fast timing from Microchannel Plate PhotoMultiplier Tubes (MCP-PMTs) and multi-gigasample per second (GSa/s) waveform sampling ASICs will allow precision timing to play a pivotal role in the next-generation of Ring Imaging CHerenkov (RICH) detectors. The Instrumentation Development Laboratory at the University of Hawai'i has developed a prototype of the electronics to instrument the Imaging Time of Propagation (iTOP) counter for the Belle II detector at KEK in Tsukuba, Japan. The front-end electronics modules consist of an array of waveform sampling / digitizing ASICs controlled by an FPGA. The ASICs digitize signals from an array of multi-anode MCP-PMTs coupled to a quartz radiator bar. Readout and control are done via multi-gigabit-per-second fiber optic links to a custom back-end, where Digital Signal Processors (DSPs) correct for unwanted artifacts in the data before performing feature extraction. Variants of the modules will be used in other applications in addition to Belle II, including a tabletop neutrino detector, beam size monitoring at SuperKEKB, readout of wavelength shifting fibers for the Belle II KL/μ system, and a Focusing Detection of Internally Reflected Cherenkov (fDIRC) prototype. Important aspects of the system include thermal management problems in a very compact module, as well as the expected lifetime of the module in the intended high radiation environment(s). Our experiences running these modules as standalone entities with a pulser/laser on the bench have fed into the design of the next version of each component in the system. Cosmic ray tests and running a full system at a Fermilab beam test in late 2011 have contributed to our understanding of needed improvements for the system as a whole.
机译:微通道板光电倍增管(MCP-PMT)和每秒多千兆采样(GSa / s)波形采样ASIC的极快速定时将使精确定时在下一代环形成像切伦科夫(RICH)检测器中发挥关键作用。夏威夷大学的仪器开发实验室已经开发出一种电子设备原型,可以为日本筑波的KEK的Belle II探测器的传播成像时间(iTOP)计数器提供仪器。前端电子模块由一个由FPGA控制的波形采样/数字化ASIC阵列组成。 ASIC将来自耦合到石英辐射条的多阳极MCP-PMT阵列的信号数字化。读出和控制是通过到定制后端的每秒数千兆位的光纤链路完成的,其中数字信号处理器(DSP)在执行特征提取之前纠正数据中不需要的伪像。除了Belle II以外,这些模块的变体还将用于其他应用,包括台式中微子探测器,SuperKEKB的光束尺寸监控,Belle II K L /μ系统的波长转换光纤的读数,以及内部反射切伦科夫(fDIRC)原型的聚焦检测。系统的重要方面包括非常紧凑的模块中的热管理问题,以及在预期的高辐射环境中模块的预期寿命。我们将这些模块作为具有脉冲发生器/激光器的独立实体运行的经验,已经融入到系统中每个组件的下一版本的设计中。宇宙射线测试以及在2011年底的Fermilab光束测试中运行整个系统,有助于我们理解整个系统所需的改进。

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