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Test Results and Prospects for RD53A, a Large Scale 65 Nm CMOS Chip for Pixel Readout at the HL-LHC

Nuclear Instruments & Methods in Physics Research Section A-accelerators Spectrometers Detectors and...(2019)SCI 3区SCI 4区

Ist Nazl Fis Nucl | Aix Marseille Univ | LPNHE | LPSC | LAPP | Rheinische Friedrich Wilhelms Univ Bonn | Fachhsch Dortmund | Politecn Bari | INFN Pisa | Natl Inst Subat Phys NIKHEF | Czech Tech Univ | Acad Sci Czech Republ | Sevilla Univ | CSIC UC | European Org Nucl Res CERN | Rutherford Appleton Lab | Fermilab Natl Accelerator Lab | Lawrence Berkeley Natl Lab | Univ New Mexico

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Abstract
The CERN RD53 collaboration was founded to tackle the extraordinary challenges associated with the design of pixel readout chips for the innermost layers of particle trackers at future high energy physics experiments. Around 20 institutions are involved in the collaboration, which has the support of both ATLAS and CMS experiments. The goals of the collaboration include the comprehensive understanding of radiation effects in the 65 nm technology, the development of tools and methodology to efficiently design large complex mixed signal chips and, ultimately, the development of a full size readout chip featuring a 400 x 400 pixel array with 50 mu m pitch. In August 2017, the collaboration submitted the large scale chip RD53A, integrating a matrix of 400 x 192 pixels and embodying three different analog front-end designs. This work discusses the characteristic of the RD53A chip, with some emphasis on the analog processors, and presents the first test results on the pixel array.
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High-luminosity LHC,ATLAS,CMS,Pixel readout chip,Low noise analog front-end,RD53
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要点】:论文介绍了CERN RD53合作项目研发的大规模65纳米CMOS芯片RD53A,用于高能物理实验中粒子追踪器内层像素读出,并公布了其初步测试结果及前景展望。

方法】:研究团队通过综合理解65纳米技术在辐射效应、开发设计大型复杂混合信号芯片的工具和方法,开发出具有400x400像素阵列的完整尺寸读出芯片。

实验】:在2017年8月,团队提交了RD53A芯片,其集成了400x192像素矩阵,并包含三种不同的模拟前端设计。论文中讨论了RD53A芯片的特性,尤其是模拟处理器,并展示了像素阵列的首次测试结果,但未提及具体使用的数据集名称。