L. Zhang
5 Papers
2 Citations
L. Zhang is an academic researcher. The author has contributed to research in topics: Modular design & Electronics. The author has an hindex of 1, co-authored 3 publications.
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Papers
Demonstration system of the HGTD peripheral electronics boards for ATLAS phase II upgrade
TL;DR: In this article , a prototype of the HGTD peripheral electronics boards (PEB) for the ATLAS phase II upgrade during the HL-LHC was developed to verify some uncertain aspects and facilitate many related studies and tests.
The isolated USB programmer board for lpGBT configuration in ATLAS-HGTD upgrade
TL;DR: In this paper , a miniature and isolated USB programmer board for lpGBT (UPL) was developed based on an USB-protocol converter, which has the advantages of compact profile, electrical isolation and cross-platform compatibility.
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Design of AC-coupled low gain avalanche diodes (AC-LGADs): a 2D TCAD simulation study
TL;DR: In this article , the authors present the impact of following parameters on AC-LGAD sensor performance: n+ dose, dielectric material and thickness, pad/pitch ratio and the distance between pad and cathode.
Readout electronics for the CEPC vertex detector prototype and beam telescope
Z. Yan,J Hu,T. Y Wu,J. Zhou,S. F. Li,X.C. Zhang,X.B. Huang,Y Hu,W. H. Wang,Zhao Liang,W Wei,Yan Zhang,X. Wei,L. Zhang,M. Qi,H. Zeng,Xh Jia,Xu Zhou,J. Guimaraes Da Costa,J. Fu,H. Zhang,Guanyu Li,L. Wu,M. Y. Dong,X. Li,Raimon Casanova,L. Zhang,Jie Dong,J. Wang,Ran Zheng,Weidong Li,Sebastian Grinstein +31 more
TL;DR: The CEPC vertex detector prototype and beam telescope were developed to meet unique collider requirements, with readout electronics designed to efficiently manage data flow from multiple sensors, demonstrating effective functionality and meeting design objectives.
Radiation tolerance of the MUX64 for the High Granularity Timing Detector of ATLAS
C. Wang,Z. Xu,X. Huang,L. Zhang,Q. Sha,Z. Ge,Y. Che,D. Gong,S. Hou,J. Zhang,T. Liu,Z. Liang,M. Qi +12 more
TL;DR: The MUX64 ASIC is radiation tolerant to a high-luminosity pp collision environment. It demonstrated tolerance to NIEL and TID with a maximum tested dose of 3.21 × 1015 (Si, 1 MeV) neq/cm2 and 7.46 × 105 Gy (Si).