AI 中文总结
本文介绍了IFIC建立的TARDIS实验室，其为LUXE和未来希格斯工厂研发高粒度硅量能器，完成模块测试并取得低连接故障等成果，还规划了后续升级与生产里程碑。
AI 中文摘要
TARDIS实验室已在IFIC（CSIC-UV）建立，旨在开发高粒度硅量能器领域的基础设施与专业技术。该实验室提供ISO7级洁净室环境及专用仪器，用于硅传感器表征与超薄量能器模块组装，支持CERN DRD Calo（DRD6）和FCAL合作组推进的硅基高粒度量能器概念研发。这些研发不仅是未来希格斯工厂方案（FCC-ee、CERN的直线对撞机设施、国际直线对撞机等）中电磁量能器和亮度计的技术原型，对LUXE实验的强场QED项目也至关重要。我们描述了该实验室的基础设施、组装流程，以及完全组装的量能器模块在DESY测试束流中的验证结果：组装的ECALp模块平均厚度约760μm，对4352个通道的实验室测试仅发现0.5%的连接问题；2025年组装的两个SiWECAL模块中，仪器化焊盘的连接问题约为10⁻³级别，运输和束流运行后未出现机械故障或传感器分层。我们还介绍了正在进行的基础设施升级及2026-2027年的生产里程碑。
英文摘要
The TARDIS Lab has been established at IFIC (CSIC-UV) to develop infrastructure and expertise in high-granularity silicon calorimetry. The laboratory provides an ISO7 clean-room environment and dedicated instrumentation for silicon sensor characterization and ultra-thin calorimeter module assembly. It supports developments of silicon-based high-granularity calorimetry concepts pursued within CERN DRD Calo (DRD6) and the FCAL Collaboration. These developments serve not only as technological prototypes of the electromagnetic calorimeters and luminometers at future Higgs-factory proposals (FCC-ee, Linear Collider Facility at CERN, International Linear Collider, etc.) but are also essential for the strong-field QED program of the LUXE experiment. We describe the laboratory infrastructure, assembly workflows and DESY test-beam validation of fully assembled calorimeter modules. The assembled ECALp modules have an average thickness of approximately 760~$μ$m, while laboratory tests of 4352 channels identified connectivity problems in only 0.5\% of them. For the two SiWECAL modules assembled in 2025, connectivity problems were observed at the level of approximately $10^{-3}$ of the instrumented pads, with no mechanical failures or sensor delamination after transport and beam operation. We also present ongoing infrastructure upgrades and production milestones for 2026-2027.
CommentsContribution to the International Workshop on Future Linear Colliders (LCWS 2025), 20-24 October 2025. Valencia, Spain (C25-10-20.1)
Journal refEur. Phys. J. Plus 141, 901 (2026)
DOI：10.1140/epjp/s13360-026-08124-3
