Development of HV-CMOS sensor technology for the next generation of particle physics experiments

开发用于下一代粒子物理实验的 HV-CMOS 传感器技术

基本信息

批准号：
MR/S016449/1
负责人：
Eva Vilella Figueras
金额：
$ 148.98万
依托单位：
University of Liverpool
依托单位国家：
英国
项目类别：
Fellowship
财政年份：
2019
资助国家：
英国
起止时间：
2019 至无数据
项目状态：
已结题

来源：
https://gtr.ukri.org/projects?ref=MR%2FS016449%2F1
关键词：
Development HV CMOS sensor technology

项目摘要

Over the last 25 years, silicon sensor technology has become a critical ingredient in the success of the most challenging experiments in fundamental physics. The discovery of the Higgs boson at the Large Hadron Collider (LHC), most notably, would not have been possible without the very fine grained sensors which sit at the heart of the CERN detectors to measure (track) the trajectories of thousands of particles produced tens of millions of times per second. The next generation of experiments, being planned today, relies on a step-change in the performance of tracking sensor technologies. Scientists seek detectors that provide micron scale position accuracy and better than one nanosecond timing resolution, while being substantially thinner than a sheet of paper and requiring little cooling. To date it has not been possible to combine all of them in a single device.In this research, I propose to develop novel Depleted Monolithic Active Pixel Sensors (DMAPS) to achieve these parameters in a single device using industry standard, and therefore cost-effective, High Voltage-Complementary Metal-Oxide-Semiconductor (HV-CMOS) processes. DMAPS have already been adopted as the chosen sensor technology for the Mu3e experiment at the Paul Scherrer Institute in Switzerland, for which I work on the construction of the first DMAPS pixel tracker that will come online in 2020. DMAPS are also developed for the planned phase-II upgrade of ATLAS at the LHC, for which the final technology decision is expected in 2019. Within the particle physics instrumentation community, there is now a wide consensus that DMAPS will replace traditional tracking sensor technologies in the next generation of particle physics experiments.In spite of the major improvements already demonstrated by DMAPS, the enormous challenges set by future particle physics experiments demand further research to achieve yet more performant sensors. The main goal of this research is to develop highly performant DMAPS, targeting in the first place the reduction of the pixel area, the improvement of the time resolution and the increase of the radiation tolerance. I will also develop full-size DMAPS detectors with optimised performance and pursue the deployment of these devices for particle physics experiments and beyond. These new detectors can have a massive impact in experiments such as a planned upgrade of Mu3e and future upgrades at the High Luminosity-LHC (HL-LHC), but also in the medical and commercial fields as the low cost typical of HV-CMOS processes will make DMAPS tracking detectors available to many.

在过去的25年中，硅传感器技术已成为基本物理最具挑战性实验的成功的关键要素。在大型强生对撞机（LHC）上发现希格斯玻色子的发现，如果没有非常细的谷物传感器位于CERN检测器中心的非常细的谷物传感器，无法测量（轨迹）成千上万个颗粒的轨迹，每秒产生了数千万次的轨迹。下一代的实验（如今已计划）依赖于跟踪传感器技术的性能的逐步变化。科学家寻求提供微米尺度位置精度的探测器，并且比一个纳秒时序分辨率更好，同时比一张纸要薄得多，几乎不需要冷却。迄今为止，不可能将所有这些组合在单个设备中。在这项研究中，我建议开发新颖的耗尽的单片活性像素传感器（DMAPS），以使用行业标准在单个设备中实现这些参数，因此，具有成本效益的高电压齐平辅助金属氧化物 - 氧化物 - 氧化物 - 氧化物 - cmos（HV-CMOS）流程。 DMAPS have already been adopted as the chosen sensor technology for the Mu3e experiment at the Paul Scherrer Institute in Switzerland, for which I work on the construction of the first DMAPS pixel tracker that will come online in 2020. DMAPS are also developed for the planned phase-II upgrade of ATLAS at the LHC, for which the final technology decision is expected in 2019. Within the particle physics instrumentation community, there is now a wide在下一代粒子物理实验中，DMAP将取代传统跟踪传感器技术的共识。尽管DMAP已经证明了主要的改进，但未来粒子物理学实验带来的巨大挑战需要进一步的研究，以实现更多性能传感器。这项研究的主要目标是开发高性能的DMAP，首先是针对像素区域的减少，时间分辨率的改善和辐射耐受性的增加。我还将开发具有优化性能的全尺寸DMAP探测器，并追求这些设备进行粒子物理实验及其他设备的部署。这些新探测器在实验中可能会产生巨大影响，例如在高光度LHC（HL-LHC）的计划升级和将来的升级，但在医疗和商业领域中也可以作为HV-CMOS流程的低成效过程，这将使DMAPS跟踪检测器可用于许多人。