Abstract

Micro-systems based on the Micro Electro Mechanical Systems (MEMS) technology have been used in miniaturized low power and low mass smart structures in medicine, biology and space applications. Recently similar features found their way inside high energy physics with applications in vertex detectors for high-luminosity LHC Upgrades, with 3D sensors, 3D integration and efficient power management using silicon micro-channel cooling. This paper reports on the state of this development.

Highlights

  • Micro-fabrication, mainly used for Micro-Electro Mechanical Systems (MEMS), is the process which allows structures to be fabricated three-dimensionally within silicon, or other materials

  • 3D printing, where the fabrication is based on alternating steps of chemical vapor deposition of silicon and local implantation of gallium ions by focused ion beam (FIB) writing, is successfully used for a layer-by-layer fabrication of arbitrarily shaped silicon micro- and nano-sensors [1]

  • The p þ and nþ electrodes have a mutual distance of 71 μm, and have an average column overlap of 200 μm. This particular configuration allows collecting about 60% of the original signal with a maximum bias voltage of 200 V after a fluence of 5 Â 1015 n cmÀ2, where neutrons are 1 MeV equivalent

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Summary

Cinzia Da Vià n

Micro-systems based on the Micro Electro Mechanical Systems (MEMS) technology have been used in miniaturized low power and low mass smart structures in medicine, biology and space applications. Similar features found their way inside high energy physics with applications in vertex detectors for high-luminosity LHC Upgrades, with 3D sensors, 3D integration and efficient power management using silicon micro-channel cooling. This paper reports on the state of this development.

Introduction
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