Sensor design optimization of innovative low-power, large area MAPS for HEP and applied science

Abstract

Fully Depleted Monolithic Active Pixels (FD-MAPS) represent a state-of-the-art detector technology and profit from a low material budget and cost for high energy physics experiments and other fields of research like medical imaging and astro-particle physics. Compared to the MAPS currently in use, fully depleted pixel sensors have the advantage of charge collection by drift, which enables a fast and uniform response overall the pixel matrix. The functionality of these devices has been shown in previous proof-of-concept productions. In this article we describe the optimization of the test pixel designs, that will be implemented in the first engineering run of the demonstrator chip of the ARCADIA project. These optimization procedures include radiation damage models, that have been employed in Technology Computer Aided Design simulations to predict the sensors behavior in different working environments.

16 pages, 13 figures, submitted to Frontiers in Physics

References in corpus (4)

• Combined Bulk and Surface Radiation Damage Effects at Very High Fluences in Silicon Detectors: Measurements and TCAD Simulations
• Pixel Detectors for Charged Particles
• DMAPS: a fully depleted monolithic active pixel sensor - analog performance characterization
• Radiation Damage Effects on Double-SOI Pixel Sensors for X-ray Astronomy