Fast Readout Architectures for Large Arrays of Digital Pixels: Examples and Applications

Modern pixel detectors, particularly those designed and constructed for applications and experiments for high-energy physics, are commonly built implementing general readout architectures, not specifically optimized in terms of speed. High-energy physics experiments use bidimensional matrices of sen...

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Main Author: A. Gabrielli
Format: Article
Language:English
Published: Hindawi Limited 2014-01-01
Series:The Scientific World Journal
Online Access:http://dx.doi.org/10.1155/2014/523429
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spelling doaj-a0928fab11ac49aa96e3137653eae53a2020-11-25T01:09:28ZengHindawi LimitedThe Scientific World Journal2356-61401537-744X2014-01-01201410.1155/2014/523429523429Fast Readout Architectures for Large Arrays of Digital Pixels: Examples and ApplicationsA. Gabrielli0Physics and Astronomy Department and INFN, University of Bologna, Viale Berti Pichat 6/2, I 40127 Bologna, ItalyModern pixel detectors, particularly those designed and constructed for applications and experiments for high-energy physics, are commonly built implementing general readout architectures, not specifically optimized in terms of speed. High-energy physics experiments use bidimensional matrices of sensitive elements located on a silicon die. Sensors are read out via other integrated circuits bump bonded over the sensor dies. The speed of the readout electronics can significantly increase the overall performance of the system, and so here novel forms of readout architectures are studied and described. These circuits have been investigated in terms of speed and are particularly suited for large monolithic, low-pitch pixel detectors. The idea is to have a small simple structure that may be expanded to fit large matrices without affecting the layout complexity of the chip, while maintaining a reasonably high readout speed. The solutions might be applied to devices for applications not only in physics but also to general-purpose pixel detectors whenever online fast data sparsification is required. The paper presents also simulations on the efficiencies of the systems as proof of concept for the proposed ideas.http://dx.doi.org/10.1155/2014/523429
collection DOAJ
language English
format Article
sources DOAJ
author A. Gabrielli
spellingShingle A. Gabrielli
Fast Readout Architectures for Large Arrays of Digital Pixels: Examples and Applications
The Scientific World Journal
author_facet A. Gabrielli
author_sort A. Gabrielli
title Fast Readout Architectures for Large Arrays of Digital Pixels: Examples and Applications
title_short Fast Readout Architectures for Large Arrays of Digital Pixels: Examples and Applications
title_full Fast Readout Architectures for Large Arrays of Digital Pixels: Examples and Applications
title_fullStr Fast Readout Architectures for Large Arrays of Digital Pixels: Examples and Applications
title_full_unstemmed Fast Readout Architectures for Large Arrays of Digital Pixels: Examples and Applications
title_sort fast readout architectures for large arrays of digital pixels: examples and applications
publisher Hindawi Limited
series The Scientific World Journal
issn 2356-6140
1537-744X
publishDate 2014-01-01
description Modern pixel detectors, particularly those designed and constructed for applications and experiments for high-energy physics, are commonly built implementing general readout architectures, not specifically optimized in terms of speed. High-energy physics experiments use bidimensional matrices of sensitive elements located on a silicon die. Sensors are read out via other integrated circuits bump bonded over the sensor dies. The speed of the readout electronics can significantly increase the overall performance of the system, and so here novel forms of readout architectures are studied and described. These circuits have been investigated in terms of speed and are particularly suited for large monolithic, low-pitch pixel detectors. The idea is to have a small simple structure that may be expanded to fit large matrices without affecting the layout complexity of the chip, while maintaining a reasonably high readout speed. The solutions might be applied to devices for applications not only in physics but also to general-purpose pixel detectors whenever online fast data sparsification is required. The paper presents also simulations on the efficiencies of the systems as proof of concept for the proposed ideas.
url http://dx.doi.org/10.1155/2014/523429
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