The 28 nm CMOS process is the major commercial successor of the 65 nm one and widely used for the design of advanced application-specific integrated circuits (ASICs) in the field of instrumentation for radiation detectors in high-energy physics (HEP) experiments. The HEP community is now migrating to the 28 nm process for the design of readout electronics for pixel detectors and other mixed-signal circuits. In this work a comparison of the main device parameters, including noise, intrinsic gain and mismatch, will be presented for the two technologies. The design in 28 nm CMOS of basic analog building blocks for the development of pixel frontend channels will also be discussed. In particular, this work will be focused on the design of compact gain stages for the design of charge-sensitive amplifiers and on the development of fast- and low-power asynchronous comparators.

(2023). From 65 nm to 28 nm CMOS: design of analog building blocks of frontend channels for pixel sensors in high-energy physics experiments [journal article - articolo]. In ELEKTROTECHNIK UND INFORMATIONSTECHNIK. Retrieved from https://hdl.handle.net/10446/262469

From 65 nm to 28 nm CMOS: design of analog building blocks of frontend channels for pixel sensors in high-energy physics experiments

Traversi, Gianluca;Gaioni, Luigi;Galliani, Andrea
2023-12-29

Abstract

The 28 nm CMOS process is the major commercial successor of the 65 nm one and widely used for the design of advanced application-specific integrated circuits (ASICs) in the field of instrumentation for radiation detectors in high-energy physics (HEP) experiments. The HEP community is now migrating to the 28 nm process for the design of readout electronics for pixel detectors and other mixed-signal circuits. In this work a comparison of the main device parameters, including noise, intrinsic gain and mismatch, will be presented for the two technologies. The design in 28 nm CMOS of basic analog building blocks for the development of pixel frontend channels will also be discussed. In particular, this work will be focused on the design of compact gain stages for the design of charge-sensitive amplifiers and on the development of fast- and low-power asynchronous comparators.
articolo
29-dic-2023
Der 28 nm CMOS-Prozess ist der wichtigste kommerzielle Nachfolger des 65 nm-Prozesses. Dieser wird haufig fur den Entwurf fortschrittlicher ASICs im Bereich der Instrumentierung fur Strahlungsdetektoren in Experimenten der Hochenergiephysik (HEP) verwendet. Die HEP-Community migriert jetzt fur das Design von Ausleseelektronik fur Pixeldetektoren und andere Mixed-Signal-Schaltungen zum 28 nm-Prozess. In dieser Arbeit wird ein Vergleich der wichtigsten Gerateparameter, einschliesslich Gerausche, intrinsischer Verstarkung und Abweichung, fur die beiden Technologien vorgestellt. Ausserdem wird das Design des 28 nm CMOS analoger Grundbausteine fur die Entwicklung von Pixel-Frontend-Kanalen besprochen. Der Schwerpunkt dieser Arbeit liegt insbesondere auf der Gestaltung von kompakten Verstarkungsstufen fur das Design ladungsempfindlicher Verstarker und daruber hinaus auf der Entwicklung schneller und stromsparender asynchroner Komparatoren.
Traversi, Gianluca; Gaioni, Luigi; Galliani, Andrea
(2023). From 65 nm to 28 nm CMOS: design of analog building blocks of frontend channels for pixel sensors in high-energy physics experiments [journal article - articolo]. In ELEKTROTECHNIK UND INFORMATIONSTECHNIK. Retrieved from https://hdl.handle.net/10446/262469
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/10446/262469
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