SRAM-based heavy ion beam flux and LET dosimetry

This paper explores the possibility of enhancing the capability of static random access memories (SRAMs) as heavy ion beam detectors starting from the multiple-cell upsets (MCUs) measured in some well characterized beams. In particular, the two main enablers brought by the MCU analysis are (1) the d...

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Veröffentlicht in:IEEE transactions on nuclear science 2024, p.1-1
Hauptverfasser: Coronetti, Andrea, Garcia-Alia, Ruben, Dilillo, Luigi, Imianosky, Carolina, Dos Santos, Douglas Almeida, Luza, Lucas Matana, Bosser, Alexandre, Bilko, Kacper, Waets, Andreas, Klimek, Karolina, Saigne, Frederic
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container_title IEEE transactions on nuclear science
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creator Coronetti, Andrea
Garcia-Alia, Ruben
Dilillo, Luigi
Imianosky, Carolina
Dos Santos, Douglas Almeida
Luza, Lucas Matana
Bosser, Alexandre
Bilko, Kacper
Waets, Andreas
Klimek, Karolina
Saigne, Frederic
description This paper explores the possibility of enhancing the capability of static random access memories (SRAMs) as heavy ion beam detectors starting from the multiple-cell upsets (MCUs) measured in some well characterized beams. In particular, the two main enablers brought by the MCU analysis are (1) the determination of the beam flux even when the LET of the beam is not known [whenever the LET is > 10 MeV/(mg/cm2)] and (2) the estimation of the LET of the heavy ion beam without reliance on any other instrument. The methods designed to determine these quantities are explained in the paper and are calibrated using well characterized heavy ion beams. They are then put to test in less known heavy ion beams. Overall, the flux estimation, which exploits the saturation of the coverage, i.e., the ratio between MCU and beam fluence, instead of the unsaturated SEU cross section, can point out issues with beam calibration that can be corrected by the facility. The LET estimation, for which two different methods are proposed, when compared to Monte-Carlo simulations, showed a general agreement with an uncertainty of ~3 MeV/(mg/cm2), which is acceptable for typical measurements in which the LET data-points are spread by a larger range.
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subjects Biomedical monitoring
Detectors
dosimetry
Electronics
Engineering Sciences
Estimation
Europe
facility
Heavy ions
Ion beams
Ions
LET
MCU
Micro and nanotechnologies
Microelectronics
Monitoring
Random access memory
SEU
Single event upsets
SRAM
Uncertainty
title SRAM-based heavy ion beam flux and LET dosimetry
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