0000000000391233

AUTHOR

Andrea Cononetti

0000-0001-8840-7400

showing 10 related works from this author

Direct Ionization Impact on Accelerator Mixed-Field Soft-Error Rate

2020

We investigate, through measurements and simulations, the possible direct ionization impact on the accelerator soft-error rate (SER), not considered in standard qualification approaches. Results show that, for a broad variety of state-of-the-art commercial components considered in the 65-16-nm technological range, indirect ionization is still expected to dominate the overall SER in the accelerator mixed-field. However, the derived critical charges of the most sensitive parts, corresponding to ~0.7 fC, are expected to be at the limit of rapid direct ionization dominance and soft-error increase.

PhysicsNuclear and High Energy PhysicsRange (particle radiation)Large Hadron ColliderField (physics)010308 nuclear & particles physicsMonte Carlo methodAccelerators and Storage Rings01 natural sciences7. Clean energyComputational physicsSoft errorNuclear Energy and EngineeringIonization0103 physical sciencesNeutronLimit (mathematics)Electrical and Electronic EngineeringIEEE Transactions on Nuclear Science
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Radiation Hardness Assurance Through System-Level Testing: Risk Acceptance, Facility Requirements, Test Methodology, and Data Exploitation

2021

International audience; Functional verification schemes at a level different from component-level testing are emerging as a cost-effective tool for those space systems for which the risk associated with a lower level of assurance can be accepted. Despite the promising potential, system-level radiation testing can be applied to the functional verification of systems under restricted intrinsic boundaries. Most of them are related to the use of hadrons as opposed to heavy ions. Hadrons are preferred for the irradiation of any bulky system, in general, because of their deeper penetration capabilities. General guidelines about the test preparation and procedure for a high-level radiation test ar…

Small satelllitessmall satellitesComputer scienceRadiation effects02 engineering and technologytest methodology01 natural sciencesSpace missionsSpace explorationsystem-level testing0202 electrical engineering electronic engineering information engineeringRadiation hardeningTechnik [600]Reliability (statistics)avaruustekniikka[PHYS]Physics [physics]protonselektroniikkalaitteetrisk acceptance[PHYS.PHYS.PHYS-SPACE-PH]Physics [physics]/Physics [physics]/Space Physics [physics.space-ph]Commercial off-the-shelf (COTS)Test (assessment)facilitiesPerformance evaluationTotal ionizing doseSystem verificationtestmethodologyNuclear and High Energy Physicstotal ionizing dose (TID)0103 physical scienceselektroniikkaRadiation hardening (electronics)Electrical and Electronic Engineeringsingle-event effect (SEE)Functional verification010308 nuclear & particles physics600: Technikneutrons020206 networking & telecommunicationsTest methodSystem level testingReliability engineering[SPI.TRON]Engineering Sciences [physics]/ElectronicsNuclear Energy and EngineeringtestausmenetelmätsäteilyfysiikkaOrbit (dynamics)radiation hardness assurancejärjestelmätddc:600
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Measurements of Low-Energy Protons using a Silicon Detector for Application to SEE Testing

2021

A silicon detector with a fast electronics chain is used for the dosimetry of protons in the range 0.5-5 MeV at the Centro Nacional de Aceleradores (CNA) 3 MV Tandem laboratory in Seville, Spain. In this configuration, measurements can be performed in pulsed mode, using a digitizer to record event-by-event proton energy depositions. The distributions of deposited energy were obtained thanks to a calibration with an alpha source. Measurements of flux and deposited energy are used to enable single event effect (SEE) testing on selected static random access memories (SRAMs).

protonitNuclear and High Energy PhysicspiiSilicon detectorMaterials sciencebusiness.industrySingle event effectskalibrointiLow energysäteilyfysiikkaNuclear Energy and EngineeringilmaisimetdosimetritOptoelectronicsSilicon detectorElectrical and Electronic EngineeringDetectors and Experimental TechniquesLow-energy protonsbusinessIEEE Transactions on Nuclear Science ( Volume: 69, Issue: 3, March 2022)
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SEU characterization of commercial and custom-designed SRAMs based on 90 nm technology and below

2020

International audience; The R2E project at CERN has tested a few commercial SRAMs and a custom-designed SRAM, whose data are complementary to various scientific publications. The experimental data include low- and high-energy protons, heavy ions, thermal, intermediate- and high-energy neutrons, high-energy electrons and high-energy pions.

high-energy protonsCOTS[PHYS.PHYS.PHYS-ACC-PH]Physics [physics]/Physics [physics]/Accelerator Physics [physics.acc-ph]käyttömuistitNuclear TheoryElectronHardware_PERFORMANCEANDRELIABILITY01 natural sciences7. Clean energyIonelektroniikkakomponentitNuclear physicsCross section (physics)Pion0103 physical sciencesNeutronionisoimaton säteilyStatic random-access memory010306 general physicsheavy ionsNuclear Experimentlow-energy protonsPhysicsLarge Hadron Collidercross section010308 nuclear & particles physicsionisoiva säteilyelectronsneutronsmuistit (tietotekniikka)SRAMCharacterization (materials science)säteilyfysiikkapionsSEU
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0.1-10 MeV Neutron Soft Error Rate in Accelerator and Atmospheric Environments

2021

Neutrons with energies between 0.1-10 MeV can significantly impact the Soft Error Rate (SER) in SRAMs manufactured in scaled technologies, with respect to high-energy neutrons. Their contribution is evaluated in accelerator, ground level and avionic (12 km of altitude) environments. Experimental cross sections were measured with monoenergetic neutrons from 144 keV to 17 MeV, and results benchmarked with Monte Carlo simulations. It was found that even 144 keV neutrons can induce upsets due to elastic scattering. Moreover, neutrons in the 0.1-10 MeV energy range can induce more than 60% of the overall upset rate in accelerator applications, while their contribution can exceed 18% in avionics.…

Nuclear and High Energy PhysicsprotonitMesonAstrophysics::High Energy Astrophysical Phenomenaparticle beamsMonte Carlo methodNuclear TheorykäyttömuistitCOTS SRAMAcceleratoraerospace electronicsSEU cross sections7. Clean energy01 natural sciencesUpsetelektroniikkakomponentitNuclear physicsavionicslife estimation0103 physical sciencesNeutronground-levelElectrical and Electronic EngineeringNuclear ExperimentRadiation hardeningmesonsavaruustekniikkaElastic scatteringPhysicsRange (particle radiation)protons010308 nuclear & particles physicsneutronsneutronitlow-energy neutronssensitivityAccelerators and Storage RingsMonte Carlo -menetelmätSoft errorNuclear Energy and Engineeringintermediate-energy neutronssäteilyfysiikka13. Climate action
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Analysis of the Photoneutron Field Near the THz Dump of the CLEAR Accelerator at CERN With SEU Measurements and Simulations

2022

We study the radiation environment near the terahertz (THz) dump of the CERN Linear Electron Accelerator for Research (CLEAR) electron accelerator at CERN, using FLUktuierende KAskade in German (FLUKA) simulations and single-event upset (SEU) measurements taken with 32-Mbit Integrated Silicon Solution Inc. (ISSI) static random access memories (SRAMs). The main focus is on the characterization of the neutron field to evaluate its suitability for radiation tests of electronics in comparison with other irradiation facilities. Neutrons at CLEAR are produced via photonuclear reactions, mostly initiated by photons from the electromagnetic cascades that occur when the beam is absorbed by the dump …

Nuclear and High Energy Physicsphotonuclear reactionsSEUsfotonitacceleratorCLEARelectronsneutronsneutronitsäteilylaitteethiukkaskiihdyttimetAccelerators and Storage RingsNuclear Energy and EngineeringsäteilyfysiikkaCERNPhysics::Accelerator PhysicsphotonsR2ESRAMsElectrical and Electronic Engineeringradiation testing
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The Pion Single-Event Effect Resonance and its Impact in an Accelerator Environment

2020

International audience; The pion resonance in the nuclear reaction cross section is seen to have a direct impact on the single-event effect (SEE) cross section of modern electronic devices. This was experimentally observed for single-event upsets and single-event latchup. Rectangular parallelepiped (RPP) models built to fit proton data confirm the existence of the pion SEE cross-section resonance. The impact on current radiation hardness assurance (RHA) soft error rate (SER) predictions is, however, minimal for the accelerator environment since this is dominated by high neutron fluxes. The resonance is not seen to have a major impact on the high-energy hadron equivalence approximation estab…

Nuclear reactionProtonNuclear Theoryresonance: effectSingle event upsets01 natural sciences7. Clean energyResonance (particle physics)nuclear reactionelektroniikkakomponentitradiation hardness assurance (RHA)Detectors and Experimental TechniquesNuclear Experimentradiation: damagePhysicsLarge Hadron Colliderprotonscross sectionMesonsneutronitRandom access memorySEELarge Hadron Colliderpionsn: fluxNuclear and High Energy PhysicsprotonitMesonaccelerator[PHYS.PHYS.PHYS-ACC-PH]Physics [physics]/Physics [physics]/Accelerator Physics [physics.acc-ph]RHAsoft error ratesoft error rate (SER)hiukkaskiihdyttimetNuclear physicsFLUKACross section (physics)hiukkasetPion0103 physical sciencesNeutron[PHYS.PHYS.PHYS-INS-DET]Physics [physics]/Physics [physics]/Instrumentation and Detectors [physics.ins-det]Electrical and Electronic Engineeringpi: interactionsingle-event effect (SEE)Neutrons010308 nuclear & particles physicsneutronsAccelerators and Storage RingsParticle beamsNuclear Energy and EngineeringsäteilyfysiikkahadronIEEE Transactions on Nuclear Science
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Electron-Induced Upsets and Stuck Bits in SDRAMs in the Jovian Environment

2021

This study investigates the response of synchronous dynamic random access memories to energetic electrons and especially the possibility of electrons to cause stuck bits in these memories. Three different memories with different node sizes (63, 72, and 110 nm) were tested. Electrons with energies between 6 and 200 MeV were used at RADiation Effects Facility (RADEF) in Jyvaskyla, Finland, and at Very energetic Electron facility for Space Planetary Exploration missions in harsh Radiative environments (VESPER) in The European Organization for Nuclear Research (CERN), Switzerland. Photon irradiation was also performed in Jyvaskyla. In these irradiation tests, stuck bits originating from electro…

Nuclear and High Energy Physics[SPI.NANO] Engineering Sciences [physics]/Micro and nanotechnologies/MicroelectronicskäyttömuistitHardware_PERFORMANCEANDRELIABILITYElectronRadiationelektronit01 natural sciencesJovianelektroniikkakomponentitElectron radiationJupiterelectron radiation0103 physical sciencesRadiative transfer[SPI.NANO]Engineering Sciences [physics]/Micro and nanotechnologies/MicroelectronicsElectrical and Electronic EngineeringavaruustekniikkaPhysicsHardware_MEMORYSTRUCTURESLarge Hadron Collider010308 nuclear & particles physicsionisoiva säteilystuck bits[SPI.TRON] Engineering Sciences [physics]/Electronics[INFO.INFO-ES] Computer Science [cs]/Embedded Systemstotal ionizing dose[SPI.TRON]Engineering Sciences [physics]/ElectronicsComputational physicssäteilyfysiikkaNuclear Energy and Engineeringradiation effectssingle event upsets[INFO.INFO-ES]Computer Science [cs]/Embedded SystemsNode (circuits)Random accessIEEE Transactions on Nuclear Science
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The Pion Single-Event Latch-Up Cross Section Enhancement: Mechanisms and Consequences for Accelerator Hardness Assurance

2021

Pions make up a large part of the hadronic environment typical of accelerator mixed fields. Characterizing device cross sections against pions is usually disregarded in favor of tests with protons, whose single-event latch-up (SEL) cross section is, nonetheless, experimentally found to be lower than that of pions for all energies below 250 MeV. While Monte Carlo simulations are capable of reproducing such behavior, the reason for the observed pion cross-section enhancement can only be explained by a deeper analysis of the underlying mechanisms dominating proton–silicon and pion–silicon reactions. The mechanisms dominating the SEL response are found to vary with the energy under consideratio…

PhysicsNuclear reactionNuclear and High Energy PhysicsMesonNuclear TheoryMonte Carlo methodHadronLinear energy transfer02 engineering and technology021001 nanoscience & nanotechnologyAccelerators and Storage Rings01 natural sciences7. Clean energyNuclear physicsCross section (physics)PionNuclear Energy and Engineering0103 physical sciencesNuclear Physics - ExperimentHigh Energy Physics::ExperimentElectrical and Electronic EngineeringNuclear Experiment010306 general physics0210 nano-technologyEvent (particle physics)IEEE Transactions on Nuclear Science
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Proton Direct Ionization Upsets at Tens of MeV

2023

Experimental monoenergetic proton single-event upset (SEU) cross sections of a 65-nm low core-voltage static random access memory (SRAM) were found to be exceptionally high not only at low energies ($ 3 MeV and extending up to tens of MeV. The SEU cross Section from 20-MeV protons exceeds the 200-MeV proton SEU cross Section by almost a factor of 3. Similarly, monoenergetic neutron cross sections at 14 MeV are about a factor of 3 lower than the 20-MeV proton cross section. Because of Monte Carlo (MC) simulations, it was determined that this strong enhancement is due to the proton direct ionization process as opposed to the elastic and inelastic scattering processes that dominate the SEU res…

Nuclear and High Energy Physicsprotonitprotonsionitionisoiva säteilyscatteringneutronsenergiansiirtoMonte-Carlo simulationsneutronitmuistit (tietotekniikka)proton direct ionizationMonte Carlo -menetelmätNuclear Energy and Engineeringrandom access memorytrajectorydelta-raysNuclear Physics - Experimentsingle event upsetsElectrical and Electronic Engineeringliike-energia
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