0000000000303574

AUTHOR

G. Berger

showing 3 related works from this author

From the Reference SEU Monitor to the Technology Demonstration Module On-Board PROBA-II

2008

The reference SEU Monitor system designed and presented in 2005 (R. H. SOslashrensen, F.-X. Guerre, and A. Roseng ldquoDesign, testing and calibration of a reference SEU monitor system,rdquo in Proc. RADECS, 2005, pp. B3-1-B3-7) has now been used by many researchers at many radiation test sites and has provided valuable calibration data in support of numerous projects. As some of these findings and results give new insight into improved inter-facility calibrations and provide additional inputs into ongoing SEE research, a few of the more interesting cases are presented. Furthermore the dasiadetector elementpsila, the Atmel AT60142F SRAM, now in a hybrid configuration, will form the key dete…

Nuclear and High Energy PhysicsEngineeringbusiness.industryDetectorOn boardRadiation testingNuclear Energy and EngineeringSingle event upsetCalibrationKey (cryptography)Electronic engineeringSatelliteStatic random-access memoryElectrical and Electronic EngineeringbusinessComputer hardwareIEEE Transactions on Nuclear Science
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Experimental Linear Energy Transfer of Heavy Ions in Silicon for RADEF Cocktail Species

2009

Experimental linear energy transfer values of heavy ions in silicon are presented with comparison to estimations from different semi empirical codes widely used among the community. This paper completes the experimental LET data for the RADEF cocktail ions in silicon.

PhysicsNuclear and High Energy PhysicsSiliconLinear energy transferchemistry.chemical_elementProbability density functionIonNuclear physicsTime of flightNuclear Energy and EngineeringIon acceleratorschemistryElectrical and Electronic EngineeringAtomic physicsNuclear ExperimentIEEE Transactions on Nuclear Science
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Influence of beam conditions and energy for SEE testing

2012

GANIL/Applications industrielles; The effects of heavy-ion test conditions and beam energy on device response are investigated. These effects are illustrated with two types of test vehicles: SRAMs and power MOSFETs. In addition, GEANT4 simulations have also been performed to better understand the results. Testing to high fluence levels is required to detect rare events. This increases the probability of nuclear interactions. This is typically the case for power MOSFETs, which are tested at high fluences for single event burnout or gate rupture detection, and for single-event-upset (SEU) measurement in SRAMs below the direct ionization threshold. Differences between various test conditions (…

Nuclear and High Energy PhysicsMaterials scienceIon beamPopulationchemistry.chemical_elementPower MOSFETsIonOpticsXenonIonizationion beam energyStatic random-access memoryElectrical and Electronic Engineeringspecie effectPower MOSFETeducationShadow mappingPhysicseducation.field_of_studyRange (particle radiation)power MOSFETta114business.industrySRAMNuclear Energy and EngineeringOrders of magnitude (time)chemistry[PHYS.COND.CM-MS]Physics [physics]/Condensed Matter [cond-mat]/Materials Science [cond-mat.mtrl-sci]Atomic physicsspecies effectSRAM.businessBeam (structure)Energy (signal processing)Voltage2011 12th European Conference on Radiation and Its Effects on Components and Systems
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