IEEE Transactions on Nuclear Science · 2010 · 69 citations · 18 references
EngineeringComputer EngineeringElectrical EngineeringMicroelectronicsRadiation TransportSemiconductor DevicesDevice ModelingDevice ScalingHeavy-ion PhysicsMonte Carlo Radiation TransportRadiation HardeningRadiation Track StructureEnergy DepositionHeavy Ion Track StructureRadiation EffectsRadiation-hard DevicesRadiation-hardening TechniquesSingle Event Upset ModelingTrack Structure ModelingTrack Structure Simulation
Monte-Carlo radiation transport simulations are used to quantify energy deposition from δ -rays in sensitive volumes representative of future SRAM technologies. The results show that single and multiple δ-ray events are capable of depositing sufficient energy to cause SEUs in nonadjacent SRAM cells separated by many micrometers. These results indicate the necessity of considering the variability of the charge track structure when evaluating the single event response of these highly scaled technology nodes. These effects have important implications forradiation hardening techniques that rely upon spatial separation of critical and redundant nodes, and simulation of device and circuit level response to heavy ions with respect to ion track structure.
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Radiation detection and measurement
M.C. Scott · Annals of Nuclear Energy · 1980 · 1.2K citations
Monte Carlo Simulation of Single Event Effects
Robert A. Weller, Marcus H. Mendenhall, Robert A. Reed et al. · IEEE Transactions on Nuclear Science · 2010 · 221 citations
Kevin M. Warren, Robert A. Weller, Marcus H. Mendenhall et al. · IEEE Transactions on Nuclear Science · 2005 · 173 citations