IEEE Transactions on Electron Devices · 1995 · 114 citations · 19 references
EngineeringElectrical EngineeringRadiation DosimetryRadiation PhysicsRadiation TransportRadiation Damage In MaterialsRadiation HardeningRadiation ResistanceCurrent GainHot Carrier EffectsHot-carrier DegradationJunction Ideality FactorRadiation Damage MechanismsRadiation EffectsRadiation-induced DegradationStress
A physically based comparison between hot-carrier and ionizing radiation stress in BJTs is presented. Although both types of stress lead to qualitatively similar changes in the current gain of the device, the physical mechanisms responsible for the degradation are quite different. In the case of hot-carrier stress the damage is localized near the emitter-base junction, which causes the excess base current to have an ideality factor of two. For ionizing radiation stress, the damage occurs along all oxide-silicon interfaces, which causes the excess base current to have an ideality factor between one and two for low total doses of ionizing radiation, but an ideality factor of two for large total doses. The different physical mechanisms that apply for each type of stress imply that improvement in resistance to one type of stress does not necessarily imply improvement in resistance to the other type of stress. Based on the physical model, implications for correlating and comparing hot-carrier-induced and ionizing-radiation-induced damage are discussed.< <ETX xmlns:mml="http://www.w3.org/1998/Math/MathML" xmlns:xlink="http://www.w3.org/1999/xlink">></ETX>
19
Response of advanced bipolar processes to ionizing radiation
E.W. Enlow, R.L. Pease, W.E. Combs et al. · IEEE Transactions on Nuclear Science · 1991 · 322 citations
Charge separation for bipolar transistors
S.L. Kosier, Ronald D. Schrimpf, R.N. Nowlin et al. · IEEE Transactions on Nuclear Science · 1993 · 200 citations