EngineeringElectrical EngineeringMaterials ScienceElectronic MaterialsMicroelectronicsSemiconductor DevicesCurrent-voltage CharacteristicsDevice ModelingP-n JunctionsAc Impedance AnalysisBreakdown CharacteristicsBreakdown MechanismsBreakdown VoltageCharacteristic ImpedanceCurrent-voltage RelationsElectrical BreakdownUnstable Region
The voltage-current, light multiplication, and small-signal ac impedance characteristics of reverse-biased silicon $p\ensuremath{-}n$ junctions are studied in the breakdown region. Two types of junctions are considered: a uniform diffused junction, and an alloyed junction specifically designed to contain only one region of localized breakdown (microplasma). The results for the single-microplasma junction are as follows: (i) The voltage-current characteristic, which describes the relations existing during the instant the microplasma is on, consists of a negative-resistance unstable region and a positive-resistance stable region. (ii) The multiplication characteristic indicates that the junction is most sensitive to light in the unstable breakdown region. (iii) The small-signal ac impedance characteristic exhibits an inductive component of current in the unstable breakdown region.The single-microplasma junction $V\ensuremath{-}I$ characteristic is compared with a previous theoretical prediction which discusses the mechanisms underlying the properties of a microplasma; an explanation of the multiplication and impedance characteristics of the single-microplasma junction in terms of these properties is indicated; and lastly, the behavior of a uniform junction, which contains many microplasmas, is explained in terms of the results obtained with a single-microplasma junction.
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Avalanche Breakdown in Silicon
K. G. McKay · Physical Review · 1954 · 478 citations
Photon Emission from Avalanche Breakdown in Silicon
A. G. Chynoweth, K. G. McKay · Physical Review · 1956 · 477 citations
Electron Multiplication in Silicon and Germanium
K. G. McKay, K. B. McAfee · Physical Review · 1953 · 326 citations
David J. Rose · Physical Review · 1957 · 112 citations