Modeling low-dose-rate effects in irradiated bipolar-base oxides

A physical model is developed to quantify the contribution of oxide-trapped charge to enhanced low-dose-rate gain degradation in bipolar junction transistors. Multiple-trapping simulations show that space charge limited transport is partially responsible for low-dose-rate enhancement. At low dose ra...

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Veröffentlicht in:IEEE transactions on nuclear science 1998-12, Vol.45 (6), p.2352-2360
Hauptverfasser: Graves, R.J., Cirba, C.R., Schrimpf, R.D., Milanowski, R.J., Michez, A., Fleetwood, D.M., Witczak, S.C., Saigne, F.
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container_end_page 2360
container_issue 6
container_start_page 2352
container_title IEEE transactions on nuclear science
container_volume 45
creator Graves, R.J.
Cirba, C.R.
Schrimpf, R.D.
Milanowski, R.J.
Michez, A.
Fleetwood, D.M.
Witczak, S.C.
Saigne, F.
description A physical model is developed to quantify the contribution of oxide-trapped charge to enhanced low-dose-rate gain degradation in bipolar junction transistors. Multiple-trapping simulations show that space charge limited transport is partially responsible for low-dose-rate enhancement. At low dose rates, more holes are trapped near the silicon-oxide interface than at high dose rates, resulting in larger midgap voltage shifts. The additional trapped charge near the interface causes an exponential increase in excess base current and a resultant decrease in current gain for some NPN bipolar technologies. Space charge effects also may be responsible for differences in interface trap formation at low and high dose rates.
doi_str_mv 10.1109/23.736454
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Multiple-trapping simulations show that space charge limited transport is partially responsible for low-dose-rate enhancement. At low dose rates, more holes are trapped near the silicon-oxide interface than at high dose rates, resulting in larger midgap voltage shifts. The additional trapped charge near the interface causes an exponential increase in excess base current and a resultant decrease in current gain for some NPN bipolar technologies. Space charge effects also may be responsible for differences in interface trap formation at low and high dose rates.</abstract><pub>IEEE</pub><doi>10.1109/23.736454</doi><tpages>9</tpages><oa>free_for_read</oa></addata></record>
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subjects Bipolar integrated circuits
Crystallization
Degradation
Electronics
Engineering Sciences
Integrated circuit technology
Laboratories
Modems
MOSFETs
Positron emission tomography
Space technology
USA Councils
title Modeling low-dose-rate effects in irradiated bipolar-base oxides
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