“…The failure rate in high power devices due to space protons 31) calculated using the proposed method. The failure rate in high power semiconductor device due to terrestrial neutrons 33) is shown by conducting heavy ion simulation at different locations along the PiN diode using the proposed methodology by considering the neutron spectrum from gordon et al 35) The calculated failure rate compared with phenomenological expression proposed by Zeller 24) is shown in Fig. 2.…”
“…The extracted probability of charge deposition curves for different energies in silicon shown in Fig. 4 is considered from Sudo et al 33) These extracted curves are compared with the experimental data from P. Truscott et al 40) represent as dots in the figure.…”
Section: Charge Deposition Probabilitymentioning
confidence: 99%
“…The threshold charge for device destruction at different locations along the PiN diode is shown in Figs. 7 and 8 are considered from sudo et al 33) The threshold charge for the device destruction increases as the deposited charge is away from the PN junction because of decrease the electric field. The obtained critical charge for device destruction in 300 μm PiN diode shown in Fig.…”
Section: Critical Charge For Device Destructionmentioning
confidence: 99%
“…30) In this paper, a decoupled failure rate calculation method is proposed for high power semiconductor devices applicable to any cosmic ray operating conditions such as terrestrial, airplane altitude and satellite orbit. [31][32][33][34] PiN diode is considered because of presence of PiN structure in all high voltage semiconductor devices. Threshold charge considered as failure criteria for device destruction.…”
Section: Introductionmentioning
confidence: 99%
“…In this paper, the altitude dependent failure rate in 100 and 300 μm PiN diode is shown due to the impact of neutron up to an altitude of 60 km. The failure cross section data for the 100 and 300 μm calculated using the proposed method is considered from sudo et al 33) in the present work. The neutron flux spectrum required for SEB failure rate calculation considered from EXPACS database.…”
The electric power usage in aircraft has reached 1 MW. Therefore, use of high power semiconductor devices expected to increase in avionics. Single event burnout failure happens when power devices operating in blocking condition interact with the cosmic radiation. The failure rate in power devices is more in airplane altitude compare to terrestrial operation. In this paper, the failure rate of high power silicon PiN diode is evaluated when operating in airplane altitude due to the interaction of cosmic ray neutrons. The proposed formula has the unique feature of decoupling between failure cross section and cosmic ray neutron flux. This makes it possible to calculate the failure rate under any cosmic radiation environment using the proposed failure rate formulation.
“…The failure rate in high power devices due to space protons 31) calculated using the proposed method. The failure rate in high power semiconductor device due to terrestrial neutrons 33) is shown by conducting heavy ion simulation at different locations along the PiN diode using the proposed methodology by considering the neutron spectrum from gordon et al 35) The calculated failure rate compared with phenomenological expression proposed by Zeller 24) is shown in Fig. 2.…”
“…The extracted probability of charge deposition curves for different energies in silicon shown in Fig. 4 is considered from Sudo et al 33) These extracted curves are compared with the experimental data from P. Truscott et al 40) represent as dots in the figure.…”
Section: Charge Deposition Probabilitymentioning
confidence: 99%
“…The threshold charge for device destruction at different locations along the PiN diode is shown in Figs. 7 and 8 are considered from sudo et al 33) The threshold charge for the device destruction increases as the deposited charge is away from the PN junction because of decrease the electric field. The obtained critical charge for device destruction in 300 μm PiN diode shown in Fig.…”
Section: Critical Charge For Device Destructionmentioning
confidence: 99%
“…30) In this paper, a decoupled failure rate calculation method is proposed for high power semiconductor devices applicable to any cosmic ray operating conditions such as terrestrial, airplane altitude and satellite orbit. [31][32][33][34] PiN diode is considered because of presence of PiN structure in all high voltage semiconductor devices. Threshold charge considered as failure criteria for device destruction.…”
Section: Introductionmentioning
confidence: 99%
“…In this paper, the altitude dependent failure rate in 100 and 300 μm PiN diode is shown due to the impact of neutron up to an altitude of 60 km. The failure cross section data for the 100 and 300 μm calculated using the proposed method is considered from sudo et al 33) in the present work. The neutron flux spectrum required for SEB failure rate calculation considered from EXPACS database.…”
The electric power usage in aircraft has reached 1 MW. Therefore, use of high power semiconductor devices expected to increase in avionics. Single event burnout failure happens when power devices operating in blocking condition interact with the cosmic radiation. The failure rate in power devices is more in airplane altitude compare to terrestrial operation. In this paper, the failure rate of high power silicon PiN diode is evaluated when operating in airplane altitude due to the interaction of cosmic ray neutrons. The proposed formula has the unique feature of decoupling between failure cross section and cosmic ray neutron flux. This makes it possible to calculate the failure rate under any cosmic radiation environment using the proposed failure rate formulation.
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