As an emerging technology, silicon carbide (SiC) power MOSFETs are showing great potential for higher temperature/power rating, higher efficiency, and reduction in size and weight, which makes this technology ideal for high temperature, harsh environment applications such as downhole, medical, avionic, or even space applications. Radiation tolerance therefore becomes a critical aspect of the device performance in such environments. In this work, we explored radiation hardness of SiC devices to total ionizing dose (TID), neutron-induced single-event burnout (SEB), and heavy-ion induced single-event effects (SEE)
The advantages of silicon carbide (SiC) power MOSFETs make this technology attractive for space, avi...
This report summarizes the NASA Electronic Parts and Packaging Program Silicon Carbide Power Device ...
Advances in space and nuclear technologies are limited by the capabilities of the conventional silic...
Heavy-ion induced degradation and catastrophic failure data for SiC power MOSFETs and Schottky diode...
In this research, the radiation induced single event effects (SEE) observed in silicon carbide (SiC)...
Power electronic devices in spacecraft and military applications requires high radiation tolerant. T...
Abstract The single event burnout (SEB) effects of SiC power MOSFET are investigated by irradiations...
High temperature reverse-bias (HTRB), High temperature gate-bias (HTGB) tests and electrical DC char...
High temperature reverse-bias (HTRB), High temperature gate-bias (HTGB) tests and electrical DC char...
Abstract—Radiation effects were demonstrably observed in silicon carbide power MOSFETs caused by hea...
Accelerated single event burnout (SEB) tests with 200 MeV protons and atmospheric neutrons were perf...
This paper discusses the total ionizing effects on Silicon Power MOSFET and Silicon Carbide Power MO...
Accelerated single event burnout (SEB) tests with 200 MeV protons and atmospheric neutrons were perf...
The advantages of silicon carbide (SiC) power MOSFETs make this technology attractive for space, avi...
Power systems designed for use in NASA space missions are required to work reliably under harsh cond...
The advantages of silicon carbide (SiC) power MOSFETs make this technology attractive for space, avi...
This report summarizes the NASA Electronic Parts and Packaging Program Silicon Carbide Power Device ...
Advances in space and nuclear technologies are limited by the capabilities of the conventional silic...
Heavy-ion induced degradation and catastrophic failure data for SiC power MOSFETs and Schottky diode...
In this research, the radiation induced single event effects (SEE) observed in silicon carbide (SiC)...
Power electronic devices in spacecraft and military applications requires high radiation tolerant. T...
Abstract The single event burnout (SEB) effects of SiC power MOSFET are investigated by irradiations...
High temperature reverse-bias (HTRB), High temperature gate-bias (HTGB) tests and electrical DC char...
High temperature reverse-bias (HTRB), High temperature gate-bias (HTGB) tests and electrical DC char...
Abstract—Radiation effects were demonstrably observed in silicon carbide power MOSFETs caused by hea...
Accelerated single event burnout (SEB) tests with 200 MeV protons and atmospheric neutrons were perf...
This paper discusses the total ionizing effects on Silicon Power MOSFET and Silicon Carbide Power MO...
Accelerated single event burnout (SEB) tests with 200 MeV protons and atmospheric neutrons were perf...
The advantages of silicon carbide (SiC) power MOSFETs make this technology attractive for space, avi...
Power systems designed for use in NASA space missions are required to work reliably under harsh cond...
The advantages of silicon carbide (SiC) power MOSFETs make this technology attractive for space, avi...
This report summarizes the NASA Electronic Parts and Packaging Program Silicon Carbide Power Device ...
Advances in space and nuclear technologies are limited by the capabilities of the conventional silic...