SBIR-STTR Award

High Temperature, Power SiC Electronics Development and Commercialization
Award last edited on: 4/25/2002

Sponsored Program
SBIR
Awarding Agency
DOD : MDA
Total Award Amount
$1,022,529
Award Phase
2
Solicitation Topic Code
BMDO95-005
Principal Investigator
James Delbert Parsons

Company Information

3C Semiconductors

20000 MW Walker Road
Portland, OR 97213
   (503) 690-1397
   N/A
   N/A
Location: Single
Congr. District: 03
County: Multnomah

Phase I

Contract Number: ----------
Start Date: ----    Completed: ----
Phase I year
1995
Phase I Amount
$71,388
The single most important type of metal/SiC junction is the n-type, rectifying Schottky diode, because it is the voltage blocking junction in all majority carrier devices. A reliable junction of this type for n-type SiC is the key to its development for high temperature, power conditioning electronics. Phase I will demonstrate that osmium is the ideal metal for forming such junctions. Phase II will develop SiC fast recovery diodes and MESFETs that can perform power conditioning and communications circuits applications at thigh temperatures. These devices will form the foundation for developing prototype devices and circuits to address specific applications requirements of DoD systems, and manufacturers of commercial products (e.g. cellular phones) in Phase III. Commercial markets for SiC (especially B-SiC) devices utilizing this type of junction are: high frequency power (B-SiC) solid state power devices, ultra fast recovery diodes for power conditioning, and mixer diodes for cellular phones communication.

Keywords:
Silicon Carbide Diodes Osmium Electronics Power Temperature Semiconductor Workfunction

Phase II

Contract Number: ----------
Start Date: ----    Completed: ----
Phase II year
1996
Phase II Amount
$951,141
Thermal sensors (stable to 1150 degrees C) will be developed for commercial applications; this is possible because of the stable metal contracts developed independently and under Phase I. A unique p-type SiC ohmic contact metal which is known to form stable interfaces with SiC to 1050 degrees C will be tested to determine the junction electrical properties; if successful, it will solve a critical problem in the development of SiC bipolar power electronics development.

Keywords:
SILICON CARBIDE DIODES OSMIUM ELECTRONICS POWER TEMPERATURE SEMICONDUCTOR WORKFUNCTION