Title :
Xs-MET-a reduced complexity fabrication process using complementary heterostructure field effect transistors for analog, low power, space applications
Author :
Cerny, C.L. ; Via, G.D. ; Ebel, J.L. ; DeSalvo, G.C. ; Quach, T.K. ; Bozada, C.A. ; Dettmer, R.W. ; Gillespie, J.K. ; Jenkins, T.J. ; Pettiford, C.I. ; Sewell, J.S. ; Ehret, J.E. ; Merkel, K. ; Wilson, A. ; Lyke, J.
Author_Institution :
Wright Lab., Wright-Patterson AFB, OH, USA
fDate :
3/1/1998 12:00:00 AM
Abstract :
The requirements for space-based integrated circuit applications are defined with an emphasis on being radiation tolerant and low power consuming. Flexible analog signal processors (FASPs) are outlined as a means by which effective circuit designs can be utilized to perform a multitude of tasks. The development of complementary III-V technologies have been proven to meet the demands of the space environment, and have demonstrated the potential for frequency operation beyond 1 GHz using power supply voltages at or below 1.5 Volts. The novel fabrication process known as Xs-MET (pronounced kismet, which uses the Creek letter chi, X, and stands for Complementary Heterostructure Integrated Single Metal Transistor), is introduced as a manufacturing technique to be used in FASP design. The Xs-MET fabrication process is outlined with preliminary device results presented. An example of a FASP circuit design using Xs-MET is provided. Conclusions regarding the utilization of the Xs-MET process for FASPs are outlined with comments focusing on a space-based demonstration
Keywords :
III-V semiconductors; analogue processing circuits; field effect analogue integrated circuits; integrated circuit technology; microwave integrated circuits; radiation hardening (electronics); space vehicle electronics; 1 GHz; 1.5 V; AlGaAs-InGaAs; FASP design; GaAs; Si3N4; Xs-MET; analog applications; analog signal processors; complementary III-V technologies; complementary heterostructure field effect transistors; complementary heterostructure integrated single metal transistor; effective circuit designs; fabrication process; radiation tolerant; reduced complexity; space applications; Application specific integrated circuits; Circuit synthesis; Fabrication; Frequency; III-V semiconductor materials; Integrated circuit technology; Power supplies; Signal processing; Space technology; Voltage;
Journal_Title :
Aerospace and Electronic Systems Magazine, IEEE