GaAs ManTech On-Line Digest Search
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SESSION I: HBT |
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1.1 |
Removal of Hydrogen from the Base of Carbon-doped HBTs by Ex-situ Rapid Thermal Annealing University of Illinois, Microelectronics Laboratory |
1.2 |
Analysis of AlGaAs/GaAs Heterojunction Bipolar Transistors with Two-step SiNx or InyGaP Passivation Layers University of Maryland |
1.3 |
Manufacturable Fabrication Process for Self-Aligned, Thin-Base InGaP/GaAs HBTs University of Illinois, Microelectronics Laboratory |
1.4 |
InP/InGaAs HBYs with 1.5 V-Single Bias Voltage for L-Band Power Applications Fujitsu Laboratories Ltd. |
1.5 |
The Process Design and Fabrication of Monolithic OEIC Lightwave transmitter with 1.55 um MQW Laser and HBT Driver Circuit Hebei Semiconductor Research Institute, Electronic Science & Technology Research Institute of Jilin University |
SESSION II: PROCESS I |
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2.1 |
Recess Etching Technique Comparisons for MESFET, HFET, PHEMT and HBT Technologies Texas Instruments, Inc. |
2.2 |
Controlled Digital Etching of GaAs for Precise Gate Recess Formation in MESFET, HEMT, and pHEMT Device Fabrication |
2.3 |
Automated Hot Plate Alloy for MMIC Manufacturability |
| 2.4 | Improved Ohmic Contacts to PHEMTs Using Germanium Rich Metal Stacks Raytheon Co., Advanced Device Center |
SESSION III: DESIGN FOR MANUFACTURABILITY Chair: Art Geissberger, Alpha Industries |
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3.1. |
Electrostatic Discharge Protection for GaAs Devices and MMIC Circuits |
3.2 |
Design and Fabrication of Coplanar Ka-Band Monolithic Integrated Circuits |
3.3 |
GaAs MMIC Chip Compaction of Broad Band X-Band High Power Amplifiers |
3.4 |
Correlation of Small Signal Performance of Ion-Implanted Devices to fundamental Physical Variables using 2-D Numerical Simulation |
SESSION IV: MANUFACTURING |
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4.1 |
High Volume Testing of RF & Analog GaAs Integrated Circuits |
4.2 |
Enhanced Manufacturability of GaAs Ion Implanted MESFET Technology for Monolithic Microwave Integrated Circuits |
4.3 |
Low Cost X-Band Monolithic Integrated LNA Using Direct Ion Implanted GaAs MESFETs |
4.4 |
Yield Enhancement for Commercial PHEMT Devices and MMICs |
4.5 |
GaAs Fabrication Simulation Modeling |
SESSION V: RELIABILITY |
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5.1 |
High Temperature Accelerated Life Test of >1GHz Digital GaAs Logic |
5.2 |
Class B Accelerated Life Testing of GaAs FETs |
5.3 |
Hydrogen Effects on GaAs Device Reliability |
5.4 |
NiGeW Ohmic Contracts on GaAs Heterostructure Field Effect Transistors |
SESSION VI: GaAs OVERVIEW |
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6.1 |
EuroGaAs – The European GaAs Industry |
6.2 |
GaAs MESFET Manufacturing Technologies in Japan |
6.3 |
The GaAs Industry in North America |
SESSION VII: INTERACTIVE FORUM |
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7.1 |
Statistical Database & Electronic Data Management for GaAs Products Hewlett-Packard |
7.2 |
A New Approach to Substrate Temperature Measurement in MOCVD Rotating Disk Reactors EMCORE Corporation |
7.3 |
Advanced GaAs and InP base Epi-wafers for Volume Production T.T. Childs, T. Nohava, S. Mukherjee, V. Sokolov and C. Sullivan |
7.4 |
FSF’s Solid Phase Epitaxy Cost Effective Revolutionary GaAs Processing and Manufacturing Technology F.S.F. Research Technologies, Inc. |
7.5 |
Electronic Access of Graphical Data Packages for a Wafer Fabrication Facility Raytheon Company |
7.6 |
Efficiency, Throughput and Yield consideration for GaAs Epitaxy equipment F. Schulte M. Deschler, G. Strauch, H. Jurgensen |
7.7 |
Characterization of the Backgating Effect at Microwave Frequency University of Illinois at Urbana-Champaign |
7.8 |
The Relocation of Two Riber Production MBE Systems Raytheon Company |
7.9 |
A Complete 3 Volt Transceiver for PCS Applications Sanders, a Lockheed Martin Company |
7.10 |
Low-Power, Wideband, High-Speed, Linear, AlGaAs/GaAs HBT Monolithic Successive Detection Logarithmic Amplified (SDLA) AEL Industries, Inc. |
7.11 |
High Resolution X-Ray Diffraction Characterization of Pseudomorphic HEMT Epitaxial Structures Quantun Epitaxial Designs |
7.12 |
In Situ Growth Rate and Temperature Measurement in Molecular Beam Epitaxy Using Pyrometric Interferometry and Diffused Reflectance Spectroscopy University of California, Irvine |
7.13 |
A Test Structure for Targeting the MBE Growth of AlGaAs/InGaAs/GaAs Pseudomorphic Transistors Hewlett-Packard Company |
SESSION VIII: PROCESS II |
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8.1 |
0.2 Micron Gate Lithography Using Optical Stepper and PSM Technologies |
8.2 |
DOE Optimization of A Three-Resist 0.25um T-Gate Process |
8.3 |
An Angle-Evaporation Technique for Fabricating 0.2 um Gamma-Gates for Metal-Semiconductor Field-Effect Transistors |
8.4 |
InP-Based Mixed Signal/Mixed Device Technology |
SESSION IX: THERMAL MANAGEMENT |
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9.1 |
Thermal Management in GaAs Devices and Components |
9.2 |
Thermal Management of High Power HBTs |
9.3 |
A High-Yield Emitter Process for Realizing Self-Aligned Base, Thermally-Shunted HBTs |
SESSION X: MATERIALS |
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10.1 |
Fabrication of double planar doped Pseudomorphic HEMT devices from MOCVD grown material |
10.2 |
Throughput and Yield improvement of MOCVD materials growth in high volume GaAs/Ge based space solar cell production. |
10.3 |
Method for Characterization of III-V Epitaxial Structures Incorporating an Etch Stop Layer |
10.4 |
Vertical Gradient Freeze GaAs for Ion-Implantation Applications |
SESSION XI: PROCESS III |
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11.1 |
GaAs pHEMT Device Passivation Technology for High Efficiency Power Amplifier Applications |
11.2 |
The Effect of 02 Plasma to Activation of Si Implants in GaAs |
11.3 |
Manufacturing Concerns of Reactively Sputtered Aluminum Nitride |
11.4 |
Fabrication and Characterization of Polyimide Multilayer Structures for MMIC Applications |
