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Materials for high-temperature semiconductor devices / Committee on Materials for High-Temperature Semiconductor Devices, National Materials Advisory Board, Commission on Engineering and Technical Systems, National Research Council.

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Format:
Book
Contributor:
National Research Council (U.S.). Committee on Materials for High-Temperature Semiconductor Devices.
Language:
English
Subjects (All):
Semiconductors.
Materials at high temperatures.
Wide gap semiconductors.
Physical Description:
1 online resource (135 p.)
Edition:
1st ed.
Place of Publication:
Washington, D.C. : National Academy Press, c1995.
Language Note:
English
Summary:
Major benefits to system architecture would result if cooling systems for components could be eliminated without compromising performance. This book surveys the state-of-the-art for the three major wide bandgap materials (silicon carbide, nitrides, and diamond), assesses the national and international efforts to develop these materials, identifies the technical barriers to their development and manufacture, determines the criteria for successfully packaging and integrating these devices into existing systems, and recommends future research priorities.
Contents:
Materials For High-Temperature Semiconductor Devices
Copyright
Abstract
Preface
Acknowledgements
Contents
Executive Summary
GENERAL CONCLUSIONS AND RECOMMENDATIONS
Temperature Ranges
U.S. Competitiveness
Demonstration Technologies
Funding Strategy
MATERIALS-SPECIFIC CONCLUSIONS AND RECOMMENDATIONS
Silicon Carbide
Nitrides
Diamond
Packaging
1 Background
SURVEY I: APPLICATIONS OF HIGH-TEMPERATURE ELECTRONICS BY INDUSTRY
Automotive
Aerospace
Gas Turbine Engines
Other Aerospace Applications
Space Vehicles And Exploration
Nuclear Power
Petroleum Exploration
Industrial Process Control
Power Electronics
SURVEY II: APPLICATIONS BY THERMAL ENVIRONMENT
SURVEY III: HIGH-TEMPERATURE ELECTORNIS APPLICATIONS BY COMPLEXITY
SUMMARY
2 State Of The Art Of Wide Bandgap Materials
SILICON CARBIDE
Materials Description And Properties
Methods Of Fabrication
Bulk Growth
Background
Current Status
Epitaxial Growth
CVD Of α-SiC Epitaxial Films
SiC Epitaxy In The c-Axis Direction
SiC Epitaxy In The a-Axis Direction
Hetero-Epitaxial Growth Of 3C-SiC Films
Other Epitaxial Processes
Summary
NITRIDE MATERIALS
Properties
Crystal Growth
DIAMOND
Methods Of Synthesis And Characterization
Synthesis
Characterization
Diamond Processing
3 Device Physics: Behavior at Elevated Temperatures
HIGH-TEMPERATURE EFFECTS: FUNDAMENTAL, MATERIALS-RELATED PROPERTIES
Carrier Mobilities
Intrinsic Carrier Concentrations: Dependence on Bandgap Energy and Temperature
PREDICTING HIGH-TEMPERATURE-DEVICE PERFORMANCE: MATERIALS-RELATED FIGURES OF MERIT
Device Physics At High Temperatures
Junction Leakage: p-n Junctions And Diodes
Schottky Leakage
Threshold Voltage Shifts.
Choice Of High-Temperature-Device Technologies
4 Generic Technical Issues Associated With Materials For High-Temperature Semiconductors
ELECTRICAL CONTACTS
Schottky Contacts To SiC
Ohmic Contacts To SiC
Ohmic Contacts To GaN
DOPING AND IMPLANTATION
Doping Of SiC
Doping Of GaN
Doping Of AlN
Doping Of Diamond
GATE OXIDES AND INSULATORS
Gate Oxides And Insulators For SiC
Gate Oxides And Insulators For The Nitrides
Gate Oxides And Insulators For Diamond
ETCHING
Etching Of SiC
Etching Of The Nitrides: GaN And AlN
Etching Of Diamond
DEFECT ENGINEERING AND CONTROL
YIELD
DEVICE RELIABILITY
5 High-Temperature Electronic Packaging
CHIP PACKAGING
SUBSTRATES
THICK-FILM AND THIN-FILM METALLIZATION
COMPONENT ATTACHMENT
INTERCONNECTION
SECOND-LEVEL PACKAGING
6 Device Testing For High-Temperature Electronic Materials
SHORT-TERM CONSTANT-TEMPERATURE TESTS
CONSTANT-TEMPERATURE LIFE TEST
THERMAL-CYCLING TESTS
FUTURE REQUIREMENTS FOR HIGH-TEMPERATURE TESTING
7 Conclusions And Recommendations
References
Appendix A: Silicon As A High-Temperature Material
HIGH-TEMPERATURE OPERATION OF SILICON CIRCUITS
Bipolar Analog Circuits
Bipolar Digital Circuits
FET Analog Circuits
Digital Cmos
DIELECTRIC ISOLATION TECHNOLOGY
Wafer Bonding
SIMOX
Lateral Isolation
APPLICATIONS TO DEVICE TECHNOLOGY
Bipolar-Junction-Transistor Applications In SOI Technology
Cmos Applications In SOI
REFERENCES
Appendix B: Gallium Arsenide As A High-Temperature Material.
STATUS OF COMMERCIAL VLSI GAAS DEVICES FOR HIGH-TEMPERATURE ELECTRONICS
APPROACHES FOR IMPROVING GAAS IC HIGH-TEMPERATURE LIMITS
CONCLUSIONS
Appendix C: High-Temperature Microwave Devices
BASIC DEVICE TYPES
Bipolar Junction Transistors
Static Induction Transistors
Junction Field Effect Transistors
Metal-Semiconductor Field Effect Transistors
Impact Avalanche Transit-Time Diodes
EXPECTATIONS FOR WIDE BANDGAP MESFETS
Current-Voltage Curves
Power And Efficiency
Mesfet Gain
Thermal Properties Of SiC MESFETs
Wide Bandgap Mesfets At Elevated Temperatures
Gallium Nitride
Appendix D: Biographical Sketches Of Committee Members.
Notes:
"NMAB-474."
Includes bibliographical references.
ISBN:
9786610192762
9780309176057
0309176050
9781280192760
1280192763
9780309596534
030959653X
9780585084695
0585084696
OCLC:
614702456

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