Fundamentals of Packaging at Microwave and Millimeter-Wave Frequencies | p. 1 |
Wavelength and Frequency | p. 3 |
Lumped Elements | p. 3 |
Transmission Lines | p. 5 |
Dispersion | p. 8 |
Dispersion Effects in High Speed Systems | p. 10 |
Transmission Line Distributed Effects | p. 12 |
Transmission Line Coupling and Cross Talk | p. 13 |
Package Fabrication Methods | p. 15 |
Co-fired Ceramics | p. 15 |
Thick Film and Thin Film Ceramics | p. 18 |
Organic Substrates | p. 19 |
Interconnects | p. 20 |
Conclusions | p. 22 |
References | p. 23 |
Low-Cost High-Bandwidth Millimeter Wave Leadframe Packages | p. 25 |
Introduction | p. 25 |
MicroCoax Approach | p. 26 |
Packaging Approaches | p. 29 |
Limitations to the Approach | p. 32 |
MicroCoax/Leadframe Approach | p. 32 |
Package I/O Structure Considerations | p. 33 |
Modelling the Signal Path | p. 34 |
Performance | p. 38 |
Conclusion | p. 42 |
Polymeric Microelectromechanical Millimeter Wave Systems | p. 43 |
Introduction | p. 43 |
Polymeric Millimeter Wave Systems using Micromachining Technologies | p. 44 |
Fabrication Examples of mm-Wave Components | p. 48 |
Polymeric Waveguides | p. 48 |
Waveguide-Based Iris Filters | p. 49 |
Waveguide-Based Tunable Filters and Phase Shifters | p. 51 |
Waveguide-Fed Horn Antennas | p. 55 |
W-Band Waveguide Feeding Network of a 2x2 Horn Antenna Array | p. 57 |
Fundamenial Characterizations of Polymer Metallization Process | p. 59 |
Surface Roughness | p. 59 |
Characterization of In-channel Electroplating Thickness | p. 61 |
Geometry Effects | p. 62 |
Conclusion | p. 65 |
References | p. 65 |
Millimeter-Wave Chip-on-Board Integration and Packaging | p. 69 |
Motivation for a Chip-on-Board Approach for Millimeter-Wave Product Manufacturing | p. 69 |
The Drive for Low Cost | p. 69 |
Low-Cost Manufacturing Processes | p. 70 |
Problems Specific to Millimeter-Wave Electronics | p. 73 |
A Chip-on-Board Solution | p. 80 |
The Surface-Mount Panel | p. 81 |
Attaching the Bare Chips | p. 83 |
Wire Bond Interconnects | p. 83 |
Eliminating Wire Bonds in the RF Path | p. 84 |
Cover Lamination | p. 85 |
Segregation | p. 87 |
Testing | p. 87 |
Application Examples | p. 87 |
A 60-GHz Transceiver | p. 88 |
Miniaturized 60-GHz Transmitter and Receiver Modules | p. 89 |
76-Glh Automotive Radar Module Package | p. 89 |
Summary | p. 90 |
References | p. 90 |
Liquid Crystal Polymer for RF and Millimeter-Wave Multi-Layer Hermetic Packages and Modules | p. 91 |
Introduction | p. 91 |
Design and Fabrication of the Thin-Film LCP Package | p. 93 |
Lid Construction and Lamination | p. 97 |
Results and Model of Lowpass Feedthrough | p. 98 |
Hermeticity and Leak Rate Measurement | p. 101 |
Reliability of LCP Surface Mount Packages | p. 102 |
Non-operating Temperature Step Stressing | p. 103 |
Non-operating Thermal Shock Testing | p. 103 |
Operating Humidity Exposure Testing | p. 105 |
Reliability Testing Summary | p. 106 |
Bandpass Feedthrough | p. 106 |
Bandpass Feedthrough Design and Fabrication | p. 106 |
Bandpass Feedthrough Results and Discussion | p. 109 |
Conclusion | p. 111 |
References | p. 112 |
RF/Micrownve Substrate Packaging Roadmap for Portable Devices | p. 115 |
Introduction | p. 115 |
Substrate Materials for Portable Products | p. 116 |
RF Substrate Materials Thermal and Electrical Properties | p. 116 |
Standard FR-4 | p. 116 |
High TG FR-4 | p. 117 |
Polyimide | p. 118 |
Cyanate Ester Blend (BT- Bismaleamiden Triazine) | p. 118 |
PTFE Based Laminates | p. 119 |
PTFE Resin Coated on Conventional Glass | p. 119 |
PTFE Film Impregnated with Cyanate Ester or Epoxy Resin | p. 119 |
PTFE Mixed with Low Dk Ceramic | p. 119 |
Materials Summary | p. 120 |
Substrate Critical Properties | p. 120 |
Dielectric Constant (Dk) | p. 120 |
Dissipation Factor/Dielectric Loss: (tan ¿) | p. 121 |
Glass Transition Temperature (Tg) | p. 121 |
Glass Decomposition Temperature; Td | p. 121 |
Moisture Absorption | p. 122 |
Coefficient of Thermal Expansion | p. 122 |
Materials Summary | p. 122 |
Portable Products Technology Roadmap | p. 122 |
Summary | p. 126 |
Summary | p. 128 |
References | p. 128 |
Ceramic Systems in Package for RF and Microwave | p. 129 |
Introduction | p. 129 |
Rf-Platform | p. 129 |
LTCC for Systems in Package | p. 130 |
Design of Ceramic Packages | p. 131 |
Why Multi-Project Wafers Made of LTCC? | p. 131 |
Hermetic Capping of MEMS with Ceramic Lids | p. 132 |
LTCC Packages for Advanced RF and Microwave Applications | p. 133 |
Three Examples | p. 135 |
4 by 4 Patch Antenna Array for Operation at 35 GHz | p. 135 |
LTCC for 77-81 GHz Automotive Radar Systems-in-Package | p. 142 |
24 GHz Switched Beam Steering Array Antenna Based on RF MEMS Switch Matrix | p. 145 |
RF-MEMS for Radar and Telecom Applications | p. 155 |
Research Activities and Trends on RF-MEMS Switches | p. 156 |
References | p. 163 |
Low-Temperature Cofired-Ceramic Laminate Waveguides for mm Wave Applications | p. 165 |
Introduction | p. 165 |
The Laminated Waveguide | p. 166 |
Transitions to a LWG | p. 167 |
Rectangular Waveguide Theory | p. 169 |
LTCC Process | p. 174 |
Insertion Loss in an LTCC Laminated Waveguides | p. 174 |
U-band | p. 177 |
V-band | p. 178 |
E-band | p. 178 |
W-band | p. 178 |
F-band | p. 184 |
LWG-to-LWG Coupling | p. 184 |
LWG vs. Stripline | p. 184 |
Summary | p. 187 |
References | p. 188 |
LTCC Substrates for RF/MW Application | p. 189 |
Introduction | p. 189 |
LTCC Fabrication Process | p. 192 |
Current Status and Trend | p. 197 |
References | p. 203 |
High Thermal Dissipation Ceramics and Composite Materials for Microelectronic Packaging | p. 207 |
Introduction | p. 208 |
Ceramics and Carbon Based Materials | p. 210 |
Common Packaging Ceramics | p. 210 |
LTCC | p. 210 |
High Performance Packaging Ceramics (BeO AIN) | p. 215 |
Direct Bond Copper (DBC) Packaging | p. 218 |
RF/MW Brazed Packages | p. 220 |
Thin-Film Packaging | p. 221 |
Thick-Film Packaging | p. 221 |
Carbon Nanotubes (CNT) | p. 223 |
Composites | p. 223 |
Metal Matrix Composites | p. 223 |
Cu/cBN Composites | p. 227 |
Cu/SiC Composites | p. 228 |
Al/Diamond Composites | p. 228 |
Conclusions | p. 231 |
References | p. 231 |
High Performance Microelectronics Packaging Heat Sink Materials | p. 233 |
Introduction | p. 233 |
Refractory Metal Based Microelectronics Packaging Materials | p. 236 |
Development, Manufacturing and Application of Copper Tungsten | p. 236 |
Development, Manufacturing and Application of Copper Molybdenum (MoCu) | p. 241 |
Development, Manufacturing and Application of Copper-Molybdenum-Copper Laminates and Copper-Copper/Molybdenum-Copper Laminates | p. 244 |
Aluminum Based Heat Sink Materials | p. 248 |
AlSiC Heat Sink Materials | p. 248 |
New Development for Microelectronics Packaging Heat Sink Materials | p. 258 |
References | p. 261 |
Technology Research on AIN 3D MCM | p. 267 |
Introduction | p. 267 |
Experiment | p. 269 |
Co-fired Spacer Rod and 2D MCM Substrate | p. 269 |
Vertical Interconnected by BGA Solder Ball | p. 269 |
A1N 3D MCM Package | p. 269 |
Technological Method | p. 270 |
Result and Discussion | p. 270 |
General Technological Scheme | p. 270 |
Layout and Interconnect Design | p. 271 |
Matching Optimization Research on W paste and A1N Ceramics | p. 272 |
Technological Improvement Experiment of AIN 2D MCM Substrate | p. 273 |
The Making of Spacer Rod | p. 274 |
Package Technology | p. 276 |
Vertical Interconnected Technology Research | p. 276 |
Result of Experiment | p. 278 |
Conclusion | p. 278 |
References | p. 278 |
Index | p. 281 |
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