
Modern Wireless Communications
by Haykin, Simon O.; Moher, Michael-
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Summary
Table of Contents
Preface | p. xiii |
Introduction | p. 1 |
Background | p. 1 |
Communication Systems | p. 3 |
The Physical Layer | p. 3 |
The Data-Link Layer | p. 5 |
FDMA | p. 5 |
TDMA | p. 6 |
CDMA | p. 7 |
SDMA | p. 8 |
Overview of the Book | p. 8 |
Notes and References | p. 10 |
Propagation and Noise | p. 11 |
Introduction | p. 11 |
Free-Space Propagation | p. 13 |
Isotropic Radiation | p. 13 |
Directional Radiation | p. 15 |
The Friis Equation | p. 18 |
Polarization | p. 19 |
Terrestrial Propagation: Physical Models | p. 19 |
Reflection and the Plane-Earth Model | p. 20 |
Diffraction | p. 24 |
Diffraction Losses | p. 28 |
Terrestrial Propagation: Statistical Models | p. 30 |
Median Path Loss | p. 30 |
Local Propagation Loss | p. 32 |
Indoor Propagation | p. 33 |
Local Propagation Effects with Mobile Radio | p. 36 |
Rayleigh Fading | p. 36 |
Rician Fading | p. 40 |
Doppler | p. 42 |
Fast Fading | p. 44 |
Channel Classification | p. 48 |
Time-Selective Channels | p. 50 |
Frequency-Selective Channels | p. 52 |
General Channels | p. 52 |
WSSUS Channels | p. 54 |
Coherence Time | p. 57 |
Power-Delay Profile | p. 58 |
Coherence Bandwidth | p. 60 |
Stationary and Nonstationary Channels | p. 61 |
Summary of Channel Classification | p. 62 |
Noise and Interference | p. 63 |
Thermal Noise | p. 63 |
Equivalent Noise Temperature and Noise Figure | p. 66 |
Noise in Cascaded Systems | p. 68 |
Man-Made Noise | p. 70 |
Multiple-Access Interference | p. 71 |
Link Calculations | p. 75 |
Free-Space Link Budget | p. 75 |
Terrestrial Link Budget | p. 80 |
Theme Example 1: Okumura-Hata Empirical Model | p. 82 |
Theme Example 2: Wireless Local Area Networks | p. 85 |
Propagation Model | p. 85 |
Receiver Sensitivity | p. 85 |
Range | p. 86 |
Power-Delay Profile | p. 86 |
Modulation | p. 88 |
Theme Example 3: Impulse Radio and Ultra-Wideband | p. 89 |
Summary and Discussion | p. 94 |
Notes and References | p. 95 |
Additional Problems | p. 96 |
Modulation and Frequency-Division Multiple Access | p. 103 |
Introduction | p. 103 |
Modulation | p. 105 |
Linear and Nonlinear Modulation Processes | p. 106 |
Analog and Digital Modulation Techniques | p. 107 |
Amplitude and Angle Modulation Processes | p. 107 |
Linear Modulation Techniques | p. 108 |
Amplitude Modulation | p. 108 |
Binary Phase-Shift Keying | p. 110 |
Quadriphase-Shift Keying | p. 112 |
Offset Quadriphase-Shift Keying | p. 114 |
[pi]/4-Shifted Quadriphase-Shift Keying | p. 116 |
Pulse Shaping | p. 116 |
Root Raised-Cosine Pulse Shaping | p. 119 |
Complex Representation of Linear Modulated Signals and Band-Pass Systems | p. 122 |
Complex Representation of Linear Band-Pass Systems | p. 124 |
Signal-Space Representation of Digitally Modulated Signals | p. 126 |
Nonlinear Modulation Techniques | p. 130 |
Frequency Modulation | p. 130 |
Binary Frequency-Shift Keying | p. 132 |
Continuous-Phase Modulation: Minimum Shift Keying | p. 133 |
Power Spectra of MSK Signal | p. 137 |
Gaussian-Filtered MSK | p. 139 |
Frequency-Division Multiple Access | p. 142 |
Two Practical Issues of Concern | p. 144 |
Adjacent Channel Interference | p. 144 |
Power Amplifier Nonlinearity | p. 146 |
Comparison of Modulation Strategies for Wireless Communications | p. 148 |
Linear Channels | p. 148 |
Nonlinear Channels | p. 150 |
Channel Estimation and Tracking | p. 151 |
Differential Detection | p. 152 |
Pilot Symbol Transmission | p. 154 |
Receiver Performance: Bit Error Rate | p. 158 |
Channel Noise | p. 158 |
Theme Example 1: Orthogonal Frequency-Division Multiplexing | p. 162 |
Cyclic Prefix | p. 167 |
Theme Example 2: Cordless Telecommunications | p. 168 |
Summary and Discussion | p. 170 |
Notes and References | p. 171 |
Additional Problems | p. 173 |
Coding and Time-Division Multiple Access | p. 179 |
Introduction | p. 179 |
Sampling | p. 182 |
Why Follow Sampling with Coding? | p. 184 |
Shannon's Information Theory | p. 185 |
Source-Coding Theorem | p. 185 |
Channel-Coding Theorem | p. 186 |
Information Capacity Theorem | p. 187 |
Rate Distortion Theory | p. 188 |
Speech Coding | p. 189 |
Linear Prediction | p. 189 |
Multipulse Excited LPC | p. 190 |
Code-Excited LPC | p. 192 |
Error-Control Coding | p. 193 |
Cyclic Redundancy Check Codes | p. 194 |
Convolutional Codes | p. 195 |
Trellis and State Diagrams of Convolutional Codes | p. 198 |
Free Distance of a Convolutional Code | p. 200 |
Maximum-Likelihood Decoding of Convolutional Codes | p. 201 |
The Viterbi Algorithm | p. 203 |
Modifications of the Viterbi Algorithm | p. 205 |
Interleaving | p. 207 |
Block Interleaving | p. 208 |
Convolutional Interleaving | p. 210 |
Random Interleaving | p. 212 |
Noise Performance of Convolutional Codes | p. 212 |
Turbo Codes | p. 215 |
Turbo Encoding | p. 215 |
Turbo Decoding | p. 216 |
Noise Performance | p. 218 |
Maximum a Posteriori Probability Decoding | p. 219 |
Comparison of Channel-Coding Strategies for Wireless Communications | p. 222 |
Encoding | p. 223 |
Decoding | p. 224 |
AWGN Channel | p. 225 |
Fading Wireless Channels | p. 225 |
Latency | p. 225 |
Joint Equalization and Decoding | p. 226 |
RF Modulation Revisited | p. 226 |
Baseband Processing for Channel Estimation and Equalization | p. 227 |
Channel Estimation | p. 229 |
Viterbi Equalization | p. 231 |
Time-Division Multiple Access | p. 233 |
Advantages of TDMA over FDMA | p. 234 |
TDMA Overlaid on FDMA | p. 235 |
Theme Example 1: GSM | p. 236 |
Theme Example 2: Joint Equalization and Decoding | p. 239 |
Computer Experiment | p. 241 |
Theme Example 3: Random-Access Techniques | p. 243 |
Pure Aloha | p. 243 |
Slotted Aloha | p. 245 |
Carrier-Sense Multiple Access | p. 245 |
Other Considerations with Random-Access Protocols | p. 248 |
Summary and Discussion | p. 249 |
Notes and References | p. 251 |
Additional Problems | p. 252 |
Spread Spectrum and Code-Division Multiple Access | p. 258 |
Introduction | p. 258 |
Direct-Sequence Modulation | p. 260 |
The Spreading Equation | p. 260 |
Matched-Filter Receiver | p. 262 |
Performance with Interference | p. 263 |
Spreading Codes | p. 265 |
Walsh-Hadamard Sequences | p. 267 |
Orthogonal Variable Spreading Factors | p. 269 |
Maximal-Length Sequences | p. 270 |
Scramblers | p. 274 |
Gold Codes | p. 274 |
Random Sequences | p. 276 |
The Advantages of CDMA for Wireless | p. 279 |
Multiple-Access Interference | p. 279 |
Multipath Channels | p. 283 |
RAKE Receiver | p. 284 |
Fading Channels | p. 288 |
Summary of the Benefits of DS-SS | p. 289 |
Code Synchronization | p. 290 |
Channel Estimation | p. 292 |
Power Control: The Near-Far Problem | p. 294 |
FEC Coding and CDMA | p. 297 |
Multiuser Detection | p. 299 |
CDMA in a Cellular Environment | p. 301 |
Frequency-Hopped Spread Spectrum | p. 306 |
Complex Baseband Representation of FH-SS | p. 307 |
Slow-Frequency Hopping | p. 308 |
Fast-Frequency Hopping | p. 310 |
Processing Gain | p. 310 |
Theme Example 1: IS-95 | p. 311 |
Channel Protocol | p. 311 |
Pilot Channel | p. 313 |
Downlink CDMA Channels | p. 314 |
Power Control | p. 316 |
Cellular Considerations | p. 317 |
Uplink | p. 318 |
Theme Example 2: GPSS | p. 319 |
Theme Example 3: Bluetooth | p. 321 |
Theme Example 4: WCDMA | p. 323 |
Bandwidth and Chip Rate | p. 324 |
Data Rates and Spreading Factor | p. 324 |
Modulation and Synchronization | p. 324 |
Forward Error-Correction Codes | p. 324 |
Channel Types | p. 325 |
Uplink | p. 325 |
Downlink | p. 326 |
Multicode Transmission | p. 327 |
Cellular Considerations | p. 327 |
Theme Example 5: Wi-Fi | p. 328 |
Summary and Discussion | p. 331 |
Notes and References | p. 332 |
Additional Problems | p. 333 |
Diversity, Capacity, and Space-Division Multiple Access | p. 339 |
Introduction | p. 339 |
"Space Diversity on Receive" Techniques | p. 341 |
Selection Combining | p. 341 |
Maximal-Ratio Combining | p. 346 |
Equal-Gain Combining | p. 353 |
Square-Law Combining | p. 353 |
Multiple-Input, Multiple-Output Antenna Systems | p. 357 |
Coantenna Interference | p. 358 |
Basic Baseband Channel Model | p. 360 |
MIMO Capacity for Channel Known at the Receiver | p. 363 |
Ergodic Capacity | p. 363 |
Two Other Special Cases of the Log-Det Formula: Capacities of Receive and Transmit Diversity Links | p. 366 |
Outage Capacity | p. 367 |
Channel Known at the Transmitter | p. 371 |
Singular-Value Decomposition of the Channel Matrix | p. 371 |
Eigendecomposition of the Log-det Capacity Formula | p. 374 |
Space-Time Codes for MIMO Wireless Communications | p. 376 |
Preliminaries | p. 378 |
Alamouti Code | p. 379 |
Performance Comparison of Diversity-on-Receive and Diversity-on-Transmit Schemes | p. 387 |
Generalized Complex Orthogonal Space-Time Block Codes | p. 389 |
Performance Comparisons of Different Space-Time Block Codes Using a Single Receiver | p. 392 |
Differential Space-Time Block Codes | p. 395 |
Differential Space-Time Block Coding | p. 395 |
Transmitter and Receiver Structures | p. 401 |
Noise Performance | p. 402 |
Space-Division Multiple Access and Smart Antennas | p. 404 |
Antenna Arrays | p. 406 |
Multipath with Directional Antennas | p. 412 |
Theme Example 1: BLAST Architectures | p. 415 |
Diagonal-BLAST Architecture | p. 416 |
Vertical-BLAST Architecture | p. 417 |
Turbo-BLAST Architecture | p. 419 |
Experimental Performance Evaluation of Turbo-BLAST versus V-BLAST | p. 422 |
Theme Example 2: Diversity, Space-Time Block Codes, and V-BLAST | p. 426 |
Diversity-on-Receive versus Diversity-on-Transmit | p. 426 |
Space-Time Block Codes versus V-BLAST | p. 427 |
Diversity Order and Multiplexing Gain | p. 429 |
Theme Example 3: Keyhole Channels | p. 432 |
Summary and Discussion | p. 436 |
Notes and References | p. 439 |
Additional Problems | p. 441 |
Wireless Architectures | p. 450 |
Introduction | p. 450 |
Comparison of Multiple-Access Strategies | p. 450 |
OSI Reference Model | p. 454 |
The OSI Model and Wireless Communications | p. 457 |
MAC Sublayer Signaling and Protocols | p. 458 |
Power Control | p. 461 |
Open Loop | p. 462 |
Closed Loop | p. 463 |
Outer-Loop Power Control | p. 464 |
Other Considerations | p. 464 |
Handover | p. 465 |
Handover Algorithms | p. 465 |
Multiple-Access Considerations | p. 466 |
Network Layer | p. 467 |
Cellular Networks | p. 467 |
Indoor LANs | p. 469 |
Theme Example 1: Wireless Telephone Network Standards | p. 470 |
Theme Example 2: Wireless Data Network Standards | p. 472 |
Theme Example 3: IEEE 802.11 MAC | p. 473 |
Summary and Discussion | p. 475 |
Notes and References | p. 476 |
Problems | p. 476 |
Table of Contents provided by Rittenhouse. All Rights Reserved. |
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