The Design of CMOS Radio-Frequency Integrated CircuitsCambridge University Press, 22 dic 2003 This book, first published in 2004, is an expanded and thoroughly revised edition of Tom Lee's acclaimed guide to the design of gigahertz RF integrated circuits. A new chapter on the principles of wireless systems provides a bridge between system and circuit issues. The chapters on low-noise amplifiers, oscillators and phase noise have been significantly expanded. The chapter on architectures now contains several examples of complete chip designs, including a GPS receiver and a wireless LAN transceiver, that bring together the theoretical and practical elements involved in producing a prototype chip. Every section has been revised and updated with findings in the field and the book is packed with physical insights and design tips, and includes a historical overview that sets the whole field in context. With hundreds of circuit diagrams and homework problems this is an ideal textbook for students taking courses on RF design and a valuable reference for practising engineers. |
Dall'interno del libro
Risultati 1-5 di 81
Pagina 13
... output signal). To top things off, the audion filaments (made of tantalum) had a life of only about 100-200 hours. It would be a while before the vacuum tube could take over the world. 1.5 ARMSTRONG AND THE REGENERATIVE AMPLIFIER ...
... output signal). To top things off, the audion filaments (made of tantalum) had a life of only about 100-200 hours. It would be a while before the vacuum tube could take over the world. 1.5 ARMSTRONG AND THE REGENERATIVE AMPLIFIER ...
Pagina 29
... output node from the input node so that the input doesn't have to charge a magnified capacitance. Although this technique could also be used in vacuum tubes, there is a simpler way: add another grid (called the screen grid) between the ...
... output node from the input node so that the input doesn't have to charge a magnified capacitance. Although this technique could also be used in vacuum tubes, there is a simpler way: add another grid (called the screen grid) between the ...
Pagina 30
... output current depends less on the plate-to-cathode voltage. Hence, the output resistance increases and pentodes thus provide large amplification factors (thousands, compared with a typical triode's value of about ten or twenty) and low ...
... output current depends less on the plate-to-cathode voltage. Hence, the output resistance increases and pentodes thus provide large amplification factors (thousands, compared with a typical triode's value of about ten or twenty) and low ...
Pagina 66
... output, ) for I ,SH output. FIGURE 2.17. Carson's filter method of SSB generation (USB example shown). 42 Ralph V. L. Hartley, U.S. Patent #1.666,206, filed 15 January 1925, granted 17 April 1928. 43 Hartley does not explain his method ...
... output, ) for I ,SH output. FIGURE 2.17. Carson's filter method of SSB generation (USB example shown). 42 Ralph V. L. Hartley, U.S. Patent #1.666,206, filed 15 January 1925, granted 17 April 1928. 43 Hartley does not explain his method ...
Pagina 67
... output (shown) Re Re FIGURE 2.18. Hartley's SSB method (the "phasing method"). phase shifter converts the even ... output. Subtraction of the upper path's contribution from that of the lower leaves us with a pure USB output. Proper ...
... output (shown) Re Re FIGURE 2.18. Hartley's SSB method (the "phasing method"). phase shifter converts the even ... output. Subtraction of the upper path's contribution from that of the lower leaves us with a pure USB output. Proper ...
Sommario
1 | |
40 | |
PASSIVE RLC NETWORKS | 87 |
CHARACTERISTICS OF PASSIVE 1C COMPONENTS | 114 |
A REVIEW OF MOS DEVICE PHYSICS | 167 |
DISTRIBUTED SYSTEMS | 202 |
THE SMITH CHART AND SPARAMETERS | 221 |
A Short Note on Units | 227 |
Gain and Phase Margin as Stability Measures | 451 |
RootLocus Techniques | 453 |
Summary of Stability Criteria | 459 |
Errors in Feedback Systems | 462 |
Frequency and TimeDomain Characteristics of First and SecondOrder Systems | 466 |
Useful Rules of Thumb | 469 |
RootLocus Examples and Compensation | 470 |
Summary of RootLocus Techniques | 477 |
Why 50 or 75 W | 229 |
Problem Set | 231 |
BANDWIDTH ESTIMATION TECHNIQUES | 233 |
The Method of OpenCircuit Time Constants | 234 |
The Method of ShortCircuit Time Constants | 254 |
Further Reading | 259 |
Summary | 265 |
Problem Set | 266 |
HIGHFREQUENCY AMPLIFIER DESIGN | 270 |
Zeros as Bandwidth Enhancers | 271 |
The ShuntSeries Amplifier | 282 |
Bandwidth Enhancement with fT Doublers | 288 |
Tuned Amplifiers | 290 |
Neutralization and Unilateralization | 294 |
Cascaded Amplifiers | 297 |
AMPM Conversion | 306 |
Summary | 307 |
Problem Set | 308 |
VOLTAGE REFERENCES AND BIASING | 314 |
Diodes and Bipolar Transistors in CMOS Technology | 316 |
SupplyIndependent Bias Circuits | 317 |
Bandgap Voltage Reference | 318 |
Constantgm Bias | 325 |
Summary | 328 |
NOISE | 334 |
Shot Noise | 342 |
Flicker Noise | 344 |
Popcorn Noise | 347 |
Classical TwoPort Noise Theory | 348 |
Examples of Noise Calculations | 352 |
A Handy Rule of Thumb | 355 |
Typical Noise Performance | 356 |
Noise Models | 357 |
Problem Set | 358 |
LNA DESIGN | 364 |
Derivation of Intrinsic MOSFET TwoPort Noise Parameters | 365 |
Power Match versus Noise Match | 373 |
PowerConstrained Noise Optimization | 380 |
Design Examples | 384 |
Linearity and LargeSignal Performance | 390 |
SpuriousFree Dynamic Range | 397 |
Summary | 399 |
Problem Set | 400 |
MIXERS | 404 |
Mixer Fundamentals | 405 |
Nonlinear Systems as Linear Mixers | 411 |
MultiplierBased Mixers | 416 |
Subsampling Mixers | 433 |
DiodeRing Mixers | 434 |
Problem Set | 437 |
FEEDBACK SYSTEMS | 441 |
A Puzzle | 446 |
Stability of Feedback Systems | 450 |
Compensation through Gain Reduction | 478 |
Lag Compensation | 481 |
Lead Compensation | 484 |
Slow Rolloff Compensation | 486 |
Summary of Compensation | 487 |
Problem Set | 488 |
RF POWER AMPLIFIERS | 493 |
ClassAAB B and C Power Amplifiers | 494 |
Class D Amplifiers | 503 |
Class E Amplifiers | 505 |
Class F Amplifiers | 507 |
Modulation of Power Amplifiers | 512 |
Summary of PA Characteristics | 540 |
RF PA Design Examples | 541 |
Additional Design Considerations | 547 |
Design Summary | 555 |
PHASELOCKED LOOPS | 560 |
Linearized PLL Models | 566 |
Some Noise Properties of PLLs | 571 |
Phase Detectors | 574 |
Sequential Phase Detectors | 579 |
Loop Filters and Charge Pumps | 588 |
PLL Design Examples | 596 |
Summary | 604 |
OSCILLATORS AND SYNTHESIZERS | 610 |
Describing Functions | 611 |
Resonators | 631 |
A Catalog of Tuned Oscillators | 635 |
Negative Resistance Oscillators | 641 |
Frequency Synthesis | 645 |
Summary | 654 |
Problem Set | 655 |
PHASE NOISE | 659 |
General Considerations | 661 |
Phase Noise | 664 |
The Roles of Linearity and Time Variation in Phase Noise | 667 |
Circuit Examples | 678 |
Amplitude Response | 687 |
Summary | 689 |
Problem Set | 690 |
ARCHITECTURES | 694 |
Dynamic Range | 695 |
Subsampling | 713 |
Transmitter Architectures | 714 |
Oscillator Stability | 715 |
Chip Design Examples | 716 |
Summary | 762 |
RF CIRCUITS THROUGH THE AGES | 764 |
The AllAmerican 5Tube Superhet | 768 |
The Regency TR1 Transistor Radio | 771 |
ThreeTransistor Toy CB WalkieTalkie | 773 |
Index 111 | 777 |
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