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Frequency Synthesizers: Theory and Design 3rd edition [Pehme köide]

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  • Formaat: Paperback / softback, 624 pages, kõrgus x laius x paksus: 236x158x31 mm, kaal: 789 g
  • Ilmumisaeg: 21-Oct-2005
  • Kirjastus: Wiley-Interscience
  • ISBN-10: 0471772631
  • ISBN-13: 9780471772637
Teised raamatud teemal:
Frequency Synthesizers: Theory and Design 3rd editionSuurem pilt
  • Formaat: Paperback / softback, 624 pages, kõrgus x laius x paksus: 236x158x31 mm, kaal: 789 g
  • Ilmumisaeg: 21-Oct-2005
  • Kirjastus: Wiley-Interscience
  • ISBN-10: 0471772631
  • ISBN-13: 9780471772637
Teised raamatud teemal:
Püsilink: https://www.kriso.ee/db/9780471772637.html
Märksõnad:
The landmark text on frequency synthesizers-now in paperback

Frequency Synthesizers: Theory and Design, Third Edition is the newest edition of Vadim Manassewitsch's definitive treatment of the subject. Updated to include the latest achievements in the performance of crystal-controlled oscillators, the design theory of fast-switching-time synthesizers, and an example of their practical applications, the book continues to be a complete guide for everyone who works with synthesizers.

Intended to formulate basic design principles and to demonstrate design procedures meeting several stringent requirements simultaneously, its emphasis is on high-speed synthesis and its new applications in radar, spread spectrum communications, automatic test equipment, and nuclear magnetic resources. Manassewitsch describes numerous approaches to ultra-stable signal sources generating spectrally pure signals of high accuracy, and shows how various building blocks such as mixers, oscillators, and frequency multipliers and dividers are used in frequency synthesis. To meet the needs of engineers in this rapidly growing field, Manassewitsch has added several novel frequency synthesis techniques, developed the principles of high-speed synthesis, and described new synthesizers using important design approaches.

A summary of the most recent developments in frequency generation and control, the book is firmly based on the realities of current design practices in the United States as well as abroad. With an intermodulation products chart among its figures, a computer program that calculates the frequencies of mixer intermodulation products among its appendices, and a bibliography of more than 190 references, Frequency Synthesizers: Theory and Design continues to be an invaluable aid for engineers, managers, instructors, and students.
Chapter
1. Frequency Synthesis		 1(50)
1-1 Incoherent Synthesis,
2(5)
1-2 Coherent Direct Synthesis,
7(15)
Brute-Force Approach,
7(2)
Harmonic Approach,
9(2)
Double-Mix Approach,
11(1)
Triple-Mix Approach,
11(5)
Double-Mix-Divide Approach,
16(6)
1-3 Coherent Indirect Synthesis,
22(15)
Analog Phase-Locked Loop,
23(8)
Digital Phase-Locked Loop,
31(6)
1-4 Coherent Direct Digital Synthesis,
37(6)
1-5 Fractional-N Phase-Locked Loop,
43(5)
1-6 Conclusions,
48(3)
Chapter
2. System Analysis		 51(113)
2-1 Spurious Outputs,
51(53)
Amplitude Modulation,
53(1)
Single-Tone Frequency and Phase Modulation,
54(7)
Intermodulation Products in Mixers,
61(10)
Spurious Signals in Frequency Multipliers,
71(5)
Spurious Signals in Frequency Dividers,
76(3)
Spurious Signals in an Ideal Limiter,
79(4)
Amplitude-Modulation-to-Phase-Modulation Conversion,
83(10)
Resolution of a Single Spurious Signal into AM and FM Components,
93(4)
Spurious Outputs at the Power Line Frequency,
97(1)
Techniques for Reducing Spurious Outputs,
98(2)
Techniques for Measuring Spurious Outputs,
100(4)
2-2 Phase Noise,
104(43)
Stability of Frequency Sources,
104(6)
Types of Noise,
110(2)
Phase Noise in Oscillators,
112(7)
Phase Noise in RF Amplifiers and Frequency Multipliers,
119(5)
Noise in Limiters,
124(1)
Phase Noise in Frequency Dividers,
125(2)
Phase-Noise Reduction Techniques,
127(1)
Techniques for Measuring Phase Noise,
128(19)
2-3 Bandwidth-Switching Speed Considerations,
147(1)
2-4 Technique of Measuring Synthesizer Switching Time,
148(3)
2-5 An Example of System Design,
151(13)
Chapter
3. Shielding		 164(73)
3-1 Electrostatic Fields,
165(8)
Absence of a Shield,
166(3)
Electrostatic Shields,
169(2)
Ungrounded or Improperly Grounded Shields,
171(1)
Screening Provided by the Cover,
172(1)
Screening by Separation,
173(1)
3-2 Electromagnetic Fields,
173(1)
3-3 Magnetic Fields,
174(2)
3-4 Electromagnetic Shields,
176(16)
Shielding Effectiveness,
177(1)
Shielding against Near Fields,
178(10)
Shielding against Far Fields,
188(1)
Shielding Discontinuities,
189(3)
3-5 Design Considerations,
192(45)
Packaging,
193(6)
Gaskets,
199(3)
Degradation of Shielding Effectiveness Due to Corrosion and Plating,
202(4)
Shielding Materials,
206(1)
Radio-Frequency Wire Interference,
206(14)
Pulse Interference,
220(17)
Chapter
4. Analog Phase-Locked Loops		 237(57)
4-1 Basic Principles of Feedback Systems,
237(8)
4-2 Performance of a Phase-Locked Loop,
245(38)
Transfer Functions,
247(1)
First-Order Phase-Locked Loop,
248(7)
Second-Order Phase-Locked Loop,
255(8)
Second-Order Phase-Locked Loop with a Perfect Integrator,
263(5)
Acquisition,
268(7)
Stability of Analog Phase-Locked Loops,
275(8)
4-3 Phase Noise,
283(3)
4-4 Spurious Outputs,
286(3)
Amplitude Modulation,
286(1)
Phase Modulation,
287(1)
Spurious Signals Unrelated to the Final PLL Output,
287(2)
4-5 Example of an Analog PLL Design,
289(5)
Chapter
5. Digital Phase-Locked Loops		 294(27)
5-1 Performance of a Digital Phase-Locked Loop,
294(14)
Transfer Functions,
296(2)
First-Order Phase-Locked Loop,
298(4)
Second-Order Phase-Locked Loop,
302(3)
Second-Order Phase-Locked Loop with a Perfect Integrator,
305(3)
5-2 Design Considerations,
308(13)
Chapter
6. Basic Circuits		 321(117)
6-1 Tuned Amplifiers,
321(9)
6-2 Radio-Frequency Mixers,
330(17)
Transistor Mixer,
331(2)
Field-Effect Transistor Mixer,
333(3)
Diode Mixers,
336(3)
Parametric Mixers,
339(8)
6-3 Frequency Multipliers,
347(14)
Transistor Frequency Multiplier,
348(1)
Saturable Inductor Multiplier,
349(2)
Step Recovery Diode Multiplier,
351(9)
Phase-Locked Loop Frequency Multiplier,
360(1)
6-4 Frequency Dividers,
361(18)
Regenerative Frequency Divider,
361(2)
Locked-Oscillator Frequency Divider,
363(1)
Digital Frequency Dividers,
364(8)
Divide-by-2 Carrier-Storage Frequency Divider,
372(4)
Divide-by-2 Parametric Frequency Divider,
376(3)
Phase-Locked Loop Frequency Divider,
379(1)
6-5 Voltage-Controlled Oscillators,
379(19)
Colpitts Oscillator,
380(13)
Transmission Line VCO,
393(5)
6-6 Techniques of Frequency Pulling of Crystal-Controlled Oscillators,
398(9)
6-7 Phase Detectors,
407(11)
Sinusoidal Phase Detector,
407(3)
Sample-and-Hold Phase Comparator,
410(8)
6-8 Frequency Discriminators,
418(5)
Foster-Seeley Discriminator,
418(4)
Balanced Discriminator,
422(1)
6-9 Sweep Circuits for PLL Acquisition,
423(8)
Unijunction Relaxation Oscillator,
423(6)
Astable Multivibrator,
429(2)
6-10 Voltage-Controlled Oscillator Tuning Circuits,
431(7)
Chapter
7. Frequency Synthesizers		 438(84)
7-1 Incoherent Synthesizers,
438(7)
7-2 Coherent Synthesizers,
445(26)
HF Synthesizer, Model 645A, Manufactured by John Fluke Mfg. Co. Inc.,
445(7)
UHF Synthesizer, Model 5105A/5110B, Manufactured by Hewlett-Packard Company,
452(9)
GI/ESD Digital Synthesizers,
461(10)
7-3 Microwave Synthesizers,
471(23)
UHF-SHF Synthesizer, Systron-Donner's 1600 Series,
478(6)
UHF-SHF Synthesizer, Model WJ-1250, Manufactured by Watkins-Johnson Company,
484(10)
7-4 Direct Digital Synthesizers: Wavetek, Former Rockland Systems, Model 5100,
494(7)
7-5 Synthesized Signal Generators: Hewlett-Packard Model 8662A,
501(9)
7-6 Hybrid Synthesizers: Wavetek Model 5155A,
510(12)
Chapter
8. Frequency Reference Sources		 522(26)
8-1 Crystal-Controlled Oscillators,
522(9)
8-2 Atomic Frequency Standards,
531(17)
Rubidium Frequency Standard, Model 304D, Manufactured by Tracor, Inc.,
531(8)
Cesium Beam Frequency Standard, Model 5061A, Manufactured by Hewlett-Packard Company,
539(9)
Chapter
9. Troubleshooting of Synthesizers		 548(30)
9-1 Basic Principles,
548(11)
Analysis,
549(1)
Subdivision,
549(2)
Selection of Test Equipment,
551(4)
Elimination by Substitution,
555(1)
Taking Data,
555(3)
Comparing Measured Data to Specifications,
558(1)
9-2 Spurious Products in Mixers,
559(5)
Single Mixer,
559(3)
Two Mixers in Cascade,
562(2)
9-3 Troubleshooting of Direct Synthesizers,
564(1)
9-4 Troubleshooting of Indirect Synthesizers—A Phase-Locked Loop,
564(8)
Closed-Loop Testing of Phase-Locked Loops,
565(4)
Open-Loop Testing of Phase-Locked Loops,
569(3)
9-5 Examples,
572(6)
Chapter
10. Fast-Switching-Time Synthesizers		 578(16)
10-1 System Approaches,
578(3)
Direct Analog Synthesizers,
578(2)
Direct Digital Synthesizers,
580(1)
Indirect Digital Synthesizers,
580(1)
Hybrid Synthesizers—Best Choice for Fast Frequency Hopping,
580(1)
10-2 System Optimization of Phase-Locked Loop Synthesizer,
581(6)
Maximum Loop Bandwidth,
582(1)
Automatic Bandwidth Switchover,
583(1)
Phase-Locked Loop with Frequency Divider,
584(1)
Multi-Loop Synthesizer,
585(1)
Phase-Locked Loop and Direct Digital Synthesizer,
586(1)
Phase-Locked Loop in Double-Mix Synthesis,
586(1)
10-3 Circuit Optimization of Phase-Locked Loop Synthesizer,
587(7)
Fast-Tuning-Time Voltage-Controlled Oscillator,
587(3)
High-Speed Sample-Hold Phase Comparator,
590(2)
Loop Filter,
592(2)
Appendix A 594(6)
Appendix B 600(1)
Index 601
VADIM MANASSEWITSCH graduated from Columbia University in 1959. Since 1981, he has worked independently as a consultant, teaching frequency synthesis and designing state-of-the-art synthesizers—his specialty for twenty-seven years. Previously, he served as an electrical engineer with Manson Laboratories, Inc., as a project engineer with Westrex Company—a division of Litton Industries—and as a member of the technical staff of RCA's Surface Communications Systems Laboratory. He worked as a project engineer for Polarad Electronic Instruments, as a senior member of the technical staff of ITT's Defense Communications Division, as an engineering consultant for GI's Electronic Systems Division, and as a senior member of the technical staff of Rockland Systems, Inc.