Describes and evaluates recent developments in the integration of passive components in wireless RF front ends, using real-world examples.Hinweis: Dieser Artikel kann nur an eine deutsche Lieferadresse ausgeliefert werden.
Hooman Darabi is a Senior Technical Director and Fellow of Broadcom Corporation, California, and an Adjunct Professor at the University of California, Irvine. He is an IEEE Solid State Circuits Society distinguished lecturer.
Inhaltsangabe
1. Introduction to highly integrated and tunable RF receiver front ends: 1.1. Introduction 1.2. Front-end integration challenges and system requirements 1.3. 2G receiver SAW elimination 1.4. 3G receiver SAW elimination 1.5. Summary and conclusions 2. Active blocker-cancellation techniques in receivers: 2.1. Introduction 2.2. Concept of receiver translational loop 2.3. Nonideal effects 2.4. Circuit implementations 2.5. Measurement results 2.6. Feedback blocker-cancellation techniques 2.7. Summary and conclusions 3. Impedance transformation: Introduction to the simplest on-chip SAW filter 3.1. Introduction 3.2. Impedance transformation by a 50% passive mixer 3.3. Application as on-chip SAW filter 3.4. Impact of harmonics on the sharpness of the proposed filter 3.5. Differential implementation 3.6. Summary and conclusions 4. Four-phase high-Q bandpass filters: 4.1. Introduction 4.2. Impedance transformation by a four-phase filter 4.3. Differential implementation of four-phase high-Q bandpass filter 4.4. Application as an on-chip SAW filter 4.5. Impact of harmonics on the sharpness of the proposed filter 4.6. Four-phase high-Q bandpass filter with a complex baseband impedance 4.7. Four-phase high-Q bandpass filter with quadrature RF inputs 4.8. Harmonic upconversion and downconversion 4.9. A SAW-less receiver with on-chip four-phase high-Q bandpass filters 4.10. Summary and conclusions 5. M-phase high-Q bandpass filters: 5.1. Introduction 5.2. Impedance transformation by M-phase filters 5.3. Differential implementation of M-phase high-Q filter 5.4. Application as an on-chip SAW filter 5.5. Impact of harmonics on the sharpness of the M-phase bandpass filter 5.6. M-phase high-Q filter with complex baseband impedances 5.7. M-phase high-Q bandpass filter with quadrature RF inputs 5.8. M-phase high-Q bandpass filter with N-phase complex bandpass filters 5.9. Harmonic upconversion 5.10. Summary and conclusions 6. Design of a superheterodyne receiver using M-phase filters: 6.1. Introduction 6.2. Proposed superheterodyne receiver architecture 6.3. Design and implementation of the receiver chain 6.4. Measurement results 6.5. Summary and conclusions 7. Impact of imperfections on the performance of M-phase filters: 7.1. Introduction 7.2. Mathematical background 7.3. LO phase noise 7.4. Second-order nonlinearity in the switches of the bandpass filter 7.5. Quadrature error in the original 50% duty-cycle clock phases 7.6. Harmonic downconversion 7.7. Thermal noise of switches 7.8. Parasitic capacitors of switches 7.9. Switch charge injection 7.10. Mismatches 7.11. Summary and conclusions 8. M-phase filtering and duality: 8.1. Introduction 8.2. Dual of an electrical circuit 8.3. Dual of M-phase filter 8.4. Dual of M-phase high-Q filter with complex baseband impedances 8.5. Summary and conclusions Appendix References Index.
1. Introduction to highly integrated and tunable RF receiver front ends: 1.1. Introduction 1.2. Front-end integration challenges and system requirements 1.3. 2G receiver SAW elimination 1.4. 3G receiver SAW elimination 1.5. Summary and conclusions 2. Active blocker-cancellation techniques in receivers: 2.1. Introduction 2.2. Concept of receiver translational loop 2.3. Nonideal effects 2.4. Circuit implementations 2.5. Measurement results 2.6. Feedback blocker-cancellation techniques 2.7. Summary and conclusions 3. Impedance transformation: Introduction to the simplest on-chip SAW filter 3.1. Introduction 3.2. Impedance transformation by a 50% passive mixer 3.3. Application as on-chip SAW filter 3.4. Impact of harmonics on the sharpness of the proposed filter 3.5. Differential implementation 3.6. Summary and conclusions 4. Four-phase high-Q bandpass filters: 4.1. Introduction 4.2. Impedance transformation by a four-phase filter 4.3. Differential implementation of four-phase high-Q bandpass filter 4.4. Application as an on-chip SAW filter 4.5. Impact of harmonics on the sharpness of the proposed filter 4.6. Four-phase high-Q bandpass filter with a complex baseband impedance 4.7. Four-phase high-Q bandpass filter with quadrature RF inputs 4.8. Harmonic upconversion and downconversion 4.9. A SAW-less receiver with on-chip four-phase high-Q bandpass filters 4.10. Summary and conclusions 5. M-phase high-Q bandpass filters: 5.1. Introduction 5.2. Impedance transformation by M-phase filters 5.3. Differential implementation of M-phase high-Q filter 5.4. Application as an on-chip SAW filter 5.5. Impact of harmonics on the sharpness of the M-phase bandpass filter 5.6. M-phase high-Q filter with complex baseband impedances 5.7. M-phase high-Q bandpass filter with quadrature RF inputs 5.8. M-phase high-Q bandpass filter with N-phase complex bandpass filters 5.9. Harmonic upconversion 5.10. Summary and conclusions 6. Design of a superheterodyne receiver using M-phase filters: 6.1. Introduction 6.2. Proposed superheterodyne receiver architecture 6.3. Design and implementation of the receiver chain 6.4. Measurement results 6.5. Summary and conclusions 7. Impact of imperfections on the performance of M-phase filters: 7.1. Introduction 7.2. Mathematical background 7.3. LO phase noise 7.4. Second-order nonlinearity in the switches of the bandpass filter 7.5. Quadrature error in the original 50% duty-cycle clock phases 7.6. Harmonic downconversion 7.7. Thermal noise of switches 7.8. Parasitic capacitors of switches 7.9. Switch charge injection 7.10. Mismatches 7.11. Summary and conclusions 8. M-phase filtering and duality: 8.1. Introduction 8.2. Dual of an electrical circuit 8.3. Dual of M-phase filter 8.4. Dual of M-phase high-Q filter with complex baseband impedances 8.5. Summary and conclusions Appendix References Index.
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