IEEE Microwave and Wireless Components Letters, ISSN 1531-1309, 02/2014, Volume 24, Issue 2, pp. 105 - 107
This letter presents a fully differential injection locked frequency divider using coupled dual LC tanks. The proposed injection locked frequency divide-by-2...
Phase noise | Resistance | Wireless communication | 24 GHz | Frequency conversion | Coupled dual LC tanks | injection locked frequency divider (ILFD) | K -band | Transistors | divide-by-2 | Inductors | Power generation | K-band | DIVIDERS | ENGINEERING, ELECTRICAL & ELECTRONIC | Tanks | Noise | Dividers | Joining | Offsets | Microwaves | Silicon germanides | Locking
Phase noise | Resistance | Wireless communication | 24 GHz | Frequency conversion | Coupled dual LC tanks | injection locked frequency divider (ILFD) | K -band | Transistors | divide-by-2 | Inductors | Power generation | K-band | DIVIDERS | ENGINEERING, ELECTRICAL & ELECTRONIC | Tanks | Noise | Dividers | Joining | Offsets | Microwaves | Silicon germanides | Locking
Journal Article
IEEE Transactions on Circuits and Systems II: Express Briefs, ISSN 1549-7747, 11/2013, Volume 60, Issue 11, pp. 736 - 740
This brief presents a fully differential K-band voltage-controlled oscillator (VCO) using commercial 0.18- μm SiGe BiCMOS process. By using triple-coupled LC...
Phase noise | Coils | 24 GHz | Coupled LC tanks | Tuning | Couplings | Resistance | SiGe | Voltage-controlled oscillators | K-band | frequency tuning range (FTR) | low power | K -band | voltage-controlled oscillator (VCO) | Frequency tuning range (FTR) | Voltage-controlled oscillator (VCO) | Low power | NOISE | phase noise | ENGINEERING, ELECTRICAL & ELECTRONIC | BiCMOS | Crystal oscillators | Research | Analysis | Tuning (Electronics) | Electric properties | Tanks | Noise | Oscillations | Capacitor banks | Voltage controlled oscillators | Frequency ranges | Silicon germanides
Phase noise | Coils | 24 GHz | Coupled LC tanks | Tuning | Couplings | Resistance | SiGe | Voltage-controlled oscillators | K-band | frequency tuning range (FTR) | low power | K -band | voltage-controlled oscillator (VCO) | Frequency tuning range (FTR) | Voltage-controlled oscillator (VCO) | Low power | NOISE | phase noise | ENGINEERING, ELECTRICAL & ELECTRONIC | BiCMOS | Crystal oscillators | Research | Analysis | Tuning (Electronics) | Electric properties | Tanks | Noise | Oscillations | Capacitor banks | Voltage controlled oscillators | Frequency ranges | Silicon germanides
Journal Article
IEICE Transactions on Electronics, ISSN 0916-8524, 10/2018, Volume E101C, Issue 10, pp. 744 - 750
The paper presents the analysis, design and performance of PCB (Printed Circuit Board)-based cross-coupled differential VCOs using a novel LC-tank. As compared...
Microwave | SiGe HBT | VCO | Differential | LC-tank | Cross-coupled | microwave | cross-coupled | differential | ENGINEERING, ELECTRICAL & ELECTRONIC | RL circuits | Power consumption | Varactor diodes | Circuit design | Tanks | Printed circuits | Organic light emitting diodes | Circuit boards | Voltage controlled oscillators | Inductors | Parasitics (electronics)
Microwave | SiGe HBT | VCO | Differential | LC-tank | Cross-coupled | microwave | cross-coupled | differential | ENGINEERING, ELECTRICAL & ELECTRONIC | RL circuits | Power consumption | Varactor diodes | Circuit design | Tanks | Printed circuits | Organic light emitting diodes | Circuit boards | Voltage controlled oscillators | Inductors | Parasitics (electronics)
Journal Article
IET Circuits, Devices & Systems, ISSN 1751-858X, 1/2014, Volume 8, Issue 1, pp. 1 - 9
Periodic steady-state behaviour of cross-coupled LC-tank oscillator is of critical importance in ultra-low power, low-voltage transceiver circuits....
MOSFET | VCO | inductor | oscillation frequency | amplitude evaluation | circuit simulation | power consumption | 18 mum | periodic steady-state behaviour | LC circuits | short-range wireless transceiver | integrated circuit design | CMOS analogue integrated circuits | oscillators | radio transceivers | ultralow power low-voltage transceiver circuit | size 0 | capacitor | ENGINEERING, ELECTRICAL & ELECTRONIC | capacitors | CMOS cross-coupled LC-tank oscillator | inductors | coupled circuits | low-power electronics | transistor
MOSFET | VCO | inductor | oscillation frequency | amplitude evaluation | circuit simulation | power consumption | 18 mum | periodic steady-state behaviour | LC circuits | short-range wireless transceiver | integrated circuit design | CMOS analogue integrated circuits | oscillators | radio transceivers | ultralow power low-voltage transceiver circuit | size 0 | capacitor | ENGINEERING, ELECTRICAL & ELECTRONIC | capacitors | CMOS cross-coupled LC-tank oscillator | inductors | coupled circuits | low-power electronics | transistor
Journal Article
Microwave and Optical Technology Letters, ISSN 0895-2477, 03/2008, Volume 50, Issue 3, pp. 592 - 595
This article designs an injection locked frequency divider (ILFD) based on the direct injection technique and transformer‐coupled VCO topology. At the supply...
CMOS | injection locked frequency divider | transformer‐coupled voltage controlled oscillators | Injection locked frequency divider | Transformer-coupled voltage controlled oscillators | OPTICS | transformer-coupled voltage controlled oscillators | ENGINEERING, ELECTRICAL & ELECTRONIC
CMOS | injection locked frequency divider | transformer‐coupled voltage controlled oscillators | Injection locked frequency divider | Transformer-coupled voltage controlled oscillators | OPTICS | transformer-coupled voltage controlled oscillators | ENGINEERING, ELECTRICAL & ELECTRONIC
Journal Article
2012 IEEE Radio Frequency Integrated Circuits Symposium, ISSN 1529-2517, 06/2012, pp. 515 - 518
We propose the concept of AC-coupled LC tank for minimizing VCO pushing, as well as to enable multi-terminal tuning of the varactors, in the widely used...
Varactors | mmWave | CMOS | Power demand | AC-coupled | VCO | Voltage-controlled oscillators | Resonant frequency | CMOS integrated circuits | MOSFETs | Tuning
Varactors | mmWave | CMOS | Power demand | AC-coupled | VCO | Voltage-controlled oscillators | Resonant frequency | CMOS integrated circuits | MOSFETs | Tuning
Conference Proceeding
ELECTRONICS LETTERS, ISSN 0013-5194, 10/2017, Volume 53, Issue 22, pp. 1460 - 1461
Introduction: A self-biased low-phase noise CMOS LC VCO (employing both nMOS and pMOS switching transistors) based on the trans-conductance linearisation of...
MOSFET | field effect MMIC | size 65 nm | oscillation frequency | self-biased push-pull configuration | 1 GHz | voltage-controlled oscillators | transconductance linearisation | self-biased CMOS LC VCO | nMOS switching transistors | oscillation amplitude | LC tank | tank loading reduction | CMOS integrated circuits | phase noise | pMOS switching transistors | low-phase noise CMOS LC VCO | compact chip area | linearisation techniques | NMOS-only topology | capacitive-coupled feedback | device drain | frequency 3 | voltage 1 | 3 V | power 13 mW to 23 mW | 96 GHz to 6 | ENGINEERING, ELECTRICAL & ELECTRONIC | power consumption reduction | PMOS-only topology | microwave oscillators | active devices | low-power electronics
MOSFET | field effect MMIC | size 65 nm | oscillation frequency | self-biased push-pull configuration | 1 GHz | voltage-controlled oscillators | transconductance linearisation | self-biased CMOS LC VCO | nMOS switching transistors | oscillation amplitude | LC tank | tank loading reduction | CMOS integrated circuits | phase noise | pMOS switching transistors | low-phase noise CMOS LC VCO | compact chip area | linearisation techniques | NMOS-only topology | capacitive-coupled feedback | device drain | frequency 3 | voltage 1 | 3 V | power 13 mW to 23 mW | 96 GHz to 6 | ENGINEERING, ELECTRICAL & ELECTRONIC | power consumption reduction | PMOS-only topology | microwave oscillators | active devices | low-power electronics
Journal Article
IEEE Transactions on Circuits and Systems I: Regular Papers, ISSN 1549-8328, 04/2016, Volume 63, Issue 4, pp. 529 - 539
In this paper, we exploit an idea of coupling multiple oscillators to reduce phase noise (PN) to beyond the limit of what has been practically achievable so...
Phase noise | Inductance | Power demand | figure of merit (FoM) | coupled oscillators | Basestation (BTS) | class-C oscillator | CMOS integrated circuits | Topology | Inductors | LC-tank | dualcore LC-tank oscillator | field effect MMIC | multicore oscillator | current 39 mA to 59 mA | voltage 2.15 V | LC circuits | network synthesis | ultralow phase noise | phase noise | MMIC oscillators | frequency 4.07 GHz to 4.91 GHz | RF oscillator | high swing class-C topology | network analysis | digital CMOS technology | phase noise reduction | FOM | ENGINEERING, ELECTRICAL & ELECTRONIC | Integrated circuits | Usage | Oscillators (Electronics) | Noise | Induction, Electromagnetic | Research | Complementary metal oxide semiconductors | Semiconductor chips | CMOS | Cellular | Simulation | Circuits | Design analysis | Interconnections | Oscillators
Phase noise | Inductance | Power demand | figure of merit (FoM) | coupled oscillators | Basestation (BTS) | class-C oscillator | CMOS integrated circuits | Topology | Inductors | LC-tank | dualcore LC-tank oscillator | field effect MMIC | multicore oscillator | current 39 mA to 59 mA | voltage 2.15 V | LC circuits | network synthesis | ultralow phase noise | phase noise | MMIC oscillators | frequency 4.07 GHz to 4.91 GHz | RF oscillator | high swing class-C topology | network analysis | digital CMOS technology | phase noise reduction | FOM | ENGINEERING, ELECTRICAL & ELECTRONIC | Integrated circuits | Usage | Oscillators (Electronics) | Noise | Induction, Electromagnetic | Research | Complementary metal oxide semiconductors | Semiconductor chips | CMOS | Cellular | Simulation | Circuits | Design analysis | Interconnections | Oscillators
Journal Article
Journal of Micromechanics and Microengineering, ISSN 0960-1317, 10/2016, Volume 26, Issue 11, p. 113001
This review systematically addresses the micromachining technologies used for the fabrication of high-performance radio-frequency (RF) passives that can be...
tunable capacitors | micromachining technology | LC-tanks | radio-frequency telecommunication | inductors | passive filters | CMOS-compatible integration | VARIABLE CAPACITORS | DESIGN | PHYSICS, APPLIED | Q SOLENOID INDUCTORS | LARGE TUNING-RANGE | SILICON | NANOSCIENCE & NANOTECHNOLOGY | HIGH-ASPECT-RATIO | LC-TANK | ENGINEERING, ELECTRICAL & ELECTRONIC | SPIRAL INDUCTORS | INSTRUMENTS & INSTRUMENTATION | COUPLED DIRECTIONAL COUPLER | MEMS RESONATORS
tunable capacitors | micromachining technology | LC-tanks | radio-frequency telecommunication | inductors | passive filters | CMOS-compatible integration | VARIABLE CAPACITORS | DESIGN | PHYSICS, APPLIED | Q SOLENOID INDUCTORS | LARGE TUNING-RANGE | SILICON | NANOSCIENCE & NANOTECHNOLOGY | HIGH-ASPECT-RATIO | LC-TANK | ENGINEERING, ELECTRICAL & ELECTRONIC | SPIRAL INDUCTORS | INSTRUMENTS & INSTRUMENTATION | COUPLED DIRECTIONAL COUPLER | MEMS RESONATORS
Journal Article
IEEE Journal of Solid-State Circuits, ISSN 0018-9200, 11/2018, Volume 53, Issue 11, pp. 3232 - 3242
This paper describes a mode-switching quad-core-coupled millimeter-wave (mm-wave) voltage-controlled oscillator (VCO), using a single-center-tapped (SCT)...
millimeter-wave (mm-wave) | switched inductor | Switches | Frequency-tuning range (FTR) | mode switching | Inductors | Tuning | Couplings | Inductance | Voltage-controlled oscillators | phase noise (PN) | LC tank">LC tank | multi-mode resonance | voltage-controlled oscillator (VCO) | LC tank | DESIGN | FREQUENCY-SYNTHESIZER | OSCILLATOR | ENGINEERING, ELECTRICAL & ELECTRONIC | Varactor diodes | Broadband | Magnetic resonance | Switching | Modal choice | CMOS | Acquired immune deficiency syndrome--AIDS | Resonant frequencies | Millimeter waves | Coupled modes | Voltage controlled oscillators
millimeter-wave (mm-wave) | switched inductor | Switches | Frequency-tuning range (FTR) | mode switching | Inductors | Tuning | Couplings | Inductance | Voltage-controlled oscillators | phase noise (PN) | LC tank">
Journal Article
IEEE Transactions on Microwave Theory and Techniques, ISSN 0018-9480, 11/2017, Volume 65, Issue 11, pp. 4165 - 4175
This paper presents the design and verification of a proposed 30-GHz power-efficient phase-locked loop (PLL) frequency synthesizer for 60-GHz applications....
Varactors | Coils | Power demand | Synthesizers | multimode | fractional-N | low phase noise | 60 GHz | Phase locked loops | frequency synthesizer | 30 GHz | Tuning | phase-locked loop (PLL) | Coupled LC tanks (CLCTs) | Voltage-controlled oscillators | low power | voltage-controlled oscillator (VCO) | silicon–germanium (SiGe) | silicon-germanium (SiGe) | HIGH-PAE | PHASE NOISE | ENGINEERING, ELECTRICAL & ELECTRONIC | CMOS | RECEIVER | Usage | Germanium | Silicon | Chemical properties | Complementary metal oxide semiconductors | Electric properties | Magnetic properties | Charge pumps | Frequency synthesizers | Electric potential | Phase locked systems | Power consumption | Synthesis | Division | Power efficiency | Voltage controlled oscillators
Varactors | Coils | Power demand | Synthesizers | multimode | fractional-N | low phase noise | 60 GHz | Phase locked loops | frequency synthesizer | 30 GHz | Tuning | phase-locked loop (PLL) | Coupled LC tanks (CLCTs) | Voltage-controlled oscillators | low power | voltage-controlled oscillator (VCO) | silicon–germanium (SiGe) | silicon-germanium (SiGe) | HIGH-PAE | PHASE NOISE | ENGINEERING, ELECTRICAL & ELECTRONIC | CMOS | RECEIVER | Usage | Germanium | Silicon | Chemical properties | Complementary metal oxide semiconductors | Electric properties | Magnetic properties | Charge pumps | Frequency synthesizers | Electric potential | Phase locked systems | Power consumption | Synthesis | Division | Power efficiency | Voltage controlled oscillators
Journal Article
2019 IEEE International Conference on Electron Devices and Solid-State Circuits (EDSSC), 06/2019, pp. 1 - 3
Oscillation amplitude is a key factor for NMOS/PMOS complementary cross-coupled LC-tank oscillator, and its proper estimation is beneficial to design...
oscillation amplitude | NMOS/PMOS complementary cross-coupled | LC-tank oscillator
oscillation amplitude | NMOS/PMOS complementary cross-coupled | LC-tank oscillator
Conference Proceeding
IEEE Transactions on Circuits and Systems I: Regular Papers, ISSN 1549-8328, 03/2012, Volume 59, Issue 3, pp. 449 - 462
This work presents complete analysis of both one- port and two-port dual-band oscillators using transformer-based fourth-order LC tanks, from which critical...
Phase noise | SDR | synthesizer | oscillator | VCO | Capacitors | IQ | transformer | Cognitive radio | Inductors | dual-band | Voltage-controlled oscillators | LC tank | Dual band | multi-standard | software-defined radio | multi-band | Wideband | Dual-band | Transformer | Multiband | Software-defined radio | Oscillator | Synthesizer | Multi-standard | SWITCHED-RESONATORS | QUADRATURE LC-VCO | VOLTAGE-CONTROLLED OSCILLATORS | FREQUENCY OSCILLATORS | ENGINEERING, ELECTRICAL & ELECTRONIC | WIDE TUNING-RANGE | CMOS OSCILLATORS | SPECTRUM | COUPLED-INDUCTORS | phase noise | Measurement | Electric transformers | Energy consumption | Technology application | Frequency modulation | Usage | Oscillators (Electronics) | Design and construction | Methods | Complementary metal oxide semiconductors | Product introduction | Noise | Oscillators | Consumption | Noise levels | Tanks | Bias | Oscillations | Topology
Phase noise | SDR | synthesizer | oscillator | VCO | Capacitors | IQ | transformer | Cognitive radio | Inductors | dual-band | Voltage-controlled oscillators | LC tank | Dual band | multi-standard | software-defined radio | multi-band | Wideband | Dual-band | Transformer | Multiband | Software-defined radio | Oscillator | Synthesizer | Multi-standard | SWITCHED-RESONATORS | QUADRATURE LC-VCO | VOLTAGE-CONTROLLED OSCILLATORS | FREQUENCY OSCILLATORS | ENGINEERING, ELECTRICAL & ELECTRONIC | WIDE TUNING-RANGE | CMOS OSCILLATORS | SPECTRUM | COUPLED-INDUCTORS | phase noise | Measurement | Electric transformers | Energy consumption | Technology application | Frequency modulation | Usage | Oscillators (Electronics) | Design and construction | Methods | Complementary metal oxide semiconductors | Product introduction | Noise | Oscillators | Consumption | Noise levels | Tanks | Bias | Oscillations | Topology
Journal Article
IEEE Transactions on Microwave Theory and Techniques, ISSN 0018-9480, 01/2018, Volume 66, Issue 1, pp. 177 - 186
A W-band injection-locked frequency divider (ILFD) with low-power and wide locking range is presented in this paper. The operation frequency and locking range...
locking range | Power demand | oscillator | transformer | Frequency conversion | Inductors | Phase locked loops | Oscillators | Resistance | CMOS | W-band | LC tank">LC tank | Transistors | coupled | injection-locked frequency divider (ILFD) | LC tank | ENGINEERING, ELECTRICAL & ELECTRONIC | Usage | Oscillators (Electronics) | Research | Complementary metal oxide semiconductors | Electric resistance | Transformers | Power consumption | Locking
locking range | Power demand | oscillator | transformer | Frequency conversion | Inductors | Phase locked loops | Oscillators | Resistance | CMOS | W-band | LC tank">
Journal Article
ANALOG INTEGRATED CIRCUITS AND SIGNAL PROCESSING, ISSN 0925-1030, 08/2013, Volume 76, Issue 2, pp. 161 - 166
This letter presents a fully integrated BiCMOS quadrature voltage-controlled oscillator (QVCO). The QVCO consists of two nMOSFET cross-coupled oscillator...
0.18 mu m SiGe 3P6M | Source degenerated | BiCMOS | COMPUTER SCIENCE, HARDWARE & ARCHITECTURE | MOS-coupled LC-tank | QVCO | OSCILLATOR | ENGINEERING, ELECTRICAL & ELECTRONIC
0.18 mu m SiGe 3P6M | Source degenerated | BiCMOS | COMPUTER SCIENCE, HARDWARE & ARCHITECTURE | MOS-coupled LC-tank | QVCO | OSCILLATOR | ENGINEERING, ELECTRICAL & ELECTRONIC
Journal Article
Journal of Electrical Engineering & Technology, ISSN 1975-0102, 2018, Volume 13, Issue 6, pp. 2441 - 2446
This paper presents a radio frequency-to-direct current (RF-to-DC) converter for special RF power harvesting application at 915 MHz. The major featured...
RF-to-DC converter | Active diode | LC tank | Cross-coupled rectifier | Power harvesting system | RF-to-D Cconverter | ENGINEERING, ELECTRICAL & ELECTRONIC
RF-to-DC converter | Active diode | LC tank | Cross-coupled rectifier | Power harvesting system | RF-to-D Cconverter | ENGINEERING, ELECTRICAL & ELECTRONIC
Journal Article
Analog Integrated Circuits and Signal Processing, ISSN 0925-1030, 8/2013, Volume 76, Issue 2, pp. 161 - 166
This letter presents a fully integrated BiCMOS quadrature voltage-controlled oscillator (QVCO). The QVCO consists of two nMOSFET cross-coupled oscillator...
Engineering | Source degenerated | BiCMOS | Signal, Image and Speech Processing | MOS-coupled LC-tank | QVCO | 0.18 μm SiGe 3P6M | Circuits and Systems | Electrical Engineering | 0.18 μm SiGe 3P6M
Engineering | Source degenerated | BiCMOS | Signal, Image and Speech Processing | MOS-coupled LC-tank | QVCO | 0.18 μm SiGe 3P6M | Circuits and Systems | Electrical Engineering | 0.18 μm SiGe 3P6M
Journal Article
IET Circuits, Devices & Systems, ISSN 1751-858X, 9/2017, Volume 11, Issue 5, pp. 452 - 456
This study presents the new locking range enhancement technique in divide-by-two injection locked frequency divider using a phase shifter circuit. The proposed...
Research Article | TSMC CMOS technology | locking range enhancement technique | ILFD | frequency dividers | phase shifter circuit | 95 V | cross-coupled oscillator | 18 mum | 32 mW | dual-resonance fourth-order LC-tank | incident signal power | 55 GHz | LC circuits | phase shift technique | CMOS integrated circuits | oscillator current | oscillators | 3 GHz to 9 | voltage 0 | size 0 | complementary metal-oxide-semiconductor | phase shifters | ENGINEERING, ELECTRICAL & ELECTRONIC | frequency 4 | divide-by-two injection locked frequency divider | power 7
Research Article | TSMC CMOS technology | locking range enhancement technique | ILFD | frequency dividers | phase shifter circuit | 95 V | cross-coupled oscillator | 18 mum | 32 mW | dual-resonance fourth-order LC-tank | incident signal power | 55 GHz | LC circuits | phase shift technique | CMOS integrated circuits | oscillator current | oscillators | 3 GHz to 9 | voltage 0 | size 0 | complementary metal-oxide-semiconductor | phase shifters | ENGINEERING, ELECTRICAL & ELECTRONIC | frequency 4 | divide-by-two injection locked frequency divider | power 7
Journal Article
IEEE Transactions on Power Electronics, ISSN 0885-8993, 03/2018, Volume 33, Issue 3, pp. 2007 - 2025
Wireless power transfer (WPT) has attracted a lot of attention these years due to its convenience, safety, reliability, and weather proof features. First and...
Couplings | Inductance | magnetic design | Constant-current-output (CCOut) | Network topology | Capacitors | wireless power transfer (WPT) | LC/CL resonant tank"> LC/CL resonant tank | Topology | Integrated circuit modeling | Circuit analysis | loosely coupled transformer (LCT) | LC/CL resonant tank | VEHICLE-BATTERY CHARGE | CONTACTLESS ENERGY-TRANSFER | TRANSFER SYSTEM | RESONANT CONVERTER | ENGINEERING, ELECTRICAL & ELECTRONIC | Integrated circuits | Finite element method | Usage | Induction, Electromagnetic | Research | Semiconductor chips | Coils | Computer simulation | Circuits | Compensation | Rectifiers | Transient loads | Power efficiency | Wireless power transmission | Coupling coefficients
Couplings | Inductance | magnetic design | Constant-current-output (CCOut) | Network topology | Capacitors | wireless power transfer (WPT) |
Journal Article
2012 IEEE International Symposium on Radio-Frequency Integration Technology (RFIT), 11/2012, pp. 192 - 194
A transformer based multiple coupled LC tanks model for on-chip VCO design is introduced. The merits of adoption multiple coupled LC tanks can be Q factor...
Phase noise | Varactors | Transformer | Q factor | Metals | Multiple Coupled LC Tanks | Tuning | Voltage-controlled oscillators | Low Phase Noise | Dual LC-Tanks | Low Power | Voltage Controlled Oscillator | CMOS integrated circuits
Phase noise | Varactors | Transformer | Q factor | Metals | Multiple Coupled LC Tanks | Tuning | Voltage-controlled oscillators | Low Phase Noise | Dual LC-Tanks | Low Power | Voltage Controlled Oscillator | CMOS integrated circuits
Conference Proceeding
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