5.5: A 3.2 to 4GHz, 0.25µm CMOS Frequency Synthesizer for IEEE a/b/g WLAN
|
|
|
- Lily Beasley
- 5 years ago
- Views:
Transcription
1 5.5: A 3.2 to 4GHz, 0.25µm CMOS Frequency Synthesizer for IEEE a/b/g WLAN Manolis Terrovitis, Michael Mack, Kalwant Singh, and Masoud Zargari 1 Atheros Communications, Sunnyvale, California 1 Atheros Communications, Irvine, California
2 Outline System Requirements Architecture and Circuit Description Measurements Conclusions
3 Design Goals Tuning Range GHz Reference Frequencies: 13.33M, 6.66M, 3.33M, 10M Drive LO Buffers at f VCO and I,Q LO Buffers at f VCO /2 Low Phase Noise Low Spurs
4 Xtal Osc Synthesizer Block Diagram Reg1 Reg2 Ref Div FF LPF PFD CP VCO f VCO 40MHz 16/17 Divider FF P & S counters 8/8.5 Div /2 Control Logic Lock Detector f VCO /4 I Q To LO Buffers
5 Design Choices Low VCO gain Good VCO phase noise Low LPF resistor noise contribution High charge pump current Low LPF resistor noise contribution Low charge pump noise
6 Voltage Controlled Oscillator (VCO) Regulated V DD (2.5V) 7-bit control C MIM C MIM V c
7 High-Frequency Divide-by-2 V DD D D q q I I D D q q Q Q s 2 s 1 L L L from VCO s 0 L q q D D H. Rategh and T. Lee Superharmonic Injection-Locked Frequency Dividers, JSSC, June clk clk
8 Adjustable Tuning Adjustable C Adjustable L R p =LωQ Equivalent parallel resistance ampl ampl freq freq
9 Multi-tap Inductors t1 t2c t2b t2a
10 Charge Pump Regulated V DD C P up up M P I BIAS +- C N dn dn Control Voltage M N Replica Bias
11 Programmable Integrated LPF V c V c R series C series C parallel
12 8/8.5 Dual Modulus Divider f VCO /2 f VCO /16 or f VCO /17 f2 I f2 I /2 Phase Multi- plexer f4 I f4 Q f4 I f4 Q /4 f2 Q f2 Q /2 State Machine div17 J. Craninckx, M. Steyaert A 1.75-GHz/3-V Dual-Modulus Divide-by- 128/129 Prescaler in 0.7-µm CMOS, JSSC, July 1996.
13 Phase Multiplexer V DD out out V DD s 0 s 0 s 2 s 2 s 4 V DD s 1 s 1 s 3 s 3 s 5 f4 I f4 I f4 Q f4 Q
14 Control Logic Successive approximation search for the 7 bits that control the VCO tuning capacitors Coarse digital alignment ofthe feedback clock with the reference clock Optimize for the control voltage value Take corrective action when the control voltage drifts out of the acceptable range or when no-lock is detected
15 Measurement Setup a Transmitter DC Input BB I BB Q GHz RF output f VCO /2 I Q f VCO 40MHz Synthesizer Measured Phase Noise at RF output is ~3.5 db higher than at the VCO frequency.
16 Output Spectrum (1) F o =5.44GHz, F ref =13.3MHz, (S=0) Power (dbm) MHz, <-75 dbc Frequency (GHz) 40MHz, <-70 dbc
17 Output Spectrum (2) F o =5.30GHz, F ref =13.3MHz, (S=9) 20 Power (dbm) F ref /2, <-64 dbc Frequency (GHz)
18 Measured Phase Noise (1) F out =5240MHz, F ref =13.3MHz Phase Noise (dbc/hz) dbc/hz -107 dbc/hz -115 dbc/hz 1K 10K 100K 1M 10M Frequency Offset (Hz)
19 Measured Phase Noise (2) F out =5240MHz, F ref =13.3MHz Phase Noise (dbc/hz) Low Loop BW dbc/hz K 10K 100K 1M 10M Frequency Offset (Hz) VCO Phase Noise: MHz offset, 5.24 GHz carrier
20 Measured Phase Noise (3) Phase Noise (dbc/hz) -90 F out =5745M, F ref =3.33M F out =5250M, F -120 ref =6.66M -130 F out =5240M, F ref =13.3M 1K 10K 100K 1M 10M Frequency Offset (Hz)
21 Technology Power Dissipation Performance Summary 0.25 µm CMOS, 1P5M, MIM capacitors 93 mw Area 1.7 mm 2 Spot Phase Noise F out = 5240MHz, F ref =13.3 MHz Integrated PN (from 1K to 10M) F out = 5240MHz, F ref =13.3 MHz F out = 5250MHz, F ref =6.66 MHz F out = 5745MHz, F ref =3.33 MHz Spurs Settling Time -105/-107/ K/100K/1M dbc (0.31 o ) dbc (0.40 o ) dbc (0.54 o ) <-64dBc <150µs
22 Synthesizer Micrograph High Freq 8/8.5 Div-by-2 Div VCO Regulator VCO CP LPF Control Logic CP Regulator
23 Conclusions Fully integrated, wideband, 0.25µm CMOS synthesizer Excellent phase noise, spur performance and settling time Design highlights: On-chip voltage regulation Tuning with switching inductors Low noise VCO Charge pump topology
24 Acknowledgment Support of the wireless team at Atheros. In particular D. Weber, S. Mehta, W. Si, B. Kaczynski, H. Dieh and J. Lu.
A CMOS Frequency Synthesizer with an Injection-Locked Frequency Divider for a 5 GHz Wireless LAN Receiver. Hamid Rategh
A CMOS Frequency Synthesizer with an Injection-Locked Frequency Divider for a 5 GHz Wireless LAN Receiver Hamid Rategh Center for Integrated Systems Stanford University OUTLINE Motivation Introduction
5.4: A 5GHz CMOS Transceiver for IEEE a Wireless LAN
5.4: A 5GHz CMOS Transceiver for IEEE 802.11a Wireless LAN David Su, Masoud Zargari, Patrick Yue, Shahriar Rabii, David Weber, Brian Kaczynski, Srenik Mehta, Kalwant Singh, Sunetra Mendis, and Bruce Wooley
26.8: A 1.9GHz Single-Chip CMOS PHS Cellphone
26.8: A 1.9GHz Single-Chip CMOS PHS Cellphone William W. Si, Srenik Mehta, Hirad Samavati, Manolis Terrovitis, Michael Mack, KeithOnodera, SteveJen, Susan Luschas, Justin Hwang, SuniMendis, DavidSu, BruceWooley
A 5GHz, 32mW CMOS Frequency Synthesizer with an Injection Locked Frequency Divider. Hamid Rategh, Hirad Samavati, Thomas Lee
A 5GHz, 32mW CMOS Frequency Synthesizer with an Injection Locked Frequency Divider Hamid Rategh, Hirad Samavati, Thomas Lee OUTLINE motivation introduction synthesizer architecture synthesizer building
Challenges in Designing CMOS Wireless System-on-a-chip
Challenges in Designing CMOS Wireless System-on-a-chip David Su Atheros Communications Santa Clara, California IEEE Fort Collins, March 2008 Introduction Outline Analog/RF: CMOS Transceiver Building Blocks
ECEN620: Network Theory Broadband Circuit Design Fall 2014
ECEN60: Network Theory Broadband Circuit Design Fall 014 Lecture 13: Frequency Synthesizer Examples Sam Palermo Analog & Mixed-Signal Center Texas A&M University Agenda Frequency Synthesizer Examples Design
A Sub-0.75 RMS-Phase-Error Differentially-Tuned Fractional-N Synthesizer with On-Chip LDO Regulator and Analog-Enhanced AFC Technique
A Sub-0.75 RMS-Phase-Error Differentially-Tuned Fractional-N Synthesizer with On-Chip LDO Regulator and Analog-Enhanced AFC Technique Lei Lu, Lingbu Meng, Liang Zou, Hao Min and Zhangwen Tang Fudan University,
A Low Phase Noise 24/77 GHz Dual-Band Sub-Sampling PLL for Automotive Radar Applications in 65 nm CMOS Technology
A Low Phase Noise 24/77 GHz Dual-Band Sub-Sampling PLL for Automotive Radar Applications in 65 nm CMOS Technology Xiang Yi, Chirn Chye Boon, Junyi Sun, Nan Huang and Wei Meng Lim VIRTUS, Nanyang Technological
Frequency Synthesizers for RF Transceivers. Domine Leenaerts Philips Research Labs.
Frequency Synthesizers for RF Transceivers Domine Leenaerts Philips Research Labs. Purpose Overview of synthesizer architectures for RF transceivers Discuss the most challenging RF building blocks Technology
A Dual-Step-Mixing ILFD using a Direct Injection Technique for High- Order Division Ratios in 60GHz Applications
A Dual-Step-Mixing ILFD using a Direct Injection Technique for High- Order Division Ratios in 60GHz Applications Teerachot Siriburanon, Wei Deng, Ahmed Musa, Kenichi Okada, and Akira Matsuzawa Tokyo Institute
A 0.2-to-1.45GHz Subsampling Fractional-N All-Digital MDLL with Zero-Offset Aperture PD-Based Spur Cancellation and In-Situ Timing Mismatch Detection
A 0.2-to-1.45GHz Subsampling Fractional-N All-Digital MDLL with Zero-Offset Aperture PD-Based Spur Cancellation and In-Situ Timing Mismatch Detection Somnath Kundu 1, Bongjin Kim 1,2, Chris H. Kim 1 1
D f ref. Low V dd (~ 1.8V) f in = D f ref
A 5.3 GHz Programmable Divider for HiPerLAN in 0.25µm CMOS N. Krishnapura 1 & P. Kinget 2 Lucent Technologies, Bell Laboratories, USA. 1 Currently at Columbia University, New York, NY, 10027, USA. 2 Currently
SiNANO-NEREID Workshop:
SiNANO-NEREID Workshop: Towards a new NanoElectronics Roadmap for Europe Leuven, September 11 th, 2017 WP3/Task 3.2 Connectivity RF and mmw Design Outline Connectivity, what connectivity? High data rates
Package and Pin Assignment SSOP-6 (0.64mm pitch) OSCIN OSCOUT TXEN 3 VSS 4 TXOUT 5 VSS 6 7 MODIN 8 HiMARK SW DO RES RESB VREFP VSS Symbol
Low Power ASK Transmitter IC HiMARK Technology, Inc. reserves the right to change the product described in this datasheet. All information contained in this datasheet is subject to change without prior
A 60GHz Sub-Sampling PLL Using A Dual-Step-Mixing ILFD
A 60GHz Sub-Sampling PLL Using A Dual-Step-Mixing ILFD Teerachot Siriburanon, Tomohiro Ueno, Kento Kimura, Satoshi Kondo, Wei Deng, Kenichi Okada, and Akira Matsuzawa Tokyo Institute of Technology, Japan
High Performance Digital Fractional-N Frequency Synthesizers
High Performance Digital Fractional-N Frequency Synthesizers Michael Perrott October 16, 2008 Copyright 2008 by Michael H. Perrott All rights reserved. Why Are Digital Phase-Locked Loops Interesting? PLLs
A Wide-Bandwidth 2.4GHz ISM Band Fractional-N PLL with Adaptive Phase Noise Cancellation. Outline
A Wide-Bandwidth 2.4GHz ISM Band Fractional-N PLL with Adaptive Phase Noise Cancellation Ashok Swaminathan,2, Kevin J. Wang, Ian Galton University of California, San Diego, CA 2 NextWave Broadband, San
Analysis of Phase Noise Profile of a 1.1 GHz Phase-locked Loop
Analysis of Phase Noise Profile of a 1.1 GHz Phase-locked Loop J. Handique, Member, IAENG and T. Bezboruah, Member, IAENG 1 Abstract We analyzed the phase noise of a 1.1 GHz phaselocked loop system for
Lecture 160 Examples of CDR Circuits in CMOS (09/04/03) Page 160-1
Lecture 160 Examples of CDR Circuits in CMOS (09/04/03) Page 160-1 LECTURE 160 CDR EXAMPLES INTRODUCTION Objective The objective of this presentation is: 1.) Show two examples of clock and data recovery
Hong Kong University of Science and Technology. A 2-V 900-MHz Monolithic CMOS Dual-Loop Frequency Synthesizer for GSM Receivers
Hong Kong University of Science and Technology A -V 900-MHz Monolithic CMOS Dual-Loop Frequency Synthesizer for GSM Receivers A thesis submitted to The Hong Kong University of Science and Technology in
A Pulse-Based CMOS Ultra-Wideband Transmitter for WPANs
A Pulse-Based CMOS Ultra-Wideband Transmitter for WPANs Murat Demirkan* Solid-State Circuits Research Laboratory University of California, Davis *Now with Agilent Technologies, Santa Clara, CA 03/20/2008
AN4: Application Note
: Introduction The PE3291 fractional-n PLL is a dual VHF/UHF integrated frequency synthesizer with fractional ratios of 2, 4, 8, 16 and 32. Its low power, low phase noise and low spur content make the
A 1.9GHz Single-Chip CMOS PHS Cellphone
A 1.9GHz Single-Chip CMOS PHS Cellphone IEEE JSSC, Vol. 41, No.12, December 2006 William Si, Srenik Mehta, Hirad Samavati, Manolis Terrovitis, Michael Mack, Keith Onodera, Steve Jen, Susan Luschas, Justin
Dual-Frequency GNSS Front-End ASIC Design
Dual-Frequency GNSS Front-End ASIC Design Ed. 01 15/06/11 In the last years Acorde has been involved in the design of ASIC prototypes for several EU-funded projects in the fields of FM-UWB communications
I. INTRODUCTION. Architecture of PLL-based integer-n frequency synthesizer. TABLE I DIVISION RATIO AND FREQUENCY OF ALL CHANNELS, N =16, P =16
320 IEEE TRANSACTIONS ON CIRCUITS AND SYSTEMS I: REGULAR PAPERS, VOL. 56, NO. 2, FEBRUARY 2009 A 5-GHz CMOS Frequency Synthesizer With an Injection-Locked Frequency Divider and Differential Switched Capacitors
OBSOLETE FUNCTIONAL BLOCK DIAGRAM V DD 1 V DD 1 V P 2 V P 11-BIT IF B-COUNTER 6-BIT IF A-COUNTER 14-BIT IF R-COUNTER 14-BIT IF R-COUNTER
a FEATURES ADF4216: 550 MHz/1.2 GHz ADF4217: 550 MHz/2.0 GHz ADF4218: 550 MHz/2.5 GHz 2.7 V to 5.5 V Power Supply Selectable Charge Pump Currents Selectable Dual Modulus Prescaler IF: 8/9 or 16/17 RF:
Designing CMOS Wireless System-on-a-chip
Designing CMOS Wireless System-on-a-chip David Su david.su@atheros.com Atheros Communications Santa Clara, California Santa Clara SSCS (c) D. Su Santa Clara SSCS September 2009 p.1 Outline Introduction
A Low Area, Switched-Resistor Loop Filter Technique for Fractional-N Synthesizers Applied to a MEMS-based Programmable Oscillator
A Low Area, Switched-Resistor Loop Filter Technique for Fractional-N Synthesizers Applied to a MEMS-based Programmable Oscillator ISSCC 00, Session 3. M.H. Perrott, S. Pamarti, E. Hoffman, F.S. Lee, S.
FA 8.1: A 115mW CMOS GPS Receiver
FA 8.1: A 115mW CMOS GPS Receiver D. Shaeffer, A. Shahani, S.S. Mohan, H. Samavati, H. Rategh M. Hershenson, M. Xu, C.P. Yue, D. Eddleman, and T.H. Lee Stanford University OVERVIEW GPS Overview Architecture
SiGe PLL design at 28 GHz
SiGe PLL design at 28 GHz 2015-09-23 Tobias Tired Electrical and Information Technology Lund University May 14, 2012 Waqas Ahmad (Lund University) Presentation outline E-band wireless backhaul Beam forming
Wideband Synthesizer with Integrated VCO ADF4351
Data Sheet Wideband Synthesizer with Integrated VCO FEATURES Output frequency range: 35 MHz to 4400 MHz Fractional-N synthesizer and integer-n synthesizer Low phase noise VCO Programmable divide-by-/-2/-4/-8/-6/-32/-64
95GHz Receiver with Fundamental Frequency VCO and Static Frequency Divider in 65nm Digital CMOS
95GHz Receiver with Fundamental Frequency VCO and Static Frequency Divider in 65nm Digital CMOS Ekaterina Laskin, Mehdi Khanpour, Ricardo Aroca, Keith W. Tang, Patrice Garcia 1, Sorin P. Voinigescu University
Rev. No. History Issue Date Remark. 0.0 Initial issue January 3, 2002 Preliminary
Preliminary Mouse, Keyboard Transmitter Document Title Mouse, Keyboard Transmitter Revision History Rev. No. History Issue Date Remark 0.0 Initial issue January 3, 2002 Preliminary Important Notice: AMIC
Radio-Frequency Conversion and Synthesis (for a 115mW GPS Receiver)
Radio-Frequency Conversion and Synthesis (for a 115mW GPS Receiver) Arvin Shahani Stanford University Overview GPS Overview Frequency Conversion Frequency Synthesis Conclusion GPS Overview: Signal Structure
High Speed Communication Circuits and Systems Lecture 14 High Speed Frequency Dividers
High Speed Communication Circuits and Systems Lecture 14 High Speed Frequency Dividers Michael H. Perrott March 19, 2004 Copyright 2004 by Michael H. Perrott All rights reserved. 1 High Speed Frequency
NON-CATALOG Frequency Synthesizer
Frequency Synthesizer 50 700 MHz Low phase noise and spurious Fixed frequency without external programming Integrated microcontroller Robust design and construction Small size 0.80" x 0.58" x 0.15" CASE
Research and Development Activities in RF and Analog IC Design. RFIC Building Blocks. Single-Chip Transceiver Systems (I) Howard Luong
Research and Development Activities in RF and Analog IC Design Howard Luong Analog Research Laboratory Department of Electrical and Electronic Engineering Hong Kong University of Science and Technology
20 GHz Low Power QVCO and De-skew Techniques in 0.13µm Digital CMOS. Masum Hossain & Tony Chan Carusone University of Toronto
20 GHz Low Power QVCO and De-skew Techniques in 0.13µm Digital CMOS Masum Hossain & Tony Chan Carusone University of Toronto masum@eecg.utoronto.ca Motivation Data Rx3 Rx2 D-FF D-FF Rx1 D-FF Clock Clock
Fractional- N PLL with 90 Phase Shift Lock and Active Switched- Capacitor Loop Filter
J. Park, F. Maloberti: "Fractional-N PLL with 90 Phase Shift Lock and Active Switched-Capacitor Loop Filter"; Proc. of the IEEE Custom Integrated Circuits Conference, CICC 2005, San Josè, 21 September
24-bit Step Size, Resolution 3 Hz typ Exact Frequency Mode Built-in Digital Self Test 40 Lead 6x6mm SMT Package: 36mm 2. Phased Array Applications
FRACTIONAL-N PLL WITH INTEGRATED VCO, 80-80 MHz Features RF Bandwidth: 80 to 80 MHz Ultra Low Phase Noise -110 dbc/hz in Band Typ. Figure of Merit (FOM) -22 dbc < 180 fs RMS Jitter 24-bit Step Size, Resolution
A 3-10GHz Ultra-Wideband Pulser
A 3-10GHz Ultra-Wideband Pulser Jan M. Rabaey Simone Gambini Davide Guermandi Electrical Engineering and Computer Sciences University of California at Berkeley Technical Report No. UCB/EECS-2006-136 http://www.eecs.berkeley.edu/pubs/techrpts/2006/eecs-2006-136.html
PLL Frequency Synthesizer ADF4106-EP
Enhanced Product PLL Frequency Synthesizer ADF4-EP FEATURES. GHz bandwidth 2.7 V to 3.3 V power supply Separate charge pump supply (VP) allows extended tuning voltage in 3 V systems Programmable dual-modulus
ISSCC 2003 / SESSION 20 / WIRELESS LOCAL AREA NETWORKING / PAPER 20.2
ISSCC 2003 / SESSION 20 / WIRELESS LOCAL AREA NETWORKING / PAPER 20.2 20.2 A Digitally Calibrated 5.15-5.825GHz Transceiver for 802.11a Wireless LANs in 0.18µm CMOS I. Bouras 1, S. Bouras 1, T. Georgantas
Insights Into Circuits for Frequency Synthesis at mm-waves Andrea Mazzanti Università di Pavia, Italy
RFIC2014, Tampa Bay June 1-3, 2014 Insights Into Circuits for Frequency Synthesis at mm-waves Andrea Mazzanti Università di Pavia, Italy High data rate wireless networks MAN / LAN PAN ~7GHz of unlicensed
CMOS 120 GHz Phase-Locked Loops Based on Two Different VCO Topologies
JOURNAL OF ELECTROMAGNETIC ENGINEERING AND SCIENCE, VOL. 17, NO. 2, 98~104, APR. 2017 http://dx.doi.org/10.5515/jkiees.2017.17.2.98 ISSN 2234-8395 (Online) ISSN 2234-8409 (Print) CMOS 120 GHz Phase-Locked
Gert Veale / Christo Nel Grintek Ewation
Phase noise in RF synthesizers Gert Veale / Christo Nel Grintek Ewation Introduction & Overview Where are RF synthesizers used? What is phase noise? Phase noise eects Classic RF synthesizer architecture
MICROWAVE CRYSTEK. Features. Applications CPLL " 0.800" SMD CORPORATION GHz. Standard 3 Wire Interface
Features 4.240 GHz Standard 3 Wire Interface Small layout 0.582" 0.8" Applications Digital Radio Equipment Fixed Wireless Access Satellite Communications Systems Base Stations Personal Communications Systems
PLL Frequency Synthesizer ADF4106
PLL Frequency Synthesizer ADF46 FEATURES 6. GHz Bandwidth 2.7 V to 3.3 V Power Supply Separate Charge Pump Supply (V P ) Allows Extended Tuning Voltage in 3 V Systems Programmable Dual-Modulus Prescaler
Ultra-Low-Power Phase-Locked Loop Design
Design for MOSIS Educational Program (Research) Ultra-Low-Power Phase-Locked Loop Design Prepared by: M. Shahriar Jahan, Xiaojun Tu, Tan Yang, Junjie Lu, Ashraf Islam, Kai Zhu, Song Yuan, Chandradevi Ulaganathan,
Radio Research Directions. Behzad Razavi Communication Circuits Laboratory Electrical Engineering Department University of California, Los Angeles
Radio Research Directions Behzad Razavi Communication Circuits Laboratory Electrical Engineering Department University of California, Los Angeles Outline Introduction Millimeter-Wave Transceivers - Applications
1-GHz and 2.8-GHz CMOS Injection-locked Ring. Oscillator Prescalers. Rafael J. Betancourt-Zamora, Shwetabh Verma. and Thomas H.
1-GHz and 2.8-GHz CMOS Injection-locked Ring Oscillator Prescalers Rafael J. Betancourt-Zamora, Shwetabh Verma and Thomas H. Lee Department of Electrical Engineering Stanford University http://www-smirc.stanford.edu/
A SiGe 6 Modulus Prescaler for a 60 GHz Frequency Synthesizer
A SiGe 6 Modulus Prescaler for a 6 GHz Frequency Synthesizer Noorfazila Kamal,YingboZhu, Said F. Al-Sarawi, Neil H.E. Weste,, and Derek Abbott The School of Electrical & Electronic Engineering, University
Bits to Antenna and Back
The World Leader in High Performance Signal Processing Solutions Bits to Antenna and Back June 2012 Larry Hawkins ADL5324 400 4000 MHz Broadband ½ W RF Driver Amplifier KEY SPECIFICATIONS (5 V) Frequency
Frequency Synthesizer
Frequency Synthesizer KSN-1600A-219+ 50 1550 to 1600 MHz The Big Deal Fractional N synthesizer Low phase noise and spurious Robust design and construction Small size 0.80" x 0.58" x 0.15" CASE STYLE: DK801
Frequency Synthesizer
Frequency Synthesizer KSN-2346A+ 50 2286 to 2346 MHz The Big Deal Low phase noise and spurious Robust design and construction Small size 0.800" x 0.584" x 0.154" CASE STYLE: DK801 Product Overview The
1-GHz and 2.8-GHz CMOS Injection-locked Ring Oscillator Prescalers
1-GHz and 2.8-GHz CMOS Injection-locked Ring Oscillator Prescalers Rafael J. Betancourt-Zamora, Shwetabh Verma and Thomas H. Lee Department of Electrical Engineering Stanford University http://www-smirc.stanford.edu/
An All CMOS, 2.4 GHz, Fully Adaptive, Scalable, Frequency Hopped Transceiver
An All CMOS, 2.4 GHz, Fully Adaptive, Scalable, Frequency Hopped Transceiver Farbod Behbahani John Leete Alexandre Kral Shahrzad Tadjpour Karapet Khanoyan Paul J. Chang Hooman Darabi Maryam Rofougaran
A 2.6GHz/5.2GHz CMOS Voltage-Controlled Oscillator*
WP 23.6 A 2.6GHz/5.2GHz CMOS Voltage-Controlled Oscillator* Christopher Lam, Behzad Razavi University of California, Los Angeles, CA New wireless local area network (WLAN) standards have recently emerged
Frequency Synthesizer
Frequency Synthesizer 50 1788 to 3019 MHz The Big Deal Low phase noise and spurious Robust design and construction DSN-3019A-119+ CASE STYLE: KL942 Product Overview The DSN-3019A-119+ is a Frequency Synthesizer,
A 1.6-to-3.2/4.8 GHz Dual Modulus Injection-Locked Frequency Multiplier in
RTU1D-2 LAICS A 1.6-to-3.2/4.8 GHz Dual Modulus Injection-Locked Frequency Multiplier in 0.18µm CMOS L. Zhang, D. Karasiewicz, B. Ciftcioglu and H. Wu Laboratory for Advanced Integrated Circuits and Systems
Design of a Frequency Synthesizer for WiMAX Applications
Design of a Frequency Synthesizer for WiMAX Applications Samarth S. Pai Department of Telecommunication R. V. College of Engineering Bangalore, India Abstract Implementation of frequency synthesizers based
/$ IEEE
IEEE TRANSACTIONS ON CIRCUITS AND SYSTEMS II: EXPRESS BRIEFS, VOL. 53, NO. 11, NOVEMBER 2006 1205 A Low-Phase Noise, Anti-Harmonic Programmable DLL Frequency Multiplier With Period Error Compensation for
Multiband multistandard direct-conversion TV tuner
SPECIFICATION 1 FEATURES TSMC 0.18 um SiGe BiCMOS technology Direct conversion receiver A few number of external components 0.18 um SiGe BiCMOS technology Integrated 75 Ω input matched LNAs Integrated
Dual RF/IF PLL Frequency Synthesizers ADF4210/ADF4211/ADF4212/ADF4213
a FEATURES ADF4210: 550 MHz/1.2 GHz ADF4211: 550 MHz/2.0 GHz ADF4212: 1.0 GHz/2.7 GHz ADF4213: 1.0 GHz/3 GHz 2.7 V to 5.5 V Power Supply Separate Charge Pump Supply (V P ) Allows Extended Tuning Voltage
LOW-VOLTAGE GHZ-RANGE FREQUENCY SYNTHESIZER
LOW-VOLTAGE GHZ-RANGE FREQUENCY SYNTHESIZER SUN YUAN SCHOOL OF ELECTRICAL AND ELECTRONIC ENGINEERING 2008 LOW-VOLTAGE GHZ-RANGE FREQUENCY SYNTHESIZER Sun Yuan School of Electrical and Electronic Engineering
A 9.5mW 4GHz WCDMA Frequency Synthesizer in 0.13µm CMOS
A 9.5mW 4GHz WCDMA Frequency Synthesizer in 0.13µm CMOS Xinhua Chen and Qiuting Huang Integrated Systems Laboratory Swiss Federal Institute of Technology (ETH) Gloriastrasse 35, CH-8092 Zurich, Switzerland
Frequency Synthesizer
50Ω The Big Deal 7600 to 7800 MHz Low phase noise and spurious Fast settling time, 50µs Max Robust design and construction Frequency modulation capability Size 2.75" x 1.96" x 0.75" CASE STYLE: KF1336
A fast-locking agile frequency synthesizer for MIMO dual-mode WiFi/WiMAX applications
Analog Integr Circ Sig Process (2010) 64:69 79 DOI 10.1007/s10470-009-9355-1 A fast-locking agile frequency synthesizer for MIMO dual-mode WiFi/WiMAX applications Meng-Ting Tsai Æ Ching-Yuan Yang Received:
Technical Data IFD IFD-53110
Silicon Bipolar MMIC 3.5 and 5.5 GHz Divide-by- Static Prescalers Technical Data IFD-53 IFD-53 Features Wide Operating Frequency Range: IFD-53:.5 to 5.5 GHz IFD-53:.5 to 3.5 GHz Low Phase Noise: -3 dbc/hz
A 20GHz Class-C VCO Using Noise Sensitivity Mitigation Technique
Matsuzawa Lab. Matsuzawa & Okada Lab. Tokyo Institute of Technology A 20GHz Class-C VCO Using Noise Sensitivity Mitigation Technique Kento Kimura, Kenichi Okada and Akira Matsuzawa (WE2C-2) Matsuzawa &
24-bit Step Size, Resolution 3 Hz typ Exact Frequency Mode Built-in Digital Self Test 40 Lead 6x6mm SMT Package: 36mm 2. Phased Array Applications
Features RF Bandwidth: 1815 to 2010 MHz Ultra Low Phase Noise -110 dbc/hz in Band Typ. Figure of Merit (FOM) -22 dbc < 180 fs RMS Jitter 24-bit Step Size, Resolution 3 Hz typ Exact Frequency Mode Built-in
A Low Phase Noise LC VCO for 6GHz
A Low Phase Noise LC VCO for 6GHz Mostafa Yargholi 1, Abbas Nasri 2 Department of Electrical Engineering, University of Zanjan, Zanjan, Iran 1 yargholi@znu.ac.ir, 2 abbas.nasri@znu.ac.ir, Abstract: This
60 GHz RX. Waveguide Receiver Module. Features. Applications. Data Sheet V60RXWG3. VubIQ, Inc
GHz RX VRXWG Features Complete millimeter wave receiver WR-, UG-8/U flange Operates in the to GHz unlicensed band db noise figure Up to.8 GHz modulation bandwidth I/Q analog baseband interface Integrated
24-bit Step Size, Resolution 3 Hz typ Exact Frequency Mode Built-in Digital Self Test 40 Lead 6x6 mm SMT Package: 36 mm 2. Phased Array Applications
Features Tri-band RF Bandwidth: Ultra Low Phase Noise -105 dbc/hz in Band Typ. Figure of Merit (FOM) -227 dbc/hz < 180 fs RMS Jitter 24-bit Step Size, Resolution 3 Hz typ Exact Frequency Mode Built-in
700 MHz to 3000 MHz, Dual Passive Receive Mixer with Integrated PLL and VCO ADRF6614
7 MHz to 3 MHz, Dual Passive Receive Mixer with Integrated PLL and VCO ADRF664 FEATURES RF frequency: 7 MHz to 3 MHz, continuous LO input frequency: 2 MHz to 27 MHz, high-side or lowside injection IF range:
Ten-Tec Orion Synthesizer - Design Summary. Abstract
Ten-Tec Orion Synthesizer - Design Summary Lee Jones 7/21/04 Abstract Design details of the low phase noise, synthesized, 1 st local oscillator of the Ten-Tec model 565 Orion transceiver are presented.
Quadrature Generation Techniques in CMOS Relaxation Oscillators. S. Aniruddhan Indian Institute of Technology Madras Chennai, India
Quadrature Generation Techniques in CMOS Relaxation Oscillators S. Aniruddhan Indian Institute of Technology Madras Chennai, India Outline Introduction & Motivation Quadrature Relaxation Oscillators (QRXO)
RFIC Design for Wireless Communications
RFIC Design for Wireless Communications VLSI Design & Test Seminar, April 19, 2006 Foster Dai 1. An MIMO Multimode WLAN RFIC 2. A Σ Direct Digital Synthesizer IC Foster Dai, April, 2006 1 1. Dave An MIMO
Fabricate a 2.4-GHz fractional-n synthesizer
University of Malaya From the SelectedWorks of Professor Mahmoud Moghavvemi Summer June, 2013 Fabricate a 2.4-GHz fractional-n synthesizer H Ameri Mahmoud Moghavvemi, University of Malaya a Attaran Available
The Effect of Substrate Noise on VCO Performance
(RTU4A-1) The Effect of Substrate Noise on VCO Performance Nisha Checka, David D. Wentzloff, Anantha Chandrakasan, Rafael Reif Microsystems Technology Laboratory, MIT 60 Vassar St. Rm. 39-625 Cambridge,
Low Phase Noise CMOS Ring Oscillator VCOs for Frequency Synthesis
Low Phase Noise CMOS Ring Oscillator VCOs for Frequency Synthesis July 27, 1998 Rafael J. Betancourt Zamora and Thomas H. Lee Stanford Microwave Integrated Circuits Laboratory jeihgfdcbabakl Paul G. Allen
THE reference spur for a phase-locked loop (PLL) is generated
IEEE TRANSACTIONS ON CIRCUITS AND SYSTEMS II: EXPRESS BRIEFS, VOL. 54, NO. 8, AUGUST 2007 653 Spur-Suppression Techniques for Frequency Synthesizers Che-Fu Liang, Student Member, IEEE, Hsin-Hua Chen, and
Wideband Synthesizer with Integrated VCO ADF4350
FEATURES Output frequency range: 137.5 MHz to 4400 MHz Fractional-N synthesizer and integer-n synthesizer Low phase noise VCO Programmable divide-by-1/-2/-4/-8/-16 output Typical rms jitter: 0.5 ps rms
Noise Analysis of Phase Locked Loops
Noise Analysis of Phase Locked Loops MUHAMMED A. IBRAHIM JALIL A. HAMADAMIN Electrical Engineering Department Engineering College Salahaddin University -Hawler ERBIL - IRAQ Abstract: - This paper analyzes
Design of Phase Locked Loop as a Frequency Synthesizer Muttappa 1 Akalpita L Kulkarni 2
IJSRD - International Journal for Scientific Research & Development Vol. 3, Issue 03, 2015 ISSN (online): 2321-0613 Design of Phase Locked Loop as a Frequency Synthesizer Muttappa 1 Akalpita L Kulkarni
Wideband Synthesizer with Integrated VCO ADF4350
FEATURES Output frequency range: 137.5 MHz to 4400 MHz Fractional-N synthesizer and integer-n synthesizer Low phase noise VCO Programmable divide-by-1/-2/-4/-8/-16 output Typical rms jitter:
<180 fs RMS Jitter 24-bit Step Size, Resolution 3 Hz typ Exact Frequency Mode Built in Digital Self Test 40 Lead 6x6 mm SMT Package: 36 mm 2
Features RF Bandwidth: Maximum Phase Detector Rate 1 MHz Ultra Low Phase Noise -11 dbc/hz in Band Typ. Figure of Merit (FOM) -227 dbc/hz Typical Applications Cellular/4G, WiMax Infrastructure Repeaters
Dual Low Power Frequency Synthesizers ADF4217L/ADF4218L/ADF4219L
a FEATURES Total I DD : 7 ma Bandwidth/RF 3 GHz ADF427L/ADF428L, IF GHz ADF429L, IF GHz 26 V to 33 V Power Supply 8 V Logic Compatibility Separate V P Allows Extended Tuning Voltage Selectable Dual Modulus
A 2.2GHZ-2.9V CHARGE PUMP PHASE LOCKED LOOP DESIGN AND ANALYSIS
A 2.2GHZ-2.9V CHARGE PUMP PHASE LOCKED LOOP DESIGN AND ANALYSIS Diary R. Sulaiman e-mail: diariy@gmail.com Salahaddin University, Engineering College, Electrical Engineering Department Erbil, Iraq Key
Military End-Use. Phased Array Applications. FMCW Radar Systems
Features RF Bandwidth: 9.05 ghz to 10.15 ghz Fractional or Integer Modes Ultra Low Phase Noise 9.6 ghz; 50 MHz Ref. -106 / -102 dbc/hz @ 10 khz (Int / frac) dbc/hz @ 1 MHZ (Open Loop) Figure of Merit (FOM)
60 GHz Receiver (Rx) Waveguide Module
The PEM is a highly integrated millimeter wave receiver that covers the GHz global unlicensed spectrum allocations packaged in a standard waveguide module. Receiver architecture is a double conversion,
ISSCC 2006 / SESSION 33 / MOBILE TV / 33.4
33.4 A Dual-Channel Direct-Conversion CMOS Receiver for Mobile Multimedia Broadcasting Vincenzo Peluso, Yang Xu, Peter Gazzerro, Yiwu Tang, Li Liu, Zhenbiao Li, Wei Xiong, Charles Persico Qualcomm, San
A GHz Wideband Sub-harmonically Injection- Locked PLL with Adaptive Injection Timing Alignment Technique
A 2.4 3.6-GHz Wideband Sub-harmonically Injection- Locked PLL with Adaptive Injection Timing Alignment Technique Abstract: This paper proposes a wideband sub harmonically injection-locked PLL (SILPLL)
AN3: Application Note
: Introduction The PE3291 fractional-n PLL is well suited for use in low data rate (narrow channel spacing) applications below 1 GHz, such as paging, remote meter reading, inventory control and RFID. It
A Low Power Single Phase Clock Distribution Multiband Network
A Low Power Single Phase Clock Distribution Multiband Network A.Adinarayana Asst.prof Princeton College of Engineering and Technology. Abstract : Frequency synthesizer is one of the important elements
Chapter 2 Analysis of Quantization Noise Reduction Techniques for Fractional-N PLL
Chapter 2 Analysis of Quantization Noise Reduction Techniques for Fractional-N PLL 2.1 Background High performance phase locked-loops (PLL) are widely used in wireless communication systems to provide
26.5 GHz, Integer N/Fractional-N, PLL Synthesizer ADF41513
265 GHz, Integer N/Fractional-N, PLL Synthesizer ADF453 FEATURES GENERAL DESCRIPTION GHz to 265 GHz bandwidth The ADF453 is an ultralow noise frequency synthesizer that Ultralow noise PLL can be used to
PHASE-LOCKED OSCILLTOR TO 16 GHz PLO-SFSO/MFSO-B1-S/E/C
Datasheet PHASE-LOCKED OSCILLTOR 1.925 TO 16 GHz TMYTEK s phase-locked oscillator is a pre-configured source suitable for any RF front-end systems. The SFSO and the MFSO series offers users the choice
Choosing Loop Bandwidth for PLLs
Choosing Loop Bandwidth for PLLs Timothy Toroni SVA Signal Path Solutions April 2012 1 Phase Noise (dbc/hz) Choosing a PLL/VCO Optimized Loop Bandwidth Starting point for setting the loop bandwidth is
Phase Noise and Tuning Speed Optimization of a MHz Hybrid DDS-PLL Synthesizer with milli Hertz Resolution
Phase Noise and Tuning Speed Optimization of a 5-500 MHz Hybrid DDS-PLL Synthesizer with milli Hertz Resolution BRECHT CLAERHOUT, JAN VANDEWEGE Department of Information Technology (INTEC) University of