Complete Program Book [PDF]
Complete Program Book [PDF]
Complete Program Book [PDF]
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Sunday<br />
Monday<br />
Tuesday<br />
Wednesday<br />
Thursday<br />
Friday<br />
07:00-08:00 – Workshop and Short Course Breakfast<br />
07:00-08:00 – Workshop and Short Course Breakfast<br />
07:00-09:00 Attendee Continental Breakfast<br />
07:00-09:00 Attendee Continental Breakfast<br />
07:00-09:00 Attendee Continental Breakfast<br />
07:00-08:00 – Workshop<br />
and Short Course Breakfast<br />
Saturday<br />
Registration 4:00- 8:00<br />
08:00 Full-Day and Morning Workshops and Short Courses 13:00 Afternoon Workshops<br />
WSA: High Data Rate 60GHz Radio Link Applications & Design<br />
WSB: Advances in Circuit Design for Wideband Millimeter Wave Applications<br />
WSD: RF SoC interaction with peripherals and the demand for attention to coupling effects in early design phases<br />
WSE: Advanced PLL architectures for embedded SoC applications<br />
WSF: Medical Applications of RF and Microwaves WSC: Recent Advances in GaN HEMT Performance, Modeling, Linearity and Design Techniques<br />
WSH: Measurements for Wireless System-Level Evaluation WSG: Analog-Digital Co-Design Techniques for Nanometer CMOS Transceiver SoC Integration<br />
WSI: Adaptive Low-Power Front-Ends for Wireless Communication Systems WSJ: Advancements in Power Amplifiers and Transmitters for Mobile Wireless Products<br />
WSK: Advances in High Power Devices and PA Architectures for Wireless Infrastructure<br />
WSL: On-Chip Calibration, Compensation, and Filtering Techniques for Wireless SoC<br />
WSM: Advanced CMOS based systems for biomedical applications<br />
WSN: Low-Voltage RF Design in 45nm and Beyond<br />
WSO: Getting Accurate Results with Nonlinear Circuit Analysis TSB: Noise In Linear Circuits<br />
TSC: Advances in CAD Techniques for EM Modeling and Design Optimization<br />
Registration 07:00- 8:00 • RFIC Plenary Session 7:30- 9:00 (GWCC Room A4 ab)<br />
08:00 Full-Day and Morning Workshops and Short Courses 12:15-13:15 Panel 13:00 Afternoon Workshops<br />
WMA: Highly Efficient Linear Power Transmitters for Wireless Applications based on Switching Mode Amplifiers<br />
WMB: Enabling Technologies for Wireless Transceivers Beyond-3G<br />
WMC: Challenges in Model-based HPA Design<br />
WMD: Millimeter-Wave Power Amplifier Technology: Power, Linearity and Efficiency<br />
WME: CMOS/SiGe-based Systems for mm-Wave Commercial Applications<br />
WMF: Design and implementation techniques for multiband filters WMG: Miniaturization Techniques of RF and Microwave Filters<br />
WMH: Advances in Reconfigurable Microwave Technologies for Wireless Communication and Radar Sensing<br />
WMI: High Speed Signal Integrity Workshop with Emphasis on Jitter<br />
WMJ: 3D Metamaterials: Theory, Structures, Techniques, and Devices Millimeter-wave IC: Is<br />
WMK: High-speed electronic technologies for > 100-G communications<br />
WML: Progress in Microwave Ferrite Materials and Applications<br />
WMM: Printed RF Electronics, RFID’s and Wireless Sensors: State and Challenges<br />
WMN: Applications and misapplications of measurement uncertainty<br />
silicon wining? Is GaAS<br />
still Alive?<br />
(GWCC Room A412ab)<br />
TMA: RF Design Components of Magnetic Resonance Imaging TMB: Demystifying Microwave Signal Integrity - High Speed Design & Measurement<br />
Registration: 07:00- 700 • RFIC Symposium 08:00- 7: 0<br />
10:10-11:50 Plenary Session 12:15-13:15 Panel 13:20-15:00 TU3 Oral Sessions 15:30-17:10 TU4 Oral Sessions<br />
Cognitive Radio for Open<br />
Access and White Space<br />
(GWCC A305)<br />
TU3A: Wireless Communication Front-end<br />
Technologies (A311)<br />
TU3B: RF MEMS Device Technologies (A312)<br />
TU4A: UWB Techniques and Radar Systems<br />
(A311)<br />
TU4B: RF MEMS Tunable and Reconfigurable<br />
MEMS Circuits (A312)<br />
Plenary Session<br />
TU3C: Hybrid and Optimized Time-Domain TU4C: Grand Challenges in Time-Domain<br />
Sydney Marcus Auditorium<br />
Methods (A313)<br />
Modeling (A313)<br />
TU3D: Advances in HF, VHF and UHF Power TU4D: Advanced Applications of Transmission<br />
Amplifiers (A314)<br />
Line Elements (A314)<br />
TU3E: Microwave Packaging and Materials TU4E: Circuits and Techniques for GHz<br />
(A402/403)<br />
Transmission (A402/403)<br />
Registration 07:00- 7:00 • IMS Exhibition 09:00- 7:00 • Micro Apps 09: 0- 7:00 • RFIC Symposium 08:00- 7: 0 • RFIC Interactive Forum 4:00- 7:00<br />
08:00-09:40 WE1 Oral Sessions 10:10-11:50 WE2 Oral Sessions 12:15-13:15 Panel 13:20-15:00 WE3 Oral Sessions 15:30-17:10 WE4 Oral Sessions<br />
WE1A: Electromagnetic Analysis of Complex WE2A: Theory and Applications of<br />
WE3A: Planar Filters I (A311) WE4A: Planar Filters II (A311)<br />
Structures (A311)<br />
Metamaterials (A311) Wireless Medical<br />
WE1B: Novel Low Phase-Noise Techniques for WE2B: Advances in High Frequency Signal Technology (GWCC A305) WE3B: Low Noise Devices and Circuits (A312) WE4B: High-Performance Frequency Conver-<br />
VCO’s and Synthesizers (A312)<br />
Sources (A312)<br />
sion and Control Integrated Circuits (A312)<br />
WE1C: Nonlinear Measurement Techniques<br />
Using CW, Pulsed and Modulated Excitations<br />
WE2C: Linear Network Measurement (A313)<br />
WE3C: Nonlinear Device Modeling (A313) WE4C: Tags and Sensors (A313)<br />
(A313)<br />
The Rise of System and<br />
WE1D: Advances in Solid-State Millimeter-<br />
Wave Technology (A314)<br />
WE2D: Advanced Techniques for Sub-mm<br />
Wave Generation, Amplification and<br />
Frequency Conversion (A314)<br />
Service Engineering (GWCC WE3D: RF-over-Fiber Links and Components<br />
A302)<br />
(A314)<br />
WE4D: Microwave Photonic Technologies and<br />
Systems (A314)<br />
WE1E: New Benchmarks in Power Amplifiers WE2E: Advancements in the Linearity of<br />
WE3E: Frequency-Domain Techniques WE4E: Linear Device Modeling (A315/316)<br />
(A315/316)<br />
Power Amplifiers (A315/316)<br />
(A315/316)<br />
Registration 07:00- 7:00 • IMS Exhibition 09:00- 7:00 • Micro Apps 09: 0- 7:00 • IMS Interactive Forum 09:30- :30, 4:00- 6:00<br />
08:00-09:40 TH1 Oral Sessions 10:10-11:50 TH2 Oral Sessions 12:15-13:15 Panel 13:20-15:00 TH3 Oral Sessions 15:30-17:10 TH4 Oral Sessions<br />
TH1A: Filter Theory and New Concepts (A311) TH2A: Filter Realization Techniques (A311)<br />
TH3A: Microacoustic Front-end Technologies<br />
(Special) (A311)<br />
TH4A: Ferrites and Ferroelectrics (A311)<br />
TH1B: High Power Amplifiers for Infrastructure TH2B: Advanced High-Efficiency Power<br />
Automotive Radar (A305) TH3B: Power Amplifier Design Techniques for TH4B: Advanced Techniques for CAD (A312)<br />
Applications (A312)<br />
Amplifier Concepts (A312)<br />
Millimeter-wave and Multi-band Applications<br />
(A312)<br />
TH1C: Dual-Band Passive Components (A313) TH2C: Passive Semiconductor Microwave<br />
TH3C: Innovative Substrate Techniques for TH4C: Novel Passive Components (A313)<br />
Components (A313)<br />
Passive Integration (A313)<br />
TH1D: Microwave & Millimeter Wave Phased TH2D: Retrodirective Phased Arrays & Smart<br />
TH3D: Biological Effects and Medical<br />
TH4D: Tunable and Active Filters (A314)<br />
Array & Applications (A314)<br />
Antennas (A314)<br />
Applications (A314)<br />
TH1E: History of MIC/MMIC Inventions - I TH2E: History of MIC/MMIC Inventions - II<br />
TH3E: Nonlinear Circuit Analysis and System TH4E: Novel Monolithic Circuit Elements and IC<br />
(Special) (A315/316)<br />
(Special) (A315/316)<br />
Simulation (A315/316)<br />
Technology (A315/316)<br />
TRANSITION: MOVING YOUR CAREER TO THE<br />
CREATIVITY IN MICROWAVE RESEARCH AND<br />
NEXT FRONTIER (GWCC A402)<br />
DEVELOPEMENT (GWCC A402)<br />
Registration 07:00- 7:00 • IMS Exhibition 09:00- 7:00 • Micro Apps 09: 0- 5:00 • IMS Interactive Forum 09:30- :30, 4:00- 6:00<br />
08:00 Full-Day and Morning Workshops and Short Courses<br />
WFA: Unification of Time Domain Methods in Computational Electromagnetics<br />
WFB: System in Package Technologies and Trends<br />
WFC: Progress in Local and Global Positioning in Europe<br />
12:15-13:15 Panel 13:00 Afternoon Workshops<br />
WFD: Computational Multi-Physics Techniques for the Analysis & Design of Electromagnetic Micro/Nano-Devices<br />
TFA: Spectrum Policy for the Microwave Engineer: Getting Technology from the Lab to the Marketplace<br />
ARFTG Conference and Exhibition 07:00- 7:00 • ARFTG Late Registration
Social Events Guest <strong>Program</strong><br />
RFIC Reception<br />
19:00-21:00<br />
GWCC Room A412ab<br />
IMS 2008 Reception<br />
18:00-20:00<br />
Omni Hotel, Grand Ballroom<br />
Atlanta’s Firsts<br />
09:00-12:00<br />
Wild Atlanta<br />
10:00-15:00<br />
15 June 2008<br />
16 June 2008<br />
Women in Microwaves Reception A Taste of the Peach 13:00-17:00<br />
18:00-20:00<br />
Omni Hotel, International Ballroom A<br />
Student Reception<br />
Covington’s Mansions and Magnolias<br />
19:00-21:00<br />
09:30-15:30<br />
Omni Hotel, International Ballroom D<br />
2008<br />
Joe Taylor Rump Session Reception<br />
18:30-19:10<br />
Georgia World Congress Center, A412ab<br />
June<br />
Ham Radio Social<br />
20:00-22:00<br />
Georgia World Congress Center, A402/403 17<br />
Industry Hosted Cocktail Reception<br />
18:00-20:00<br />
Omni Hotel, International Ballroom<br />
MTT-S Awards Banquet<br />
19:30-22:00<br />
Omni Hotel, Grand Ballroom<br />
MTT-S Student Awards Luncheon<br />
12:00-14:00<br />
Omni Hotel, International Ballroom F<br />
MTT-S Graduates of the Last Decade<br />
(GOLD) Reception<br />
17:30-19:00<br />
STATS Food Play Sports Bar<br />
Atlanta’s Famous Firsts<br />
09:00-13:00<br />
Mommy and Me<br />
10:00-15:00<br />
The Good Life In Historic Buckead<br />
09:30-16:00<br />
Cultural Midtown<br />
13:00-17:00<br />
Shop Till You Drop<br />
09:00-14:00<br />
Outlet Shopping<br />
14:30-18:30<br />
18 June 2008<br />
19 June 2008<br />
20 June 2008<br />
MICROWAvE WEEK<br />
IMS Chair’s Message 4<br />
What’s New for 2008 5–6<br />
IEEE and MTT-S Membership 7<br />
Advance and On-site Registration 8–10<br />
US Visa Advisory 11<br />
Accommodations 12–13<br />
About Atlanta and Transportation 14–15<br />
IMS TECHNICAL PROGRAM<br />
TAblE oF ConTEnTS<br />
Technical <strong>Program</strong> Chair’s Message 16<br />
Plenary Session 17<br />
Tuesday 18–23<br />
Technical Sessions<br />
Panel, Special, and Focused Sessions<br />
Student Paper Competition<br />
Wednesday 24–37<br />
Technical Sessions<br />
Interactive Forum<br />
Panel, Special, and Focused Sessions<br />
Thursday 38–51<br />
Technical Sessions<br />
Interactive Forum<br />
Panel, Special, and Focused Sessions<br />
Steering Committee 54–57<br />
Technical <strong>Program</strong> Committee 58<br />
MTT-S Technical Coordinating and Administrative Committees 59<br />
Future IMS Locations 59<br />
MTT-S Awards and IEEE Fellows 60–61<br />
RFIC TECHNICAL PROGRAM<br />
Chair’s Message 62<br />
Plenary and Panel Sessions 63<br />
Technical <strong>Program</strong> 64–68<br />
Committees 69<br />
ARFTG TECHNICAL PROGRAM<br />
Chair’s Message 70<br />
Technical <strong>Program</strong> and Committees 71<br />
WORKSHOPS AND SHORT COURSES<br />
Sunday 72–78<br />
Monday 79–86<br />
Friday 87–89<br />
ExHIBITION<br />
Commercial Exhibit 90–91<br />
MicroApps 92–93<br />
SOCIAL EvENTS AND GUEST PROGRAM<br />
Social Events 94<br />
Hospitality Suite and Recreational Activities 95-99<br />
3
4<br />
On behalf of the 2008 International Microwave Symposium (IMS 2008) steering committee, it is my honor<br />
and privilege to welcome you to Atlanta, Georgia for Microwave Week from the15th to the 20th of June.<br />
Drawing more than 10,000 participants and more than 400 exhibiting companies, Atlanta will become<br />
the industry epicenter for the latest in microwave, antenna and wireless technologies during this week.<br />
The excellent technical program of IMS is held as the premier event of Microwave Week 2008, and is complemented<br />
by exceptional programs within the Radio-Frequency Integrated Circuit Symposium (www.rfic2008.org) and the<br />
Automatic Radio-Frequency Techniques Group Conference (www.arftg.org). IMS also includes the world’s largest<br />
microwave industry exhibition, with over 800 exhibitor booths, IMS will provide many opportunities for networking<br />
and interacting with leading researchers and professionals in a variety of specific fields.<br />
As you come through the world’s busiest airport to one of the fastest growing metropolitan areas in the United<br />
States, including the third-largest concentration of Fortune 500 companies, you will find a multitude of activities<br />
for you and your family throughout the week. Whether it is visiting the world’s largest aquarium, tasting beverages<br />
from around the globe at the World of Coke, seeing behind the scenes action at the CNN headquarters, or cheering<br />
at an Atlanta Braves baseball game, our guest program is packed with urban exploration and I hope you will take<br />
advantage of all that Georgia has to offer.<br />
So, please, enjoy the local hospitality and activity while participating in our industry’s highlight of 2008.<br />
I look forward to meeting you in Atlanta.<br />
WElCoME FRoM THE IMS CHAIR<br />
Joy Laskar<br />
General Chair<br />
IMS 2008 International Microwave Symposium
Exhibit Hall A-3<br />
This year IMS 2008 will be co-locating many events with the IMS 2008<br />
exhibition. The third section of the exhibit floor, Hall A3 will be used<br />
for a variety of activities and will provide an increased opportunity for<br />
IMS attendees and exhibitors to interact. This includes the Historical<br />
Exhibit, University Pavilion, MTT GOLD Pavilion, and the International<br />
Pavilion.<br />
All pavilions and the Historical Exhibit will be open the same hours as<br />
the IMS 2008 Exhibition:<br />
Tuesday, 17 June 2008 09:00-17:00<br />
Wednesday, 18 June 2008 09:00-17:00<br />
Thursday, 19 June 2008 09:00-15:00<br />
WHAT’S nEW AT IMS 2008?<br />
HISTORICAL ExHIBIT:<br />
This year’s Historical Exhibit will feature the development and growth<br />
of technology in the State of Georgia.<br />
MTT GOLD PAvILION:<br />
The IEEE MTT GOLD Committee announces the creation of a dedicated<br />
space for MTT GOLD members to relax, network, and also receive GOLD<br />
related information during your IMS stay in Atlanta. Located in Hall A3<br />
of the exhibit hall, the pavilion will contain several table-top booths<br />
with IEEE benefit materials crucial in enhancing young engineers<br />
careers such as IEEE Mentoring Connection, IEEE.tv, IEEE Job Site, etc.<br />
In addition, a lounge area will also be available for members to take a<br />
break and relax as well. So, take a quick break from IMS and come join<br />
your fellow GOLDies at the MTT GOLD Pavilion!<br />
5
6<br />
The following events will also be<br />
taking place in Hall A3:<br />
WORKSHOP AND ATTENDEE BREAKFAST:<br />
The Workshop and Attendee breakfasts will be available in Hall A3 at<br />
07:00 beginning on Sunday 15 June 2008 and ending on Thursday 19<br />
June 2008. PLEASE NOTE: The Workshop breakfast on Friday 20 June<br />
2008 will be held on the Third Floor of the Georgia World Congress<br />
Center.<br />
BOxED LUNCH DISTRIBUTION:<br />
The Boxed Lunch distribution will be available in Hall A3 from 11:30<br />
to 13:00 beginning on Sunday 15 June 2008 and ending on Thursday<br />
19 June 2008. PLEASE NOTE: The Boxed Lunch Distribution on Friday<br />
20 June 2008 will be held on the Third Floor of the Georgia World<br />
Congress Center.<br />
INTERACTIvE FORUM/STUDENT PAPER COMPETITION:<br />
The Interactive Forum and Student Paper Competition will be located<br />
in Hall A3. The schedule is as follows:<br />
Tuesday, 17 June 2008:<br />
IMS 2008 Student Paper Competition 14:00-16:00<br />
RFIC Interactive Forum 14:00-17:00<br />
Wednesday, 18 June 2008:<br />
IMS 2008 Interactive Forum 09:30-11:30, 14:00-16:00<br />
Thursday, 19 June 2008:<br />
IMS 2008 Interactive Forum 09:30-11:30, 14:00-16:00<br />
WHAT’S nEW AT IMS 2008?<br />
STUDENT COMPETITIONS:<br />
Tuesday, 17 June 2008:<br />
Student High Efficiency Power Amplifier Design Competition<br />
13:00-17:00<br />
This competition is open to all students and graduate students<br />
registered at an educational establishment. The competitors are<br />
required to design, construct, and measure a high efficiency power<br />
amplifier, at a frequency of their choice above 1 GHz but less than 20<br />
GHz, and having an output power level of at least 5 watts, but less<br />
than 100 watts.<br />
Student Low Power Consumption FM Radio Receiver Design<br />
Competition<br />
13:30-16:00<br />
A Low Power Consumption RF Radio Receiver Design Competition<br />
is open to all students registered at an educational institution.<br />
Competitors are required to design, contruct, measure, and<br />
demonstrate an FM radio receiver with low DC (battery) power<br />
consumption driving simple earphones/earbuds.<br />
Wednesday, 18 June 2008:<br />
Student Packaged x-Band Filter Competition<br />
13:00-17:00<br />
This contest is open to all IEEE MTT Student members enrolled at a<br />
university as a student or PhD student. Competitors are required to<br />
design and fabricate an X-band filter with optimum packaging and<br />
interconnects, using a predefined package. Contest participants are<br />
required to present a piece of hardware at the 2008 International<br />
Microwave Symposium in Atlanta where all packaged filters will be<br />
characterized by an MTT-12 and an MTT-8 team.<br />
For more information on the Student Competitions, please visit the<br />
IMS 2008 website at www.ims2008.org.
IEEE<br />
The IEEE is a nonprofit, professional association with more than<br />
367,000 members (including 73,000 students) in over 150 countries.<br />
This global organization helps support the development and application<br />
of technology and science around the world for the benefit of humanity,<br />
the individual, and the profession.<br />
MTT-S<br />
The IEEE Microwave Theory and Techniques<br />
Society (MTT-S) is a transnational society<br />
with more than 9,000 members and 80<br />
chapters worldwide. Our society promotes<br />
the advancement of microwave theory and its<br />
applications, at frequencies from 200 MHz to 1<br />
THz and beyond. As we enter into an exciting<br />
future, our mission is to continue to understand<br />
and influence microwave technology.<br />
benefits of Membership<br />
The benefits of IEEE membership include:<br />
• Discounted conference registration rates<br />
• Subscriptions to the award-winning IEEE Spectrum and<br />
online access to IEEE Potentials magazines<br />
• Online access to the tables of contents and expanded abstract<br />
from over one million IEEE documents with full text-searching<br />
capability<br />
IEEE and MTT-S MEMbERSHIP<br />
Join the IEEE<br />
now and<br />
save on your<br />
conference<br />
registration!<br />
• Free IEEE e-mail alias including virus scanning<br />
and optional spam filtering<br />
• IEEE Financial Advantage- negotiated exclusively for IEEE<br />
members<br />
Join the IEEE and MTT-S<br />
To join the IEEE or renew your membership, please visit, email, or call:<br />
WEB:<br />
http://www.ieee.org/web/<br />
membership/join/join.htm<br />
EMAIL: new.membership@ieee.org<br />
PHONE (US and CANADA):<br />
+ 1-800-678-4333<br />
PHONE (WORLDWIDE):<br />
+ 1-732-981-0060<br />
Attendees who join the IEEE for $80.50 and MTT-S for $7.00 before<br />
the Symposium will save $185 on their registration fee. The price of an<br />
IEEE/MTT-S membership more than pays for itself!<br />
Half-year rates apply to new members only. New applications received<br />
between 1 March 2008 and 15 August 2008 will automatically be<br />
processed for half-year membership. If the applications specifically<br />
request, their application will be processed for the full year.<br />
IEEE and MTT-S MEMbERSHIP DUES<br />
IEEE Half-Year Dues MTT-S Half-Year Dues<br />
Residence Member Student Member Student<br />
United States $82.50 $15.00 $7.00 $4.00<br />
Canada (Including GST) $76.28 $15.90 $7.00 $4.00<br />
Canada (Including HST) $81.32 $17.10 $7.00 $4.00<br />
Africa, Europe, Middle East $68.50 $12.50 $7.00 $4.00<br />
Latin America $65.00 $12.50 $7.00 $4.00<br />
Asia, Pacific $65.50 $12.50 $7.00 $4.00<br />
The optional MTT-S dues include a subscription to IEEE Microwave Magazine. MTT-S members can also purchase electronic and print subscriptions<br />
to the IEEE Transactions on Microwave Theory and Techniques, IEEE Microwave and Wireless Components Letter, IEEE/OSA Journal of Lightwave<br />
Technology, and IEEE MTT CD-ROM Collection. See IEEE Membership website for pricing.<br />
7
8<br />
Advance Registration<br />
Please follow these instructions for completing the Advance<br />
Registration Form on the facing page. Advance Registration<br />
rates are valid until the deadlines shown on the form and are<br />
approximately 30% lower than the on-site fees shown on Page 10.<br />
Registration is required for all attendees, including SESSION CHAIRS<br />
and PRESENTERS. Only paid attendees will be admitted to the<br />
breakfasts, workshops, technical sessions, and Exhibition Hall. This<br />
form is not used for the guest tour registration, which is described<br />
elsewhere in this <strong>Program</strong> <strong>Book</strong>. Each registrant must submit a<br />
separate form with payment. Registration by telephone is available<br />
for the handicapped, special needs, or information; please call<br />
1-781-769-9750.<br />
Methods of Registration<br />
1<br />
Individuals can register online, by FAX, or by mail. Those registering by<br />
mail should send their form in early enough to ensure the application<br />
is received by the deadline; otherwise on-site fees will be charged. If<br />
the registration is sent by FAX, do not send it by mail. Additional items<br />
can be added on-site after advance registration.<br />
Personal Information<br />
12<br />
For phone numbers outside the U.S., please include a country code.<br />
If you would like to receive information by email from the IEEE, MTT-S,<br />
or microwave companies, mark the appropriate boxes. An optional<br />
complimentary badge for one guest allows access to the Hospitality<br />
Suite, Plenary Session, and Exhibition Hall but does not allow access<br />
to Technical Sessions and Workshops.<br />
Membership<br />
13<br />
Check the boxes of all organizations of which you are a member. To<br />
receive IEEE member rates, enter your member number and present<br />
your IEEE card upon check-in at the conference. Registrants who<br />
do not have a current IEEE membership card at check-in will be<br />
charged the nonmember rates. If you are not a member and wish<br />
to take advantage of the member rates, call 1-800-678-IEEE or visit<br />
www.ieee.org/services/join prior to registering.<br />
Symposia<br />
14<br />
Microwave Week hosts three symposia: the International Microwave<br />
Symposium (IMS), the RFIC Symposium, and the ARFTG Conference.<br />
Select the conferences you wish to attend. Students, retirees, and IEEE<br />
Life Members receive a discount on registration fees. To qualify as a<br />
student, a registrant must be either an IEEE Student Member or a fulltime<br />
student carrying a course load of at least nine credit hours.<br />
• IMS Technical sessions are held on Tuesday, Wednesday, and<br />
Thursday. Registration includes continental breakfast, admission<br />
to the exhibits, abstract books, and a CD-ROM.<br />
ADVAnCE REGISTRATIon<br />
• RFIC technical sessions are held on Monday and Tuesday.<br />
Registration includes continental breakfast, admission to the RFIC,<br />
Reception and exhibits, a digest, and a CD-ROM.<br />
• ARFTG technical sessions are held on Friday. Registration includes<br />
breakfast, lunch, a CD-ROM, and admission to the ARFTG<br />
exhibition. ARFTG Conference member rates are available to both<br />
ARFTG and IEEE members.<br />
• Microwave Week hosts the largest exhibition of its kind with over<br />
400 companies. Exhibit-only registration is available on-site for $20.<br />
Extra CD-RoMs and Digests<br />
15<br />
Additional CD-ROMs (IMS, RFIC and ARFTG) and digests (RFIC only)<br />
are available for purchase and pickup at the conference. After the<br />
Symposium, digests (RFIC only) and CD-ROMs (IMS, RFIC and ARFTG)<br />
will be available for purchase from IEEE.<br />
Awards banquet<br />
16<br />
The MTT-S Awards Banquet will be held on Wednesday from 19:30<br />
to 22:00 at the Omni Hotel in the Grand Ballroom. The evening will<br />
include fine dining, an awards presentation, and entertainment.<br />
Major Society awards will be presented.<br />
boxed lunches<br />
17<br />
Optional boxed lunches are available for purchase by all attendees but<br />
are especially convenient for those attending the Panel Sessions or<br />
Exhibition Hall during lunchtime. It is encouraged to purchase boxed<br />
lunches in advance, as on-site pricing will be higher. Refunds are NOT<br />
available since these lunches are ordered in advance.<br />
Workshops<br />
18<br />
The workshop fee includes a CD-ROM and speaker’s notes for that<br />
workshop. Full day workshops and morning workshops include<br />
a continental breakfast, boxed lunch and a morning refreshment<br />
break. Afternoon workshops include a boxed lunch and an afternoon<br />
refreshment break. The All-Workshop CD-ROM fee includes material<br />
for all workshops on one CD-ROM but does not include admission to<br />
any workshops.<br />
Remittance<br />
19<br />
Individual remittance must accompany the registration form and<br />
is payable in U.S. dollars only, using a personal check drawn on a<br />
U.S. bank, traveler’s check, international money order, or credit<br />
card (VISA, MasterCard or American Express only). Personal checks<br />
must be encoded at the bottom with the bank, account, and check<br />
number. Bank drafts, wire transfers, cash, and purchase orders are<br />
UNACCEPTABLE and will be returned. Please make checks and money<br />
orders payable to “IEEE/MTT-S”. Written requests for refunds will be<br />
honored if received by 9 May 2008. See Page 10 for full refund policy.
1<br />
Use the numbered instructions on the left as a guide to help you fill<br />
out the form below. Advance registration rates are available by FAX<br />
and mail until 9 May 2008 and online until 16 May 2008.<br />
2<br />
NAME<br />
AFFILIATION<br />
ADDRESS<br />
EMAIL<br />
TELEPHONE<br />
GUEST NAME<br />
MICRoWAVE WEEK ADVAnCE REGISTRATIon<br />
8<br />
ADvANCED REGISTRATION PRICING WORKSHOPS<br />
IMS IEEE Nonmember Cost<br />
All IMS sessions $395 $585 $<br />
All IMS Sessions (No CD-ROM) $340 $525 $<br />
Single Day Registration $200 $290 $<br />
Student, Retiree, Life Member $65 $130 $<br />
RFIC SYMPOSIUM IEEE Nonmember Cost<br />
All RFIC Sessions $210 $310 $<br />
RFIC Reception Only $55 $75 $<br />
ARFTG CONFERENCE IEEE or ARFTG<br />
Member<br />
Nonmember Cost<br />
All ARFTG Sessions $210 $330 $<br />
5<br />
Student, Retiree, Life Member $135 $135 $<br />
ExTRA CDS AND DIGESTS IEEE Nonmember Cost<br />
IMS and ARFTG CD-ROM # x $55 # x $105 $<br />
RFIC Digest # x $55 # x $105 $<br />
RFIC CD-ROM # x $55 # x $105 $<br />
AWARDS BANqUET Cost per Ticket Cost<br />
Awards Banquet # x $80 $<br />
LUNCH Monday Tuesday Wednesday Thursday Cost<br />
Boxed Lunches $20 $20 $20 $20 $<br />
9<br />
Atlanta, GA • 15-20 June 2008<br />
WWW<br />
www.mtt-sregistration.com<br />
FAx<br />
1-781-769-5037<br />
First Last<br />
SUNDAY MONDAY FRIDAY<br />
WSA Full Day WMA Full Day WFA Full Day<br />
WSB Full Day WMB Full Day WFB Full Day<br />
WSC Half Day WMC Full Day WFC Full Day<br />
WSD Full Day WMD Full Day WFD Full Day<br />
WSE Half Day WME Full Day TFA Half Day<br />
WSF Full Day WMF Half Day<br />
WSG Half Day WMG Half Day<br />
WSH Full Day WMH Full Day<br />
WSI Half Day WMI Half Day<br />
WSJ Half Day WMJ Half Day<br />
WSK Half Day WMK Full Day<br />
WSL Full Day WML Half Day<br />
WSM Half Day WMM Half Day<br />
WSN Half Day WMN Full Day<br />
WSO Half Day TMA Half Day<br />
TSB Half Day TMB Half Day<br />
TSC Full Day<br />
IEEE or ARFTG<br />
Member Nonmember<br />
MAIL<br />
MTT-S Registration<br />
685 Canton St., Norwood, MA 02062-2608<br />
Company Mail Stop<br />
Street<br />
City State Postal Code Country<br />
First Last<br />
3<br />
Member of MTTS ARFTG IEEE IEEE Membership Number<br />
4<br />
6<br />
7<br />
Emails from IEEE and MTT-S? Industry?<br />
Student, Retiree,<br />
Life Member Cost<br />
Full Day # x $155 # x $225 # x $105 $<br />
Half Day # x $105 # x $175 # x $80 $<br />
All Workshop CD # x $185 # x $275 # x $120 $<br />
See workshop section for a complete list of workshop descriptions<br />
Mastercard Visa American Express Expiration Date / TOTAL REMITTANCE $<br />
Month Year<br />
CARD NUMBER SIGNATURE<br />
By submitting this form you acknowledge that you have read and understand the policies regarding methods of payment, registration, refunds and requirements for proof of membership.<br />
9
0<br />
on-site Registration<br />
On-site registration for all Microwave Week events will be available at<br />
the Georgia World Congress Center.<br />
Registration hours are:<br />
Day Time<br />
Saturday, 14 June 2008 14:00-18:00<br />
Sunday, 15 June 2008 07:00-18:00<br />
Monday, 16 June 2008 07:00-17:00<br />
Tuesday, 17 June 2008 07:00-17:00<br />
Wednesday, 18 June 2008 07:00-17:00<br />
Thursday, 19 June 2008 07:00-15:00<br />
Friday, 20 June 2008 07:00-09:00<br />
Exhibit only Registration<br />
Exhibit-only registration is available on-site for $20.<br />
Guest Tour Registration<br />
Registration for guest tours will be available in the Georgia World<br />
Congress Center lobby. Please refer to the Guest Tour <strong>Program</strong> section<br />
of this <strong>Program</strong> <strong>Book</strong> for further details and tour descriptions.<br />
Press Registration<br />
Credentialed press representatives are welcome to register without<br />
cost, receiving access to technical sessions and exhibits. Digests are<br />
not included. The Press Room is located in GWCC Building A, Room<br />
411, on Tuesday through Thursday.<br />
ARFTG Registration<br />
Late on-site ARFTG registration will be available at the Omni Hotel on<br />
Friday from 07:00 to 11:00. If at all possible, please pre-register earlier<br />
in the week to reduce the on-site workload.<br />
onSITE REGISTRATIon<br />
Registration Fees<br />
On-site registration fees are as follows:<br />
Event Member NonMember<br />
IMS Sessions $515 ($80) $770 ($160)<br />
IMS Sessions (no CD-ROM) $440 $650<br />
Single-day Registration $270 $375<br />
RFIC Sessions $260 $390<br />
RFIC Reception Only $65 $85<br />
ARFTG Sessions $270 ($175) $420 ($175)<br />
IMS and ARFTG CD-ROM $75 $145<br />
RFIC Digest $75 $145<br />
RFIC CD-ROM $75 $145<br />
Boxed Lunches (per day) $25 $25<br />
Awards Banquet $95 $95<br />
Workshops (Full Day) $200 ($135) $300 ($135)<br />
Workshops (Half Day) $150 ($100) $225 ($100)<br />
All Workshop CD-ROM $240 ($150) $350 ($150)<br />
ARFTG Conference<br />
Compendium CD-ROM<br />
$105 $140<br />
ARFTG Workshop<br />
Compendium CD-ROM<br />
$70 $105<br />
Exhibition Only Pass $20 $20<br />
*Student, retiree, and IEEE Life Members prices are shown in<br />
parentheses.<br />
Refund Policy<br />
Written requests received by 9 May 2008 will be honored. Refund<br />
requests postmarked after this date and on-site refunds will be granted<br />
only if an event is cancelled. This policy applies to registration for the<br />
symposium sessions, workshops, digests, extra CD-ROMs, awards<br />
banquet, and boxed lunches. Please state the preregistrant’s name<br />
and provide a mailing address for the refund check. If registration was<br />
paid by credit card, the refund will be made through an account credit.<br />
An account number must be provided if the initial registration was<br />
done on-line. Address your requests to:<br />
MTT-S Registration<br />
685 Canton Street<br />
Norwood, MA USA 02062-2608
UnITED STATES VISA ADVISoRY<br />
United States Visa Advisory<br />
The United States has updated its visa policy for increased security.<br />
As a result, it now takes longer to obtain a visa. Advance planning by<br />
travelers is essential to avoid frustration and disappointment.<br />
• Review your visa status to find out if you need a U.S. visa or a<br />
visa renewal.<br />
• Plan to submit your visa application well in advance of your<br />
intended departure date.<br />
• Contact your nearest U.S. embassy or consulate for current time<br />
estimates and recommendations.<br />
• Visit the embassy or consular section website to find important<br />
information on how to schedule an interview appointment and<br />
pay fees. An interview is required as a standard part of processing<br />
for most visa applicants.<br />
• Plan on having finger scans as part of the visa application process.<br />
Two index-finger scans are normally collected by the consular<br />
officer at the visa interview window; however, in some countries,<br />
they may be collected prior to the actual visa interview.<br />
Visa Waiver <strong>Program</strong> (VWP)<br />
Citizens of the following countries can travel to the U.S. without a<br />
visa for tourism or business for 90 days or less under the Visa Waiver<br />
<strong>Program</strong> (VWP) if they meet other travel requirements. As of June 26,<br />
2005, visa waiver program travelers must have a machine-readable<br />
passport to enter the United States without a visa.<br />
Andorra Australia Austria<br />
Belgium Brunei Denmark<br />
Finland France Germany<br />
Iceland Ireland Italy<br />
Japan Liechtenstein Luxembourg<br />
Monaco The Netherlands New Zealand<br />
Norway Portugal San Marino<br />
Singapore Slovenia Spain<br />
Sweden Switzerland United Kingdom<br />
Canada and Bermuda are not participants in the Visa Waiver <strong>Program</strong>;<br />
however, the Immigration and Nationality Act includes other<br />
provisions for visa-free travel for nationals of Canada and Bermuda<br />
under certain circumstances. See: http://www.travel.state.gov/<br />
visa/temp/without/without_1260.html for details.<br />
Passports<br />
A passport with a validity date of at least six months beyond the<br />
applicant’s intended period of stay in the U.S. is required. If more<br />
than one person is included in the passport, each person desiring a<br />
visa must make a separate application. Temporary passports will likely<br />
merit special scrutiny. Check with your local U.S. consular offices, well<br />
ahead of your intended departure dates, to avoid complications.<br />
Visa letters<br />
A visa support letter can be provided for authors and registered<br />
attendees upon request. Contact Dr. Zaher Bardai, at zb@ieee.org,<br />
for visa assistance to attend IMS 2008. Please submit your requests<br />
for letters of support well in advance of your interview dates to allow<br />
sufficient time for processing. Spouses requiring visa assistance must<br />
be registered for an IMS Guest <strong>Program</strong> Event. Check the IMS 2008<br />
website (www.ims2008.org) for Guest <strong>Program</strong> details.<br />
Disclaimer<br />
This information is provided in good faith but travel regulations do<br />
change. The only authoritative sources of information are the U.S.<br />
Government websites at www.unitedstatesvisas.gov and<br />
http://travel.state.gov/visa/visa_1750.html.
ATTEnDEE ACCoMMoDATIonS<br />
Number Hotel Room Type Rate<br />
1 Atlanta Marriott Marquis Single/Double $195.00<br />
2 Embassy Suites Hotel @ Centennial Olympic Park Single/Double $199.00<br />
3 Hilton Atlanta Single/Double $173.00<br />
4 Hilton Garden Inn Single/Double $175.00<br />
5 Holiday Inn Atlanta Downtown Single/Double $152.00<br />
6 Hyatt Regency Single/Double $169.00<br />
7 Omni Hotel at CNN Center (HQ Hotel) Single/Double $185.00<br />
8 Westin Peachtree Plaza Single/Double $189.00<br />
9 Georgia World Congress Center Building A<br />
See www.ims2008.org/hotelinfo.php for triple and quad occupancy rates as well as additional information.
Reservations, modifications and cancellations will be accepted<br />
by the Housing Bureau until 2 May 2008. Listed convention rates<br />
available until 2 May 2008 based on availability.<br />
NAME<br />
AFFILIATION<br />
ADDRESS<br />
EMAIL<br />
TELEPHONE<br />
GUEST NAME<br />
GUEST EMAIL<br />
MICRoWAVE WEEK<br />
ATTEnDEE ACCoMMoDATIonS<br />
IMS-RFIC-ARFTG<br />
Atlanta, GA • 15-20 June 2008<br />
WWW<br />
www.ims2008.org<br />
FAx<br />
1-732-981-3427<br />
First Last<br />
Housing bureau Policies<br />
MAIL<br />
IMS 2008 Housing Bureau<br />
IEEE Meetings & Conference Management<br />
445 Hoes Lane, Piscataway, NJ 08854<br />
Company Mail Stop<br />
Street<br />
City State Postal Code Country<br />
First Last<br />
Mastercard Visa American Express Discover Diner’s Club<br />
CARD NUMBER Expiration Date /<br />
SIGNATURE<br />
• Reservations guaranteed by credit card may be cancelled without<br />
penalty until 2 May 2008. After 2 May 2008, a $15 fee will be charged<br />
for cancellations. After 16 May 2008, changes must be made directly<br />
with the hotel.<br />
• A confirmation will be sent after each reservation booking,<br />
modification, or cancellation within 14 days of receipt. If you do not<br />
receive a confirmation via e-mail, fax, or mail within 14 days of any<br />
transaction, contact the Housing Bureau by phone or e-mail.<br />
Confirmations will not be sent by the hotel. For questions about room<br />
blocks call 1-800-810-4333 or e-mail mtt-s08reservations@ieee.org.<br />
Hotel Preference<br />
Month Year<br />
• A deposit equal to the room rate for one night is required for each<br />
reservation. All rates are per room per night and subject to and<br />
additional 14% tax. Credit cards must be valid through June 2008<br />
to be used for deposits.<br />
• Specific room type will be assigned at check-in. Note that the room<br />
requests are not guaranteed. A valid government ID will be required<br />
at check-in for government rate rooms.<br />
• If more than one room is required, attach a list providing the occupants<br />
names and above information for each additional room. Requests for<br />
blocks of rooms without named occupants will not be accepted.<br />
Using the list of hotels on the facing page, please choose your top four choices:<br />
First Choice<br />
Second Choice<br />
Third Choice Fourth Choice<br />
If your hotel choices are unavailable, which is more important to you? Location Rate<br />
Room Requests<br />
Arrival Date / Departure Date / Government Rate? Yes No<br />
Month Day Month Day<br />
Room Size Single or Double Triple Quadruple<br />
Special Requests Nonsmoking Smoking King-Size Bed Wheelchair Accessible<br />
3
4<br />
AboUT ATlAnTA<br />
Did You Know...<br />
Atlanta is rapidly becoming known as the “Wireless Capital of the U.S.”<br />
Atlanta’s top 25 technology employers generated more than $622 billion in annual revenue.<br />
Georgia Research Alliance invested $400+M in capital investments and leverages over $2B.<br />
Metro Atlanta is considered to be first in the world in internet security.<br />
Ranked third in Telecom employment.<br />
More than 123,000 employed in high-tech industry, accounting for 5.2 percent of total employment.<br />
Ranked fourth fastest in growing computer software city.<br />
Ranked sixth in software industry employment.<br />
Metro Atlanta is the “most saturated wireless large city in America.”<br />
Atlanta, home of the Georgia Institute of Technology, produces more RF/Analog/EM and Signal Processing Engineers<br />
than any other U.S. program.<br />
Ranked 1st place for Top Cities for Corporate Headquarters by Business Facilities magazine, April 2003.<br />
Ranked 1st place by Inc Magazine for Best Places for Entrepreneurs/Businesses.<br />
Ranked 2nd place for America’s Hottest Cities for Business Expansion & Relocation Management magazine.<br />
Ranked 2nd for Regional Producers of Engineering Degrees Atlanta Regional Consortium for Higher Education.<br />
Ranked third in the nation among cities with the most FORTUNE 500 headquarters.<br />
Fourth largest research center in the U.S., with over $731 million in higher education research.<br />
For more information please visit:<br />
Atlanta Convention visitors Bureau<br />
www.atlanta.net<br />
Atlanta Development Authority<br />
www.atlantaada.com<br />
Georgia Department of Economic Development<br />
www.georgia.org
official Airlines<br />
The Airport Information and Ground Transportation Center<br />
conveniently located in the arrival lobby adjacent to Hertz Car Rental<br />
provides information on all forms of ground transportation.<br />
Delta: AirTran Airways:<br />
Group Sales Department 1-866-683-8368<br />
1-800-532-4777 Event Code: ATL061508<br />
www.delta.com Travel Period- June 12-23, 2008<br />
Transportation from the Airport<br />
For on-site assistance, Hartsfield-Jackson has now implemented a new<br />
Airport Information and Ground Transportation Center conveniently<br />
located in the arrivals lobby next door to Hertz Car Rental.<br />
Please see Hartsfield-Jackson website for detailed information:<br />
http://www.atlanta-airport.com/Default.asp<br />
MARTA (Metropolitan Atlanta<br />
Rapid Transit Authority)<br />
$1.75 plus $0.50. One Breeze card buys you one way on the city’s public<br />
transit train. The train docks right inside the airport terminals.<br />
For train times and stops please see: http://www.itsmarta.com/<br />
Taxi<br />
Taxi service is available to and from the Georgia World Congress Center<br />
downtown and the airport for a standard fare of $30.00. Other flat<br />
rates from the airport as are as follows:<br />
Midtown $ 32.00<br />
Buckhead $ 38.00<br />
*$2.00 charge for ea. additional person<br />
Atlanta link<br />
The exclusive shuttle service to and from Hartsfield-Jackson Atlanta<br />
International Airport, and Downtown, Midtown and Buckhead. They<br />
offer group and charter services.<br />
www.theatlantalink.com, 404-524-3400; 1-866-545-9633<br />
One Way Round Trip<br />
Downtown $16.50 per person $29 per person<br />
Midtown $18.50 per person $33 per person<br />
Buckhead $20.50 per person $37 per person<br />
Shuttle:<br />
Complimentary shuttle service to and from the GWCC will be provided<br />
for those reserving their hotel room through the IMS 20008 Housing<br />
Bureau. The pick-up and drop-off routes are located at:<br />
TRAnSPoRTATIon<br />
Route 1: Route 2:<br />
Westin Peachtree Plaza Marriott Marquis<br />
Hyatt Regency Atlanta<br />
Route 3:<br />
Hilton Atlanta<br />
Holiday Inn<br />
Rental Cars: Located in the arrival lobby<br />
Alamo, Avis, National, Hertz, Budget, Dollar Rent-A-Car, Thrifty,<br />
Enterprise<br />
Driving Directions from the<br />
Airport to GWCC<br />
Take I-75/85 north to the Andrew Young International Blvd (Exit<br />
248C). Turn left onto Andrew Young International Blvd. Turn left onto<br />
Centennial Olympic Park Drive. Turn right onto Marietta Blvd. The<br />
Green Lot is located on your left just past the Omni Hotel.<br />
Parking - GWCC<br />
Parking rates are $10 or less for all-day parking and never increase due<br />
to event day activity in downtown. All lots are gated and attendants<br />
are on duty during all show/event hours. Our small Green Lot located<br />
on Marietta Street is an hourly parking lot with rates at $3.00 per hour,<br />
capped at $15.00. Drivers will receive a time-stamped ticket that they<br />
will give to the parking attendant along with their payment upon their<br />
departure. Additionally, our own public safety force patrols the lots<br />
and decks ensuring the safety of you and your automobile. Emergency<br />
vehicle assistance is available for motorists in distress<br />
The GWCC offers a Campus Courtesy Shuttle that provides free shuttle<br />
service to attendees from parking lots to your event and vice versa.<br />
The shuttle stops at all parking lots and decks as well as the main<br />
entrances to the building. It makes continuous loops around the<br />
campus during show days, making your commute an easy one. Look<br />
for the Campus Courtesy Shuttle sign nearest you for a ride on the fast<br />
and free shuttle.<br />
PARKING INFORMATION<br />
• International (Red) Deck 2,000 spaces on 7 levels (MAIN DECK)<br />
• Orange Lot 580 spaces<br />
• Silver Lot 82 spaces<br />
• Blue Lot 722 spaces<br />
• Gold Deck 300 spaces<br />
• Yellow Lot 693 spaces<br />
• Green Lots 200 spaces<br />
For more information: http://www.gwcc.com/maps/parking.html<br />
5
6<br />
MESSAGE FRoM THE IMS TECHnICAl PRoGRAM CHAIR<br />
On behalf of the Technical <strong>Program</strong> Committee, I extend my welcome to the 2008 International Microwave<br />
Symposium, held in Atlanta for the first time in the 21st century. The Technical <strong>Program</strong> Committee,<br />
consisting of 241 reviewers in 31 subcommittees, worked very hard to provide you with the best possible<br />
technical program. Out of 762 submitted papers, 279 were selected for oral presentation, and 132 for<br />
the Interactive Forum (IF). This year we closely coordinated with the RFIC Conference and we have rearranged the<br />
regular sessions in five to six parallel sessions so that the IMS attendees have more flexibility to attend them. There<br />
is one Focused Session organized by Gerald DeJean and his team, focusing on the history of MICs and MMICs. Panel<br />
sessions organized by Chang-Ho Lee and his team occur during lunchtime (as usual) and focus on automotive radar,<br />
multi-gigabit wireless, wireless medical, system/service engineering and cognitive radio. We have clarified the rules<br />
for the Student Paper Competition and expect it to run smoothly thanks to Luca Rosseli’s efforts.<br />
Our Workshop Chair, Edward Gebara, and his committee organized 38 workshops of which four are jointly organized<br />
by IMS/RFIC and one is jointly organized by IMS/ARFTG. They are distributed on Sunday, Monday and Friday.<br />
I would like to thank many individuals for making this event possible. First are the three TPC Vice-Chairs, Kuytae Lim,<br />
John Papapolymerou and Stephane Pinel. Thanks to Jeff Pond, Jonathan Hacker, John Cressler and Roger Pollard for<br />
Electronic Paper Management. A tremendous amount of guidance was provided by Roger Pollard, Tatsuo Itoh and<br />
Joy Laskar. I am indebted to the dedicated effort of a number of volunteers from Georgia Tech, GEDC and GTRI.<br />
Finally, I should note that this symposium would not have been possible without the dedicated efforts of the authors<br />
of the technical papers submitted for the symposium and workshops. It is my hope that you will enjoy the technical<br />
depth and breadth of the program during Microwave Week in Atlanta.<br />
Manos Tentzeris<br />
Chair, IMS 2008 Technical <strong>Program</strong> Committee
TUESDAY PlEnARY SESSIon 10:10-11:50<br />
“SYMBIOTIC RELATIONSHIPS IN TECHNOLOGY AND<br />
BASIC SCIENCE”<br />
Joseph H. Taylor, James S. McDonnell Distinguished<br />
University Professor of Physics, Emeritus Princeton<br />
University, 2003 Nobel Laureate<br />
Discoveries made in the pursuit of basic knowledge of<br />
Nature’s laws can sometimes evolve<br />
into practical new machines or<br />
devices. These new technologies,<br />
in turn, can enable new laboratory<br />
techniques for the basic scientist.<br />
I will describe a few examples,<br />
with particular emphasis on RF/<br />
microwave engineering and my own<br />
field of astrophysics and radio astronomy.<br />
Dr. Taylor taught at the University of Massachusetts,<br />
Amherst, from 1968 to 1980, and since then in the Physics<br />
Department, Princeton University. From 1997 to 2003 he<br />
served as Dean of the Faculty at Princeton. He earned a BA<br />
in physics, with honors, from Haverford College in 1963,<br />
and a PhD in Astronomy from Harvard University in 1968.<br />
His research is in radio astronomy, especially the study of<br />
pulsars and their applications to experimental gravitation.<br />
Dr. Taylor is a member of the National Academy of Sciences,<br />
the American Academy of Arts and Sciences, and the<br />
American Philosophical Society. He has served on many<br />
Boards and advisory committees, such as the recent<br />
Committee on Assessment of Options for Extending the<br />
Life of the Hubble Space Telescope. He is the recipient of<br />
numerous prizes and awards, including the MacArthur<br />
Foundation Prize Fellowship, the Henry Draper Medal of<br />
the National Academy of Sciences, the Einstein Prize of the<br />
Albert Einstein Society, Bern, the Wolf Prize in Physics, and<br />
the 1993 Nobel Prize in Physics.<br />
SYDnEY MARCUS AUDIToRIUM<br />
WHAT SHOULD “OPEN ACCESS” WIRELESS REALLY<br />
MEAN? - A MODEST PROPOSAL<br />
Mike Farmwald, Director, Skymoon Ventures, Santa Clara,<br />
California<br />
Google (and others) have proposed “open access” concepts<br />
and rules for wireless broadband. We feel that the open<br />
access proposals don’t go nearly<br />
far enough in solving the real<br />
underlying technical, competitive,<br />
and regulatory issues. We will make<br />
a proposal that might solve some<br />
of these issues, and allow a much<br />
more open and innovative wireless<br />
broadband infrastructure (as well<br />
as creating significant new opportunities for wireless chip<br />
vendors.)<br />
Dr. Farmwald is a serial entrepreneur who founded six<br />
companies to date, five of which were financed in part by<br />
Benchmark Capital, where he is a Venture Partner. Most<br />
recently, Mike co-founded Matrix, which was acquired<br />
by SanDisk. Mike is probably best known for co-founding<br />
Rambus. Prior to Rambus, Mike founded FTL in 1986. FTL,<br />
an ECL supercomputing company, merged with MIPS in<br />
the same year. At MIPS, Mike served as Chief Scientist for<br />
High End Systems. Following his experience at MIPS, Mike<br />
was an Associate Professor of Electrical and Computer<br />
Engineering at the University of Illinois. Mike holds a BS<br />
degree in Mathematics from Purdue University and a Ph.D.<br />
in Computer Science from Stanford University.<br />
TUESDAY<br />
7
8<br />
13:20<br />
13:30 13:40<br />
13:50 14:00<br />
14:10 14:20<br />
14:30 14:40<br />
14:50<br />
TUESDAY TECHnICAl SESSIonS 13:20-15:00<br />
TU3A: Wireless Communication<br />
Front-end Technologies<br />
Chair: Yuanxun Ethan Wang, UCLA<br />
Co-chair: Johann F. Luy, Daimler-Chrysler<br />
Research & Development<br />
Room: A311<br />
TU3A-01: Design of a Cell-Phone<br />
Sized, Reconfigurable, Fault-Tolerant<br />
Extravehicular Activity (EvA)<br />
Communication System for Lunar Surface<br />
Operations<br />
A. L. Benjamin1 , R. Zenick2 , P. J. Stephanou3 ,<br />
J. P. Black3 1NASA Johnson Space Center, Houston, United<br />
States, 2AeroAstro, Ashburn, United States,<br />
3Harmonic Devices Inc., Berkeley, United<br />
States<br />
TU3A-02: An Ultra-Miniaturized<br />
Transceiver Module for Bluetooth<br />
Applications using 3-D LTCC System-On-<br />
Package Technology<br />
Y. Cho, J. Kim, Y. Park<br />
Samsung Electro-Mechanics, Suwon, Republic<br />
of Korea<br />
TU3A-03: Design of a Simultaneous Multi-<br />
Band RF Sub-Sampling Receiver<br />
N. Behjou 1,2 , M. Høgdal 1 , T. Larsen 2<br />
1 Radiocomp Aps, Hillerød, Denmark, 2 Aalborg<br />
University, Aalborg East, Denmark<br />
TU3A-04: Ultra-Low Power High<br />
Bandwidth qPSK Modulator<br />
T. S. Pochiraju, V. F. Fusco<br />
Queen’s University of Belfast, Belfast, United<br />
Kingdom<br />
TU3A-05: Highly-Integrated Dual-Band<br />
Front-End Module for WLAN and WiMAx<br />
Applications based on LTCC Technology<br />
A. Yatsenko, J. Heyen, S. Sakhnenko, B.<br />
Vorotnikov, P. Heide<br />
EPCOS AG, Munich, Germany<br />
TU3A-06: Multiband Wireless Transmitter<br />
using Nonlinear Characteristics of<br />
Power Amplifier and Harmonic-Tuning<br />
Predistorter<br />
K. Oh, Y. Lee, H. Ku<br />
Konkuk University, Seoul, Republic of Korea<br />
TU3B: RF MEMS Device Technologies<br />
Chair: Dan Hyman, XCom Wireless<br />
Co-chair: J. Robert Reid, Air Force Research<br />
Lab<br />
Room: A312<br />
TU3B-01: A SP2T and a SP4T Switch using<br />
Low Loss Piezoelectric MEMS<br />
D. J. Chung 1 , R. G. Polcawich 2 , D. Judy 2 , J.<br />
Pulskamp 2 , J. Papapolymerou 1<br />
1 Georgia Institute of Technology, 2 US Army<br />
Research Laboratory<br />
TU3B-02: Stable Multi-Step Capacitance<br />
Control with Binary voltage Operation<br />
at +/-3v in Integrated Piezoelectric RF<br />
MEMS Tunable Capacitors<br />
T. Nagano 1 , M. Nishigaki 1 , T. Kawakubo 2 ,<br />
K. Itaya 1<br />
1 Toshiba Corporation, 2 Toshiba Research<br />
Consulting Corporation<br />
TU3B-03: Microwave Intermodulation<br />
Technique for Monitoring the Mechanical<br />
Stress in RF MEMS Capacitive Switches<br />
C. Palego1 , S. Hadler1 , B. Baloglu1 , Z. Peng1 , J.<br />
C. Hwang1 , H. F. Nied1 , D. I. Forehand2 ,<br />
C. L. Goldsmith2 1 2 Lehigh University, MEMtronics Corporation<br />
TU3B-04: Study of Residual Charging in<br />
Dielectric Less Capacitive MEMS Switches<br />
D. Mardivirin, D. Bouyge, A. Crunteanu, A.<br />
Pothier, P. Blondy<br />
Université de Limoges, Limoges, France<br />
TU3B-05: A 2-Pole Digitally Tunable Filter<br />
Using Local One Bit varactors<br />
M. Houssini, A. Pothier, A. Crunteanu, P.<br />
Blondy<br />
Université de Limoges, Limoges, France<br />
TU3B-06: MEMS Liquid Metal Throughwafer<br />
Microstrip to Microstrip Transition<br />
X. Liu 1 , L. P. B.Katehi 2 , D. Peroulis 1<br />
1 Purdue University, 2 University of Illinois at<br />
Urbana-Champaign<br />
TU3C: Hybrid and Optimized Time-<br />
Domain Methods<br />
Chair: Nathan Bushyager, Northrop Grumman<br />
Co-chair: Samir El-Ghazaly, University of<br />
Arkansas, Dept of Electrical Engineering<br />
Room: A313<br />
TU3C-01: An Efficient Unconditionally<br />
Stable Three-Dimensional LOD-FDTD<br />
Method<br />
Q. Liu1 , Z. D. Chen2 , W. Yin1 1Shanghai Jiao Tong University, Shanghai,<br />
China, 2Dalhousie University, Halifax, Canada<br />
TU3C-02: An Efficient Method for the<br />
Coupling of a Fully-Explicit Time-Domain<br />
Solid-State Hydrodynamic Simulator with<br />
FDTD EM Solvers<br />
B. S. McGarvey, M. M. Tentzeris<br />
Georgia Institute of Technology<br />
TU3C-03: Efficient TLM Sensitivity<br />
Analysis Exploiting Rubber Cells<br />
P. A. Basl, M. H. Bakr, N. K. Nikolova<br />
McMaster University, Hamilton, Canada<br />
TU3C-04: Interfacing the TLM and the<br />
TWF Method using a Diakoptics Approach<br />
N. Fichtner 1 , S. Wane 2 , D. Bajon 3 , P. Russer 1<br />
1 Technische Universität München, München,<br />
Germany, 2 Philips Semiconductors, Caen,<br />
France, 3 École nationale supérieure de<br />
l’aéronautique et de l’espace, Toulouse<br />
TU3C-05: The Meshless Radial Point<br />
Interpolation Method for Time-Domain<br />
Electromagnetics<br />
T. Kaufmann, C. Fumeaux, R. Vahldieck<br />
ETH Zurich, Zurich, Switzerland
TUESDAY TECHnICAl SESSIonS 13:20-15:00<br />
TU3D: Advances in HF, vHF and UHF<br />
Power Amplifiers<br />
Chair: Alina Moussessian , Jet Propulsion<br />
Laboratory<br />
Co-chair: Rick Campbell, Portland State<br />
University<br />
Room: A314<br />
TU3D-01: A 65-W High-Efficiency UHF GaN<br />
Power Amplifier<br />
N. D. López1 , J. Hoversten1 , M. Poulton2 , Z.<br />
Popovic1 1 2 University of Colorado, RF Micro Devices<br />
TU3D-02: 800W UHF SiC SIT Transistor for<br />
Radar Applications<br />
T. Shi, M. Mallinger, L. Leverich, J. Chang, C.<br />
Leader, M. Caballero<br />
Microsemi Corp.<br />
TU3D-03: Series-Tuned High Efficiency<br />
RF-Power Amplifiers<br />
J. Vidkjaer<br />
Technical University of Denmark<br />
TU3D-04: Design and Computer<br />
Simulation of High Efficiency Broadband<br />
Parallel-Circuit Class-E RF Power Amplifier<br />
with Reactance Compensation Technique<br />
K. Narendra1 , C. Prakash1 , A. Grebennikov2 ,<br />
A. Mediano3 , C. Paoloni4 1Motorola Technology, Penang, Malaysia,<br />
2 3 DICE GmbH & Co KG, Linz, Austria, University<br />
of Zaragoza, Zaragoza, Spain, 4Università degli Studi di Roma - Tor Vergata, Roma, Italy<br />
TU3D-05: Switching-Mode Linear RF<br />
Power Amplifier System<br />
B. Shi, M. Chia<br />
A*STAR, Singapore, Singapore<br />
TU3D-06: An AlGaN/GaN Class-S Amplifier<br />
for RF-Communication Signals<br />
R. Leberer, M. Oppermann, R. Reber<br />
EADS Deutschland GmbH, Ulm, Germany<br />
TU3E: Microwave Packaging and<br />
Materials<br />
Chair: Wolfgang Heinrich, Ferdinand-Braun-<br />
Institut (FBH)<br />
Co-chair: Kenichi Maruhashi, NEC<br />
Room: A402/403<br />
TU3E-01: A Compact Dual Band 802.11n<br />
Front-end Module for MIMO Applications<br />
Using Multi-layer Organic Technology<br />
S. Dalmia, L. Carastro, R. Fathima, V. Govind,<br />
J. Dekosky, S. Lapushin, R. Wu, B. Bayruns,<br />
G. White<br />
Jacket Micro Devices, Atlanta, United States<br />
TU3E-02: Development of LCP Surface<br />
Mount Package with a Bandpass<br />
Feedthrough at K-band<br />
M. P. McGrath1 , K. Aihara1 , A. Pham1 , S. R.<br />
Nelson2 1 2 University of California at Davis, REMEC<br />
Defense and Space<br />
TU3E-03: Novel Enhanced-Thickness<br />
Magnetic Nanoparticle Thin-Films<br />
for System-On-Chip (SOC) Wireless<br />
Applications<br />
Y. Li, H. Doo, B. Pan, M. M. Tentzeris, Z. J.<br />
Zhang, J. Papapolymerou<br />
Georgia Institute of Technology<br />
TU3E-04: Carbon Nanotube-Based<br />
Polymer Composites for Microwave<br />
Applications<br />
S. Pacchini1 , T. Idda1 , D. Dubuc1 , E. Flahaut2 ,<br />
K. Grenier1 1 2 LAAS-CNRS/UPS, Toulouse, France, LAAS-<br />
CNRS/UPS/INPT, Toulouse, France<br />
TU3E-05: Filtering Land Pattern for<br />
Miniature Mechanical Switch Connector<br />
D. Lo Hine Tong, P. Minard, J. Le Bras<br />
Thomson R&D France, Cesson Sévigné, France<br />
13:20 13:30<br />
13:40 13:50<br />
14:00 14:10<br />
14:20 14:30<br />
14:40<br />
14:50<br />
TUESDAY<br />
9
0<br />
TUESDAY 12:00-13:15 A305<br />
COGNITIvE RADIO FOR OPEN ACCESS AND WHITE SPACE<br />
Chair/Moderator: Kyutae Lim, Georgia Institute of Technology<br />
Panelists:<br />
• Dr. Fred Martin, Motorola Inc.<br />
• Dr. Kursat Kimyacioglu, Philips USA<br />
• Dr. Stewart S. Taylor, Intel<br />
• Dr. Kihong Kim, Samsung Electro-Mechanics<br />
• Dr. Mathew Sherman, General Vice Chair of IEEE Standard<br />
Association, BAE Systems<br />
Sponsors: IMS and RFIC<br />
TUESDAY PAnEl AnD RUMP SESSIonS<br />
Abstract: The UHF band, which is recognized as the best spectrum for<br />
mobile communication, has been used for broadcasting service for<br />
over 50 years. From early 2009, Analog TV services will be completely<br />
replaced by Digital TV service in many countries including North<br />
America, Europe, Asia and Australia. In the USA, the FCC is aggressively<br />
moving forward to maximize the usage of the last greatest spectrum<br />
for wireless communication.<br />
As a first step, the FCC is auctioning 100 MHz band in 700MHz, which will<br />
become available after the transition to DTV spectrum. Especially, one<br />
chunk of spectrum is designated as “Open Access,” which means that<br />
the user can access this frequency by any device and software, which<br />
has not been allowed since most of the carriers controlled the device<br />
and accessibility of the frequency band. After the spectrum auction,<br />
FCC is making another important decision of granting for a secondary<br />
user to access locally unused DTV spectrum, the so called “White<br />
Space.” Together with “Open Access” and “White Space,” consumers<br />
will enjoy uncharted wireless communication services, which has<br />
improved connectivity and data throughput at a fraction of cost. This<br />
panel session will explore the scenario of new wireless communication<br />
services in the future and discuss the technical challenges to enable<br />
such communication services. Panelists includes experts in network<br />
architecture, MAC, PHY layer, Policy and RF/Analog.<br />
TUESDAY 18:30-20:00 A412ab<br />
THE DISCOvERY OF GRAvITY WAvES AMIDST THE NOISE<br />
Our symposium this year will include an evening Rump Session<br />
featuring a talk by Nobel Laureate and Princeton professor, Dr. Joe<br />
Taylor, entitled “The Discovery of Gravity Waves Amidst the Noise”. This<br />
event will be hosted by Sonnet Software.<br />
Nobel Laureate and Princeton professor, Dr. Joe Taylor, K1JT, will<br />
describe his work as a radio astronomer culminating in his discovery<br />
of gravity waves. Long predicted by the General Theory of Relativity,<br />
gravity waves have not yet been directly detected. Dr. Taylor provided<br />
the first experimental evidence that gravity waves do actually exist<br />
by measuring the energy lost in binary pulsar systems. The measured<br />
rate of energy lost in these truly bizarre astrophysical systems can be<br />
explained only by gravity wave radiation. There is no Nobel Prize for<br />
microwave engineering, but Dr. Taylor’s skill as a microwave engineer,<br />
and as an experienced amateur radio operator were essential in<br />
achieving his Nobel success. In this presentation, Dr. Taylor describes<br />
his astronomical discoveries and how his work critically depends on<br />
receiving weak signals. These same skills are directly applicable to<br />
weak signal communications work. In fact, the algorithms developed<br />
by Dr. Taylor are now in wide use by radio amateurs world wide for<br />
weak signal VHF and UHF communications. Dr. Taylor will detail this<br />
fascinating synergism between his Nobel Prize winning work in radio<br />
astronomy and the everyday life of the typical VHF/UHF ham radio<br />
operator. The amateur radio social immediately follows, to which all<br />
are invited.<br />
Complimentary food and beverage will be served from 18:30-19:10<br />
with the presentation beginning promptly at 19:10. Everyone is<br />
welcome to attend.
STUDEnT PAPER CoMPETITIon<br />
TUESDAY 14:00-16:00 HALL A3<br />
The student paper competition had become one of the largest technical events<br />
at IMS. The purpose of the competition is to determine and acknowledge the<br />
best student work of the year in the MTT-S. This year we received 225 student<br />
papers approximately 29% of all submitted papers. Each student paper went<br />
through the regular review process by the Technical <strong>Program</strong> Committee.<br />
Approximately 49% of the submitted papers were accepted for presentations.<br />
Based on the review scores, only 31 of the accepted student papers were<br />
selected as finalists. The finalists are given complimentary registration for IMS<br />
Dispersion Engineered Metamaterial-Based Transmission Line for Conformal Surface<br />
Application<br />
M. R. Hashemi, T. Itoh<br />
University of California at Los Angeles, Los Angeles, United States<br />
A Derived Circuit Model for Spiral Inductors on Lossy Silicon Substrate<br />
K. Yang 1 , H. Hu 2 , K. L. Wu 1 , W. Y. Yin 2 , J. F. Mao 2<br />
1 The Chinese University of Hong Kong, Hong Kong, Hong Kong, 2 Shanghai Jiao Tong University, Shanghai,<br />
China<br />
An Efficient Methodology for the Modeling of Electromagnetic Wave Phenomena in Domains<br />
with Moving Boundaries<br />
J. A. Russer, A. C. Cangellaris<br />
University of Illinois at Urbana-Champaign, Urbana, United States<br />
RF Large-Signal Model for SiO2/AlGaN/GaN MOSHFETs<br />
J. Deng 1 , W. Wang 1 , S. Halder 1 , W. R. Curtice 1 , J. C. Hwang 1 , V. Adivarahan 2 , A. Khan 2<br />
1 Lehigh University, Bethlehem, United States, 2 University of South Carolina, Columbia, United States<br />
Harmonic Balance Simulation of a New Physics Based Model of the AlGaN/GaN HFET<br />
H. Yin, D. Hou, G. L. Bilbro, R. J. Trew<br />
North Carolina State University, Raleigh, United States<br />
Mismatch Detection and Compensation Algorithm with the Closed Form Solution for the LINC<br />
System Implementation<br />
S. Myoung 1,3 , I. Lee 2 , K. Lim 3 , J. Yook 1 , J. Laskar 3<br />
1 Yonsei University, Seoul, Republic of Korea, 2 Kongju National University, Kongju, Republic of Korea,<br />
3 Georgia Institude of Technology, Atlanta, United States<br />
A Ka-band Waveguide Water-Based Absorptive Switch with an Integrated Micropump<br />
C. Chen, D. Peroulis<br />
Purdue University, West Lafayette, United States<br />
Ultra Slow-Wave Periodic Transmission Line Using 3D Substrate Metallization<br />
Y. Zhang, H. Yang<br />
University of Illinois at Chicago, Chicago, United States<br />
A Multi-Resolution Channel-Select Filter with Ultra-Wide Frequency Coverage<br />
M. Koochakzadeh, A. Abbaspour-Tamijani<br />
Arizona State University, Tempe, United States<br />
Novel Waveguide Pseudo-Elliptic Filters using Slant Ridge Resonators<br />
S. Bastioli 1 , L. Marcaccioli 2 , R. Sorrentino 1<br />
1 University of Perugia, Perugia, Italy, 2 RF Microtech s.r.l., Perugia, Italy<br />
Multilayer Folded-Waveguide Dual-Band Filter<br />
S. K. Alotaibi, J. Hong, Z. Hao<br />
Heriot-Watt University , Edinburgh, United Kingdom<br />
A 3.7-mW Zero-dB Fully Integrated Active Bandpass Filter at Ka-band in 0.18-μm CMOS<br />
M. Chiang, H. Wu, C. C. Tzuang<br />
National Taiwan University, Taipei, Taiwan<br />
A Novel Flexible Magnetic Composite Material for RFID, Wearable RF and Bio-monitoring<br />
Applications<br />
L. Yang 1 , L. Martin 2 , D. Staiculescu 1 , C.P. Wong 1 , M. M. Tentzeris 1<br />
1 Georgia Institute of Technology, Atlanta, United States, 2 Motorola, Plantation, United States<br />
A 2 GHz Oscillator using a Monolithically Integrated AlN TFBAR<br />
M. Norling1 , J. Enlund2 , I. Katardjiev2 , S. Gevorgian1 , 3<br />
1 2 3 Chalmers University of Technology, Göteborg, Sweden, Uppsala University, Uppsala, Sweden, Ericsson<br />
AB, Mölndal, Sweden<br />
Monolithic Crossbar MEMS Switch Matrix<br />
K. Chan1 , 2 , M. Daneshmand2 , R. R. Mansour2 , R. Ramer1 1 2 University of New South Wales, Sydney, Australia, University of Waterloo, Waterloo, Canada<br />
Low Loss Switchable Coupled Resonator Bandpass Filter<br />
C. Y. Ong, M. Okoniewski<br />
University of Calgary, Calgary, Canada<br />
2008, complimentary tickets to the MTT-S awards banquet and travel subsidies.<br />
The student finalists will present their papers at their appropriate regular sessions<br />
and make special presentations at the Interactive Forum on Tuesday from 14:00-<br />
16:00. All symposium participants are welcome and encouraged to visit the student<br />
papers during the Interactive Forum, at which time they will also be evaluated by<br />
a group of judges. Six top papers and four honorable mentions will be selected to<br />
receive cash awards, certificates, and gifts. These will be announced and presented<br />
during the Students Awards Luncheon on Thursday. We are very pleased to announce<br />
the finalists for the IMS 2008 Student Paper Competition:<br />
High quality-Factor and Inductance of Symmetric Differential-Pair Structure Active Inductor<br />
using a Feedback Resistance Design<br />
K. Hwang 1 , C. Cho 1 , J. Lee 1 , J. Kim 2<br />
1 Korea Aerospace University, Goyang, Republic of Korea, 2 Information and Communications University,<br />
Yusong, Republic of Korea<br />
Dual-Band vCO using Composite Right/Left-Handed Transmission Line and Tunable Negative<br />
Resistance Based on Pin Diode<br />
J. Choi, C. Seo<br />
Soongsil University, Seoul, Republic of Korea<br />
A 60dB Harmonic Mixing Reduction Mixer for Wideband Applications<br />
C. Li, P. Huang<br />
National Tsing Hua University, Hsinchu, Taiwan<br />
A q-band Low Loss Reduced-Size Filter-Integrated SPDT Switch using<br />
0.15-um MHEMT Technology<br />
J. Lee 1 , R. Lai 1 , K. Lin 1 , C. Chiong 1 , H. Wang 1<br />
1 National Taiwan University, Taipei, Taiwan, 2 Academia Sinica, Taipei, Taiwan<br />
q-, v-, and W-Band Power Amplifiers Utilizing Coupled Lines for Impedance Matching<br />
M. Abbasi, H. Zirath, I. Angelov<br />
Chalmers University of Technology, Göteborg, Sweden<br />
A Doherty Power Amplifier with Extended Resonance Power Divider for Linearity Improvement<br />
M. Nick, A. Mortazawi<br />
University of Michigan, Ann Arbor, United States<br />
Experimental Cryogenic Modeling and Noise of SiGe HBTs<br />
J. C. Bardin, S. Weinreb<br />
California Institute of Technology, Pasadena, United States<br />
High-Power Tunable THz Generation Based on Photoconductive Antenna Arrays<br />
M. Jarrahi, T. H. Lee<br />
Stanford University, Stanford, United States<br />
A 4.5 GHz to 5.8 GHz Tunable ΔΣ Digital Receiver with q Enhancement<br />
T. Chalvatzis 1,2 , S. P. Voinigescu 1<br />
1 University of Toronto, Toronto, Canada, 2 Broadcom Corporation, Athens, Greece<br />
Design, Integration and Characterization of a Novel Paper-based Wireless Sensor Module<br />
R. Vyas, A. Rida, L. Yang, M.M. Tentzeris<br />
Georgia Institute of Technology, Atlanta, United States<br />
Mixed Analog-Digital Instrumentation for Software Defined Radio Characterization<br />
P. M. Cruz 1 , N. B. Carvalho 1 , K. A. Remley 2 , K. G. Gard 3<br />
1 IT-Universidade de Aveiro, Aveiro, Portugal, 2 NIST, Boulder, United States, 3 North Carolina State<br />
University, Raleigh, United States<br />
Electrical Properties of Nude Rat Skin and Design of Implantable Antennas for Wireless Data<br />
Telemetry<br />
T. Karacolak, E. Topsakal<br />
Mississippi State University, Mississippi State, United States<br />
A Feedback-Based Distributed Phased Array Technique and its Application to 60-GHz Wireless<br />
Sensor Network<br />
M. Seo, M. Rodwell, U. Madhow<br />
University of California-Santa Barbara, Santa Barbara, United States<br />
Method for High Precision Local Positioning Radar using an Ultra Wideband Technique<br />
B. Waldmann 1 , R. Weigel 1 , P. Gulden 2<br />
1 University of Erlangen-Nuremberg, Erlangen, Germany, 2 Symeo GmbH, Neubiberg/Munich, Germany<br />
Complex Signal Demodulation and Random Body Movement Cancellation Techniques for Noncontact<br />
vital Sign Detection<br />
C. Li, J. Lin<br />
University of Florida, Gainesville, United States<br />
TUESDAY
15:30<br />
15:40 15:50<br />
16:00 16:10<br />
16:20 16:30<br />
16:40 16:50<br />
17:00 17:10<br />
TUESDAY TECHnICAl SESSIonS 15:30-17:10<br />
TU4A: UWB Techniques and Radar<br />
Systems<br />
Chair: Ramesh K. Gupta, Mobile Satellite<br />
Ventures<br />
Co-chair: Hiroshi Okazaki, NTT DoCoMo, Inc.<br />
Room: A311<br />
TU4A-01: A W-band Wavelet Generator<br />
using 0.13-um InP HEMTs for Multigigabit<br />
Communications Based on Ultra-<br />
Wideband Impulse Radio<br />
Y. Nakasha1 , Y. Kawano1 , T. Suzuki1 , T. Ohki2 ,<br />
T. Takahashi1 , K. Makiyama1 , T. Hirose2 , N.<br />
Hara1 1 2 Fujitsu Limited, Atsugi, Japan, Fujitsu<br />
Laboratories Ltd., Atsugi, Japan<br />
TU4A-02: Dielectric Waveguide Slot<br />
Antenna with Integrated Filter for<br />
Automotive UWB Radar Applications<br />
K. Sano, K. Ito<br />
TOKO, Inc., Tsurugashima, Japan<br />
TU4A-03: Method for High Precision<br />
Local Positioning Radar using an Ultra<br />
Wideband Technique<br />
B. Waldmann1 , R. Weigel1 , P. Gulden2 1University of Erlangen-Nuremberg, Erlangen,<br />
Germany, 2Symeo GmbH, Neubiberg/Munich,<br />
Germany<br />
TU4A-04: Performance Analysis of<br />
Cooperative FMCW Radar Distance<br />
Measurement Systems<br />
S. Scheiblhofer, S. Schuster, M. Jahn, R.<br />
Feger, A. Stelzer<br />
Johannes Kepler University, Linz, Austria<br />
TU4A-05: A Four Channel 24-GHz FMCW<br />
Radar Sensor with Two-Dimensional<br />
Target Localization Capabilities<br />
R. Feger, A. Haderer, S. Schuster, S.<br />
Scheiblhofer, A. Stelzer,<br />
Johannes Kepler University, Linz, Austria<br />
TU4B: RF MEMS Tunable and<br />
Reconfigurable MEMS Circuits<br />
Chair: Dimitrios Peroulis, Purdue University<br />
Co-chair: Harvey Newman, Naval Research<br />
Laboratory<br />
Room: A312<br />
TU4B-01: Monolithic Crossbar MEMS<br />
Switch Matrix<br />
K. Chan1 , 2 , M. Daneshmand2 , R. R. Mansour2 ,<br />
R. Ramer1 1University of New South Wales, Sydney,<br />
Australia, 2University of Waterloo, Waterloo,<br />
Canada<br />
TU4B-02: 1.6-2.4 GHz RF MEMS Tunable<br />
3-Pole Suspended Combline Filter<br />
I. C. Reines 1 , A. Brown 2 , G. Rebeiz 1<br />
1 University of California-San Diego, 2 A. Brown<br />
Design, Northville, United States<br />
TU4B-03: Low Loss Switchable Coupled<br />
Resonator Bandpass Filter<br />
C. Y. Ong, M. Okoniewski<br />
University of Calgary, Calgary, Canada<br />
TU4B-04: Thin-Film LCP Amplitude<br />
Compensated Long Time Delay Circuit<br />
M. J. Chen 1 , E. Zhang 1 , A. V. Pham 1 , D.<br />
Hyman 2<br />
1 Microwave Microsystems Laboratory,<br />
University of California at Davis, 2 XCOM<br />
Wireless, Inc.<br />
TU4B-05: A Novel Reconfigurable<br />
Impedance Matching Network Using DGS<br />
and MEMS Switches for Millimeter-Wave<br />
Applications<br />
S. Fouladi, A. Akhavan Fomani, R.R. Mansour<br />
University of Waterloo, Waterloo, Canada<br />
TU4C: Grand Challenges in Time-<br />
Domain Modeling<br />
Chair: Zhizhang (David) Chen, Dalhousie<br />
University<br />
Co-chair: Atef Elsherbeni, The University of<br />
Mississippi<br />
Room: A313<br />
TU4C-01: Optimization and Parameter<br />
Exploration Using GPU Based FDTD<br />
Solvers<br />
M. J. Inman, A. Z. Elsherbeni<br />
The University of Mississippi, University,<br />
United States<br />
TU4C-02: Massively Parallel Two-<br />
Dimensional TLM Algorithm on Graphics<br />
Processing Units<br />
F. V. Rossi1 , P. So1 , N. Fichtner2 , P. Russer2 1University of Victoria, Victoria, Canada,<br />
2Technische Universität München, München,<br />
Germany<br />
TU4C-03: An Efficient Methodology for<br />
the Modeling of Electromagnetic Wave<br />
Phenomena in Domains with Moving<br />
Boundaries<br />
J. A. Russer, A. C. Cangellaris<br />
University of Illinois at Urbana-Champaign<br />
TU4C-04: The Optimized Weakly<br />
Conditionally Stable (WCS) FDTD Method<br />
I. Ahmed 1 , E. Li 1 , Z. D. Chen 2<br />
1 A*STAR, Singapore, Singapore, 2 Dalhousie<br />
University, Halifax, Canada<br />
TU4C-05: Accelerated Time-Domain<br />
Modeling of Microstrip Based Microwave<br />
Circuit Geometries on Periodic Substrates<br />
D. Li, C. D. Sarris<br />
University of Toronto, Toronto, Canada<br />
TU4C-06: A Fast-Marching Time-Domain<br />
Layered Finite-Element Reduction-<br />
Recovery Method for High-Frequency<br />
vLSI Design<br />
H. Gan, D. Jiao<br />
Purdue University, West Lafayette, United<br />
States
TUESDAY TECHnICAl SESSIonS 15:30-17:10<br />
TU4D: Advanced Applications of<br />
Transmission Line Elements<br />
Chair: George E. Ponchak, NASA Glenn<br />
Research Center<br />
Co-chair: Barry E. Spielman, Washington<br />
University<br />
Room: A314<br />
TU4D-01: Fully Printed volumetric<br />
Negative-Refractive-Index Transmission-<br />
Line Slabs Using A Stacked Shunt-Node<br />
Topology<br />
J. Zhu, G. V. Eleftheriades<br />
University of Toronto, Toronto, Canada<br />
TU4D-02: Performance Evaluation of Left-<br />
Handed Delay Lines for RFID Backscatter<br />
Applications<br />
M. Schüßler, C. Damm, M. Maasch, R. Jakoby<br />
TU Darmstadt, Darmstadt, Germany<br />
TU4D-03: Millimeter-Wave CMOS<br />
Digital Controlled Artificial Dielectric<br />
Differential Mode Transmission Lines for<br />
Reconfigurable ICs<br />
T. R. LaRocca, S. Tam, D. Huang, Q. Gu, E.<br />
Socher, W. Hant, F. Chang<br />
University of California-Los Angeles<br />
TU4D-04: A Ka-band Waveguide<br />
Water-Based Absorptive Switch with an<br />
Integrated Micropump<br />
C. Chen, D. Peroulis<br />
Purdue University, West Lafayette, United<br />
States<br />
TU4D-05: Harmonics Suppression of a<br />
Wilkinson Power Divider Using Spurlines<br />
with Adjustable Rejection Bands<br />
H. Liu1 , R. Cao2 , W. Hu2 , M. Wu2 ,<br />
1Chinese Academy of Sciences, Chengdu,<br />
China, 2Institute of Electronic Engineering in<br />
Eastern China<br />
TU4E: Circuits and Techniques for GHz<br />
Transmission<br />
Chair: Edward Gebara, Quellan Inc.<br />
Co-chair: Hermann Boss, Rohde & Schwarz<br />
Room: A402/403<br />
TU4E-01: A 4.5 GHz to 5.8 GHz Tunable<br />
Digital Receiver with q Enhancement<br />
T. Chalvatzis 1 , 2 , S. P. Voinigescu 1 , 1 University<br />
of Toronto, Toronto, Canada, 2 Broadcom<br />
Corporation, Athens, Greece<br />
TU4E-02: 39.4 Gb/s Data Transmission<br />
over 24.4 Meters of Coaxial Cable using<br />
Duobinary Signaling<br />
J. H. Sinsky 1 , A. Konczykowska 2 , A.<br />
Adamiecki 1 , F. Jorge 2 , M. Duelk 1<br />
1 Bell Laboratories, 2 Alcatel-Thales III-V Lab,<br />
Marcoussis, France<br />
TU4E-03: Active Silicon-Based Shockwave<br />
Formation<br />
J. F. Buckwalter<br />
University of California - San Diego<br />
15:30 15:40<br />
15:50 16:00<br />
16:10 16:20<br />
16:30 16:40<br />
16:50 17:00<br />
TUESDAY<br />
3
4<br />
08:00<br />
08:10 08:20<br />
08:30 08:40<br />
08:50 09:00<br />
09:10 09:20<br />
09:30<br />
WEDnESDAY TECHnICAl SESSIonS 08:00-09:40<br />
WE1A: Electromagnetic Analysis of<br />
Complex Structures<br />
Chair: Natalia K. Nikolova, McMaster<br />
University<br />
Co-chair: Ingo Wolff, IMST GmbH<br />
Room: A311<br />
WE1A-01: Electromagnetic Wave<br />
Propagation in Dispersive Negative Group<br />
S. M. Mikki, A. A. Kishk<br />
University of Mississippi, University, United<br />
States, Velocity Media<br />
WE1A-02: Near-Field Focusing Plates<br />
A. Grbic, L. Jiang, R. Merlin<br />
University of Michigan, Ann Arbor, United<br />
States<br />
WE1A-03: Equivalent Circuit Model to<br />
Explain Extraordinary Transmission<br />
F. Medina, F. Mesa, R. Marqués<br />
University of Seville, Seville, Spain<br />
WE1A-04: Propagation and Band<br />
Broadening Effect of Planar Integrated<br />
Ridged Waveguide in Multilayer Dielectric<br />
Substrates<br />
W. Che 1 , 2 , C. Li 1 , P. Russer 2 , Y. L. Chow 3<br />
1 Nanjing University of Science & Technology,<br />
Nanjing, China, 2 Technische Universität<br />
München, München, Germany, 3 University of<br />
Waterloo, Waterloo, Canada<br />
WE1A-05: Modeling of an Industrial<br />
Microwave Furnace for Metal Casting<br />
Applications<br />
M. H. Awida1 , N. Shah1 , B. Warren2 , A. E.<br />
Fathy1 1University of Tennessee at Knoxville,<br />
Knoxville, United States, 2BWXT-Y12 National<br />
Security Complex, Oak Ridge, United States<br />
WE1A-06: Investigation of Fields and<br />
Currents for Broadband over Power Line<br />
(BPL) Communications<br />
A. Lau1 , D. R. Jackson1 , J. T. Williams1 , F.<br />
Mesa2 , J. Bernal2 1University of Houston, Houston, United<br />
States, 2University of Seville, Seville, Spain<br />
WE1B: Novel Low Phase-Noise<br />
Techniques for vCO’s and<br />
Synthesizers.<br />
Chair: Danny Elad, IBM<br />
Co-chair: Yi-Jan Emery Chen, National<br />
Taiwan University<br />
Room: A312<br />
WE1B-01: A 1.5-v 3-10 GHz 0.18-um<br />
CMOS Frequency Synthesizer for MB-<br />
OFDM UWB Applications<br />
Z. Huang, F. Kuo, W. Wang, M. Chen, C. Wu,<br />
National Chiao Tung University, Hsinchu,<br />
Taiwan<br />
WE1B-02: STPCR Offers Integrable<br />
Alternatives of DRO<br />
U. L. Rohde, A. K. Poddar<br />
Synergy Microwave Corp., Paterson, United<br />
States<br />
WE1B-03: A Low-voltage Low-Phase-<br />
Noise Bottom-Series LC qvCO using<br />
Capacitor Tapping Technique<br />
Y. Zhang1 , P. Liu1 , T. Luo2 , Y. E. Chen2 , D. Heo1 1Washington State University, Pullman,<br />
United States, 1National Taiwan University,<br />
Taipei, Taiwan<br />
WE1B-04: Dual-Band vCO using<br />
Composite Right/Left-Handed<br />
Transmission Line and Tunable Negative<br />
Resistance based on Pin Diode<br />
J. Choi, C. Seo<br />
Soongsil University, Seoul, Republic of Korea<br />
WE1B-05: A High Sensitivity, Low Power<br />
Phase Controlled Current Source for<br />
GSamples/s Phase-Locked Loops<br />
T. Chien, C. Lin, D. Chang, Y. Juang, C. Huang,<br />
National Applied Research Laboratories,<br />
Hsinchu, Taiwan<br />
WE1B-06: Low-Phase-Noise SiGe HBT<br />
vCOs using Trifilar-Transformer Feedback<br />
C. Meng 1 , J. Syu 1 , S. Tseng 1 , Y. Chang 1 , G.<br />
Huang 2<br />
1 National Chiao Tung University , Hsinchu,<br />
Taiwan, 2 National Nano Device Laboratories,<br />
Hsinchu, Taiwan<br />
WE1C: Nonlinear Measurement<br />
Techniques Using CW, Pulsed and<br />
Modulated Excitations<br />
Chair: Dominique Schreurs, Catholic<br />
University of Leuven<br />
Co-chair: Jon Martens, Anritsu Company<br />
Room: A313<br />
WE1C-01: Mixed Analog-Digital<br />
Instrumentation for Software Defined<br />
Radio Characterization<br />
P. M. Cruz1 , N. B. Carvalho1 , K. A. Remley2 ,<br />
K. G. Gard3 ,<br />
1IT-Universidade de Aveiro, Aveiro, Portugal,<br />
2 3 NIST, Boulder, United States, North Carolina<br />
State University, Raleigh, United States<br />
WE1C-02: A Robust Approach for<br />
Comparison and validation of Large<br />
Signal Measurement Systems<br />
T. V. Williams1 , O. Mojón2 , S. Woodington1 , J.<br />
Lees1 , M. Barciela2 , J. Benedikt1 , P. J. Tasker1 1Cardiff University, Cardiff, United Kingdom,<br />
2University of Vigo, Vigo, Spain<br />
WE1C-03: vector and Harmonic<br />
Amplitude/Phase Corrected Multi-<br />
Envelope Stimulus Response<br />
Measurements of Nonlinear Devices<br />
L. C. Betts<br />
Agilent Technologies, Santa Rosa, United<br />
States<br />
WE1C-04: A New Method for the Design of<br />
Multi-Sine Excitations for the Assessment<br />
of Non-linear Devices<br />
J. Su, J. Benedikt, P. Tasker<br />
Cardiff University, Cardiff, United Kingdom<br />
WE1C-05: Time-Frequency<br />
Characterization of Long-Term Memory in<br />
Nonlinear Power Amplifiers<br />
J. Hu1 , K. G. Gard1 , N. B. Carvalho2 , M. B.<br />
Steer1 1North Carolina State University, Raleigh,<br />
United States, 2Instituto de Telecomunicações,<br />
Aveiro, Portugal<br />
WE1C-06: Measurement of ACLR with<br />
High Dynamic Range<br />
O. Andersen1 , D. Wisell2 , N. Keskitalo2 1 2 Ericsson AB, Gävle, Sweden, Ericsson AB,<br />
Stockholm, Sweden
WEDnESDAY TECHnICAl SESSIonS 08:00-09:40<br />
WE1D: Advances in Solid-State<br />
Millimeter-Wave Technology<br />
Robert Weikle, University of Virginia<br />
Edward Niehenke, Niehenke Consulting<br />
Room: A314<br />
WE1D-01: A q-Band MHEMT 100-mW<br />
MMIC Power Amplifier with 46% Power-<br />
Added Efficiency<br />
E. C. Niehenke1 , J. Whelehan1 , D. Xu2 , D.<br />
Meharry2 , K. Duh2 , P. M. Smith2 1JJW Consulting, Inc., Greeley, United States,<br />
2BAE Systems, Nashua, United States<br />
WE1D-02: A Ruggedly Packaged<br />
D-Band GaAs Gunn Diode with Hot<br />
Electron Injection Suitable for volume<br />
Manufacture<br />
N. Farrington1 , P. Norton2 , M. Carr2 , J. Sly1 ,<br />
M. Missous1 1University of Manchester, Manchester, United<br />
Kingdom, 2e2v Technologies (UK) Ltd., Lincoln,<br />
United Kingdom<br />
WE1D-03: A 70-GHz Transformer-Peaking<br />
Broadband Amplifier in 0.13-um CMOS<br />
Technology<br />
J. Jin, S. S. Hsu<br />
National Tsing Hua University, Hsinchu,<br />
Taiwan<br />
WE1D-04: W-Band SiGe LNA using an<br />
Enhanced Unilateral Gain Peaking<br />
J. Alvarado Jr. 1 , 2 , 3 , K. T. Kornegay1 , 3 , B. P.<br />
Welch1 , Y. W. Wang1 1Cornell University, Ithaca, United States,<br />
2Raytheon Company, Tucson, United States,<br />
3Georgia Institute of Technology, Atlanta,<br />
United States<br />
WE1D-06: Low Cost Modular Integrated<br />
Horn Antenna Array Using Heterojunction<br />
Barrier Diode Detectors<br />
H. Kazemi1 , C. N. Nguyen1 , B. Brar1 , G.<br />
Rebeiz2 , G. Nagy1 , L. K. Tran1 , A. C. Young3 1Teledyne Scientific and Imaging LLC,<br />
Thousand Oaks, United States, 2University of California-San Diego (UCSD), San Diego,<br />
United States, 3University WE1E: New Benchmarks in Power<br />
Amplifiers<br />
James Schellenberg, Trex<br />
James Komiak, BAE Systems<br />
Rooms: A315/316<br />
WE1E-01: Wideband 400 W Pulsed Power<br />
GaN HEMT Amplifiers<br />
K. Krishnamurthy, J. Martin, B. Landberg, R.<br />
Vetury, M. J. Poulton<br />
RF Micro Devices, Inc., Charlotte, United States<br />
WE1E-02: A High Efficiency Broadband<br />
Monolithic Gallium Nitride Distributed<br />
Power Amplifier<br />
C. Xie 1 , J. Pavio 1 , D. A. Griffey 2 , A. Hanson 3 ,<br />
S. Singhal 3<br />
1 Rockwell Collins, Inc., Scottsdale, United<br />
States, 2 Rockwell Collins, Inc., Cedar Rapids,<br />
United States, 3 Nitronex Corporation, Durham,<br />
United States<br />
WE1E-03: Over 57% Efficiency C-band GaN<br />
HEMT High Power Amplifier with Internal<br />
Harmonic Manipulation Circuits<br />
H. Otsuka 1 , K. Yamanaka 1 , H. Noto 1 , Y.<br />
Tsuyama 2 , S. Chaki 3 , A. Inoue 1 , M. Miyazaki 1<br />
1 Mitsubishi Electric Corporation, Kamakura,<br />
Japan, 2 Mitsubishi Electric Corporation,<br />
Amagasaki, Japan, 3 Mitsubishi Electric<br />
Corporation, Itami, Japan<br />
WE1E-04: x-Band 14W High Efficiency<br />
Internally-Matched HFET<br />
K. Mori, J. Nishihara, H. Utsumi, H. Takeda, A.<br />
Inoue, M. Miyazaki<br />
Mitsubishi Electric Corporation, Kamakura,<br />
Japan<br />
WE1E-05: High Power and Efficiency<br />
Space Traveling Wave Tube Amplifiers<br />
with Reduced Size and Mass for NASA<br />
Missions<br />
R. N. Simons, J. D. Wilson, D. A. Force<br />
NASA Glenn Research Center, Cleveland,<br />
United States<br />
08:00 08:10<br />
08:20 08:30<br />
08:40 08:50<br />
09:00 09:10<br />
09:20 09:30<br />
WEDnESDAY<br />
5
6<br />
WEDnESDAY InTERACTIVE FoRUM 09:30-11:30<br />
WEP1A<br />
Transmission Line Elements<br />
WEP1A-01: Inkjet Printing of Passive<br />
Microwave Circuitry<br />
O. A. Azucena1 , J. Kubby1 , D. Scarbrough2 , C.<br />
L. Goldsmith2 1University of California-Santa Cruz, Santa<br />
Cruz, United States, 2MEMtronics Corporation,<br />
Plano, United States<br />
WEP1A-02: An Ultra-Wideband Microstrip-to-<br />
CPW Transition<br />
Y. Kim, K. W. Kim, Y. Cho<br />
Kyungpook National University, Daegu, Republic<br />
of Korea<br />
WEP1B<br />
Planar Passive Filters and<br />
Multiplexers<br />
WEP1B-01: A Parameter Extraction<br />
Method for Microwave Direct-Coupled-<br />
Resonator Filters with the Consideration<br />
of Component Losses<br />
H. Lee, C. Tsai<br />
National Cheng Kung University, Tainan,<br />
Taiwan<br />
WEP1C<br />
Non-Planar Passive Filters and<br />
Multiplexers<br />
WEP1C-01: Spurious Suppression of<br />
Dielectric Filters in Practical Wireless<br />
Systems<br />
H. Salehi, R. K. Reddy, T. Lukkarila<br />
S. Amir, Radio Frequency Systems, Meriden,<br />
United States<br />
WEP1C-02: Highly Integrated Triplexers<br />
for WiMAx Applications<br />
D. Kim, D. Kim, J. Ryu, J. Kim<br />
Korea Electronics Technology Institute,<br />
Seongnam-si, Republic of Korea<br />
WEP1C-03: Enhanced Prediction of<br />
Multipaction Breakdown in Passive<br />
Waveguide Components including Space<br />
Charge Effects<br />
S. Anza 1 , C. Vicente 2 , D. Raboso 3 , J. Gil 1 , B.<br />
Gimeno 4 , V. E. Boria 2<br />
1 AURORA Software and Testing S.L., Paterna<br />
(València), Spain, 2 Universidad Politécnica de<br />
Valencia, Valencia, Spain, 3 European Space<br />
Agency, Noordwijk, The Netherlands<br />
WEP1D<br />
Active and Integrated Filters<br />
WEP1D-01: Frequency Agile Bandstop<br />
Filter (FABSF)<br />
A. Roussel 1 , C. W. Nicholls 2 , J. S. Wight 1<br />
1 Carleton University, Ottawa, Canada, 2 Nortel<br />
Networks, Ottawa, Canada<br />
WEP1D-02: Tunable Band Stop Filters<br />
based on Metal-Insulator Transition in<br />
vanadium Dioxide Thin Films<br />
J. Givernaud, C. Champeaux, A. Catherinot,<br />
A. Pothier, P. Blondy<br />
A. Crunteanu, University of Limoges, Limoges,<br />
France<br />
WEP1D-03: Left-Handed Band Pass Filter<br />
Realized by Coupled Negative Order<br />
Resonators<br />
T. Ishizaki1 , M. Tamura1 , C. A. Allen2 , T. Itoh2 1Panasonic Electronic Devices Co., Ltd., Osaka,<br />
Japan, 2University of California at Los Angeles,<br />
Los Angeles, United States<br />
WEP1D-04: Low Profile LTCC Balanced<br />
Filter Based on a Lumped Elements Balun<br />
for WiMAx Applications<br />
S. Sakhnenko, D. Orlenko, K. Markov, A.<br />
Yatsenko, B. Vorotnikov, G. Sevskiy, P. Heide<br />
EPCOS AG, Munich, Germany<br />
WEP1D-05: BST varactor Tuned Bandstop<br />
Filter with Slotted Ground Structure<br />
Y. Chun1 , J. Hong1 , P. Bao2 , T. J. Jackson2 , M.<br />
J. Lancaster2 1Heriot-Watt University, Edinburgh, United<br />
Kingdom, 2University of Birmingham,<br />
Birmingham, United Kingdom<br />
WEP1D-06: Ultra Compact Band<br />
Pass Filters Implemented Through<br />
Complementary Spiral Resonators (CSRs)<br />
M. Gil, J. Bonache, F.Martín<br />
Universitat Autònoma de Barcelona,<br />
Bellaterra (Barcelona), Spain
WEDnESDAY WEP1 — HAll A3 09:30-11:30<br />
WEP1E<br />
PA Devices and ICs<br />
WEP1E-01: A Novel 2–12GHz 14 dBm High<br />
Efficiency Power Distributed Amplifier<br />
for Ultra-Wideband-Applications Using a<br />
Low-Cost SiGe BiCMOS Technology<br />
B. Sewiolo, R. Weigel<br />
University of Erlangen-Nuremberg, Erlangen,<br />
Germany<br />
WEP1E-02: A High Power and High<br />
Efficiency 20 GHz InP HBT Monolithic<br />
Power Amplifier for Phased Array<br />
Applications<br />
M. V. Aust, A. K. Sharma, A. L. Gutierrez-<br />
Aitken<br />
Northrop Grumman, Redondo Beach, United<br />
States<br />
WEP1E-03: Broadband Hybrid Flip-Chip<br />
6-18 GHz AlGaN/GaN HEMT Amplifiers<br />
S. Piotrowicz1 , R. Aubry1 , E. Chartier1 ,<br />
O. Jardel1 , J. C. Jacquet1 , E. Morvan1 , B.<br />
Grimbert2 , G. Lecoustre1 , S.L. Delage1 , J.<br />
Obregon3 , D. Floriot4 1Alcatel-Thales, Marcoussis, France,<br />
2Université de Lille, Villeneuve d’Ascq, F<br />
WEP1E-04: Directional Dual Band<br />
Distributed Power Amplifier with<br />
Composite Left/Right-handed<br />
Transmission Lines<br />
C. Xie<br />
Rockwell Collins, Inc., Scottsdale, United<br />
States<br />
WEP1E-05: A Low-Loss, Wideband<br />
Combiner for Power Amplification at<br />
Ka-Band Frequencies<br />
H. Grubinger, H. Barth, R. Vahldieck<br />
ETH Zurich, Zurich, Switzerland<br />
WEP1E-06: Systematic Waveform<br />
Engineering Enabling High Efficiency<br />
Modes of Operation in Si LDMOS at both<br />
L-band and S-band Frequencies<br />
A. Sheikh1 , C. Roff1 , J. Benedikt1 , P. J. Tasker1 ,<br />
B. Noori1 , 2 , P. Aaen2 , J. Wood2 1Cardiff University, Cardiff, United Kingdom,<br />
2Freescale Semiconductor Inc., Tempe, United<br />
States<br />
WEP1E-07: Highly Efficient Operation<br />
Modes in GaN Power Transistors<br />
Delivering Upwards of 81% Efficiency and<br />
12W Output Power<br />
P. Wright, A. Sheikh, C. Roff, P. J. Tasker, J.<br />
Benedikt<br />
Cardiff University, Cardiff, United Kingdom<br />
WEP1E-08: A Tunable Matching<br />
Network for Power Amplifier Efficiency<br />
Enhancement and Distortion Reduction<br />
J. Fu, A. Mortazawi<br />
University of Michigan, Ann Arbor, United<br />
States<br />
WEP1F<br />
Radars and Broadband<br />
Communication Systems<br />
WEP1F-01: Antenna and Flip-Chip Circuit<br />
Board Design for a 24 GHz Short-Range<br />
Radar Transceiver<br />
M. Notten1 , H. Veenstra1 , E. van der Heijden2 ,<br />
G. Dolmans3 , F. Jansen4 1Philips Research Laboratories, Eindhoven, The<br />
Netherlands, 2NXP Semiconductors Research,<br />
Eindhoven, The Netherlands, 3Holst Centre/<br />
IMEC-NL, Eindhoven, The Netherlands<br />
WEP1F-02: 3-Dimensional Ultra-<br />
Wideband Monopulse Based Direction<br />
Finding<br />
M. D. Blech1 , M. O. Benzinger2 , T. F. Eibert1 1Universität Stuttgart, Stuttgart, Germany,<br />
2Agilent Technologies, Böblingen, Germany<br />
WEP1F-03: Resolution Improvement for<br />
UWB Wallscanning Radar Applications<br />
S. Hantscher, C. G. Diskus, Johannes Kepler<br />
University at Linz, Linz, Austria<br />
WEP1F-04: 60 GHz Single-Chip 90nm<br />
CMOS Radio with Integrated Signal<br />
Processor<br />
S. Sarkar, P. Sen, B. G. Perumana, D. Yeh, D.<br />
Dawn, S. Pinel, J. Laskar<br />
Georgia Institute of Technology, Atlanta,<br />
United States<br />
WEP1F-05: Cancellation of Unwanted<br />
Motion in a Handheld Doppler Radar used<br />
for Non-Contact Life Sign Monitoring<br />
I. Mostafanezhad, O. Boric-Lubecke, V.<br />
Lubecke, A. Host-Madsen<br />
University of Hawaii at Manoa, Honolulu,<br />
United States<br />
WEP1G<br />
Wireless and Cellular Communication<br />
Systems<br />
WEP1G-01: Half-Mode Substrate<br />
Integrated Waveguide Six-Port Front-End<br />
Circuits for Direct-Conversion Transceiver<br />
Design<br />
Y. Ding, K. Wu<br />
École Polytechnique de Montréal, Montréal,<br />
Canada<br />
WEP1G-02: Design and Performance of a<br />
Single Band 1x2 RF Front End Module for<br />
Mobile WiMAx Applications<br />
C. K. Mmasi, R. Wu, V. Govind, S. Dalmia, G.<br />
White<br />
Jacket Micro Devices, Atlanta, United States<br />
WEP1G-03: Novel Double Pole Double<br />
Throw Switchplexer that Simplifies Dual-<br />
Band WLAN and MIMO Front-End Module<br />
Designs<br />
C. P. Huang, W. Vaillancourt, A. Bruce, L.<br />
Thavone, C. Masse, M. Doherty<br />
SiGe Semiconductor, Methuen, United States<br />
WEP1G-04: Experimental Study of the<br />
Effects of RF Front-end Imperfection on the<br />
MIMO Transmitter Performance<br />
S. Bassam 1 , M. Helaoui 1 , S. Boumaiza 2 , F. M.<br />
Ghannouchi 1<br />
1 University of Calgary, Calgary, Canada,<br />
2 University of Waterloo, Waterloo, Canada<br />
WEP1G-05: Cancellation Techniques<br />
for LO Leakage and DC Offset in Direct<br />
Conversion Systems<br />
S. Yamada 1 ,O. Boric-Lubecke 2 , V. M. Lubecke 2<br />
1 Kai Sensors, Inc., Honolulu, United States,<br />
2 University of Hawaii at Manoa, Honolulu,<br />
United States<br />
WEP1H<br />
Sensors and Sensor Systems<br />
WEP1H-01: Microwave Mass Flow Sensor<br />
for Process Monitoring Applications<br />
A. Penirschke 1 , A. Rijiranuwat 2 , R. Jakoby 1<br />
1 TU Darmstadt, Darmstadt, Germany,<br />
2 EUMETSAT, Darmstadt, Germany<br />
WEP1H-02: A Micromachined Airflow<br />
Sensor Based on RF Evanescent-Mode<br />
Cavity Resonator<br />
Y. Zhao, S. Kim, Y. Li, B. Pan, X. Wu, M. M.<br />
Tentzeris, J. Papapolymerou, M. G. Allen<br />
Georgia Institute of Technology, Atlanta,<br />
United States<br />
WEP1H-03: Pressure Micro-Sensor based<br />
on Radio-Frequency Transducer<br />
M. M. Jatlaoui 1 , 2 , P. Pons 1 , H. Aubert 1 , 2<br />
1 LAAS-CNRS, Toulouse, France, 2 Université de<br />
Toulouse, Toulouse, France<br />
WEDnESDAY<br />
7
8<br />
10:10<br />
10:20 10:30<br />
10:40 10:50<br />
11:00 11:10<br />
11:20 11:30<br />
11:40<br />
WEDnESDAY TECHnICAl SESSIonS 10:10-11:50<br />
WE2A: Theory and Applications of<br />
Metamaterials<br />
Jan Machac, Czech Technical University<br />
David R. Jackson, University of Houston<br />
Room: A311<br />
WE2A-01: Revising the Equivalent Circuit<br />
Models of Resonant-Type Metamaterial<br />
Transmission Lines<br />
F. Aznar, M. Gil, J. Bonache, F. Martín,<br />
Universitat Autònoma de Barcelona,<br />
Bellaterra, Spain<br />
WE2A-02: Coupling of Split Ring<br />
Resonators in a Mu-negative volumetric<br />
Metamaterial<br />
J. Machac, J. Zehentner, M. Blaha<br />
Czech Technical University in Prague, Prague<br />
6, Czech Republic<br />
WE2A-03: Dispersion Engineered<br />
Metamaterial-Based Transmission Line<br />
for Conformal Surface Application<br />
M. R. Hashemi, T. Itoh<br />
University of California at Los Angeles, Los<br />
Angeles, United States<br />
WE2A-04: 2.5-D Stacked Composite Right/<br />
Left-Handed Metamaterial Structures<br />
Using Dielectric Resonators and Parallel<br />
Mesh Plates<br />
T. Ueda 1 , N. Michishita 2 , A. Lai 3 , M. Akiyama 1 ,<br />
T. Itoh 3<br />
1 Kyoto Institute of Technology, Kyoto, Japan,<br />
2 National Defense Academy of Japan,<br />
Yokosuka-shi, Japan, 3 University of California<br />
at Los Angeles, Los Angeles, United States<br />
WE2A-05: A 3D Isotropic Left-Handed<br />
Metamaterial Composed of Wired<br />
Metallic Spheres<br />
A. Sanada<br />
Yamaguchi University, Ube, Japan<br />
WE2A-06: A Correlator Sensor Chip Based<br />
on the Integration of Meta-Materials and<br />
Photonic Crystals<br />
C. Lin, I. Mirza, S. Shi, D. W. Prather<br />
University of Delaware, Newark, United States<br />
WE2B Advances in High Frequency<br />
Signal Sources<br />
H. J. Kuno, QuinStar Technology<br />
Prasad Shastry, Bradley University<br />
Room: A312<br />
WE2B-01: A Novel Ring-Based Triple-Push<br />
0.2-to-34 GHz vCO in 0.13-Μμm CMOS<br />
Technology<br />
C. C. Li, C. C. Chen, B. J. Huang, P. C. Huang,<br />
K. Y. Lin, H. Wang<br />
National Taiwan University, Taipei, Taiwan<br />
WE2B-02: A 77-GHz FMCW Radar using a<br />
Digital Phase-Locked Synthesizer<br />
C. Wagner1 , R. Feger1 , A. Haderer1 , A.<br />
Fischer2 , A. Stelzer1 , H. Jäger2 1Johannes Kepler University at Linz,<br />
Linz, Austria, 2Danube Integrated Circuit<br />
Engineering, Linz, Austria<br />
WE2B-03: A Single SiGe Chip Fractional-N<br />
275 MHz…20 GHz PLL with Integrated<br />
20 GHz vCO<br />
R. Follmann1 , D. Köther1 , T. Kohl1 , M. Engels1 ,<br />
T. Podrebersek1 , V. Heyer2 , K. Schmalz3 ,<br />
F. Herzel3 , W. Winkler3 , S. Osmany3 , U.<br />
Jagdhold3 1IMST GmbH, Kamp-Lintfort, Germany,<br />
2Kayser-Threde GmbH, München, Germany,<br />
3IHP, Frankfurt/Oder, Germany<br />
WE2B-04: vertically Integrated voltage-<br />
Controlled Oscillator in LTCC at K-Band<br />
T. Baras, A. F. Jacob<br />
TU Hamburg-Harburg, Hamburg, Germany<br />
WE2B-05: A K-Band quadrature<br />
vCO based on Asymmetric Coupled<br />
Transmission Lines<br />
C. Kim1 , J. Yang1 , D. W. Kim2 , S. Hong1 1Korea Advanced Institute of Science and<br />
Technology (KAIST), Daejeon, Republic of<br />
Korea, 2Chungnam National University,<br />
Daejeon, Republic of Korea<br />
WE2B-06: 27-GHz Low Phase-Noise CMOS<br />
Standing-Wave Oscillator for Millimeter<br />
Wave Applications<br />
T. Huang, P. You<br />
National Cheng Kung University, Tainan,<br />
Taiwan<br />
WE2C: Linear Network Measurement<br />
Andrea Ferrero, Politecnico di Torino<br />
Leonard Hayden, Cascade Microtech Inc.<br />
Room: A313<br />
WE2C-01: On-Wafer Single Contact<br />
quadrature Accuracy Measurement<br />
Using Receiver Mode in Four-Port vector<br />
Network Analyzer<br />
Y. Chang1 , Y. Hsu1 , 2 , S. Lin1 , Y. Juang1 , H.<br />
Chiou2 1National Applied Research Laboratories,<br />
Hsinchu, Taiwan, 2National Central University,<br />
Jhongli, Taiwan<br />
WE2C-02: Low-cost High-resolution<br />
Handheld vNA Using RF Interferometry<br />
K. Will, T. Meyer, A. Omar<br />
Otto-von-Guericke-University of Magdeburg,<br />
Magdeburg, Germany<br />
WE2C-03: Ultra Wide-Band Four-Port<br />
Reflectometer Using Only Two quadratic<br />
Detectors<br />
K. Haddadi, M. Wang, D. Glay, T. Lasri<br />
IEMN, Villeneuve d’Ascq, France<br />
WE2C-04: A Simple Through-Only<br />
De-Embedding Method for On-Wafer S-<br />
Parameter Measurements up to 110 GHz<br />
H. Ito 1 , K. Masu 2<br />
1 Precision and Intelligence Laboratory,<br />
Yokohama, Japan, 2 Integrated Research<br />
Institute, Yokohama, Japan<br />
WE2C-05: A Low Cost Method for Testing<br />
Integrated RF Substrates<br />
A. Goyal, M. Swaminathan<br />
Georgia Institute of Technology, Atlanta,<br />
United States
WEDnESDAY TECHnICAl SESSIonS 10:10-11:50<br />
WE2D: Advanced Techniques for Submm<br />
Wave Generation, Amplification<br />
and Frequency Conversion<br />
Debabani Choudhury, Intel Corporation<br />
John Cunningham, University of Leeds<br />
Room: A314<br />
WE2D-01: High-Power Tunable THz<br />
Generation Based on Photoconductive<br />
Antenna Arrays<br />
M. Jarrahi, T. H. Lee<br />
Stanford University, Stanford, United States<br />
WE2D-02: A 330-GHz MMIC Oscillator<br />
Module<br />
V. Radisic1 , L. Samoska2 , W. Deal1 , X. Mei1 ,<br />
W. Yoshida1 , P. Liu1 , J. Uyeda1 , A. Fung2 , T.<br />
Gaier2 , R. Lai1 1Northrop Grumman Corporation, Redondo<br />
Beach, United States, 2Jet Propulsion<br />
Laboratory, Pasadena, United States<br />
WE2D-03: A Balanced Sub-Millimeter<br />
Wave Power Amplifier<br />
W. R. Deal1 , X. Mei1 , V. Radisic1 , B. Bayuk1 ,<br />
A. Fung2 , W. Yoshida1 , P. Liu1 , J. Uyeda1 , L.<br />
Samoska2 , T. Gaier2 , R. Lai1 1Northrop Grumman Corporation, Redondo<br />
Beach, United States, 2Jet Proopulsion<br />
Laboratory, Pasadena, United<br />
WE2D-04: 250 nm InP DHBT Monolithic<br />
Amplifiers with 4.8 dB Gain at 324 GHz<br />
J. Hacker1 , M. Urteaga1 , D. Mensa1 , R.<br />
Pierson1 , M. Jones2 , Z. Griffith2 , M. Rodwell2 1Teledyne Scientific Company, Thousand Oaks,<br />
United States, 2University of California-Santa<br />
Barbara, Santa Barbara, United States<br />
WE2D-05: A G-band (140 – 220 GHz)<br />
Microstrip MMIC Mixer Operating in both<br />
Resistive and Drain-Pumped Mode<br />
S. E. Gunnarsson1 , N. Wadefalk1 , I. Angelov1 ,<br />
H. Zirath1 , 2 , I. Kallfass3 , A. Leuther3 1Chalmers University of Technology, Göteborg,<br />
Sweden, 2Ericsson AB, Mölndal, Sweden,<br />
3Fraunhofer Institute for Applied Solid State<br />
Physics (IAF), Freiburg, Germany<br />
WE2E: Advancements in the Linearity<br />
of Power Amplifiers<br />
Prof. Paul J. Tasker, Cardiff University<br />
Bumman Kim, POSTECH<br />
Room: A315/316<br />
WE2E-01: Envelope Injection<br />
Consideration of High Power Hybrid EER<br />
Transmitter for IEEE 802.16e Mobile<br />
WiMAx Application<br />
I. Kim1 , J. Moon1 , J. Kim1 , J. Kim1 , C. Seo2 , K.<br />
Sun2 , C. Ahn2 , B. Kim1 1Pohang University of Science and Technology,<br />
Gyeongbuk, Republic of Korea, 2Samsung Electronics Co., Ltd., Suwon, Republic of Korea<br />
WE2E-02: Reduction of Electrical<br />
Baseband Memory Effect in High-<br />
Power LDMOS Devices using Optimum<br />
Termination for IMD3 and IMD5 using<br />
Active Load-Pull<br />
A. Alghanim, J. Lees, T. Williams, J. Benedikt,<br />
P. Tasker<br />
Cardiff University, Cardiff, United Kingdom<br />
WE2E-03: Complexity Reduced Odd-Order<br />
Memory Polynomial Pre-distorter for<br />
400 W Multi-Carrier Doherty Amplifier<br />
Linearization<br />
N. Messaoudi1 , M. C. Fares1 , S. Boumaiza1 ,<br />
J. Wood2 1University of Waterloo, Waterloo, Canada,<br />
2Freescale Semiconductor, Inc. , Tempe, United<br />
States<br />
WE2E-04: A Doherty Power Amplifier with<br />
Extended Resonance Power Divider for<br />
Linearity Improvement<br />
M. Nick, A. Mortazawi<br />
University of Michigan, Ann Arbor, United<br />
States<br />
WE2E-05: Linearity-Optimized Power<br />
Tracking GaN HEMT Doherty Amplifier<br />
Using Derivative Superposition Technique<br />
for Repeater Systems<br />
Y. Lee, M. Lee, Y. Jeong<br />
Pohang University of Science and Technology<br />
(POSTECH), Pohang, Republic of Korea<br />
10:10 10:20<br />
10:30 10:40<br />
10:50 11:00<br />
11:10 11:20<br />
11:30<br />
WEDnESDAY<br />
9
30<br />
WEDNESDAY 12:00-13:15 A305<br />
WIRELESS MEDICAL TECHNOLOGY<br />
Organizer/Moderator: Mark J. Phelps, Ph.D.<br />
Panelists:<br />
• Dr. Mark Allen, Georgia Tech & CTO, CardioMems<br />
• Dr. Leonardo Estevez, Texas Instruments<br />
• Shelley Hartman, LifeSync Corporation<br />
• William Pierce, Foresight Medical<br />
• M.D. Marshall Stanton, Remote Disease Management<br />
• Max Stachura, MD, Georgia Research Alliance, Telemedicine<br />
• Robert Schmidt, Cleveland Medical Devices<br />
Sponsor: IMS 2008<br />
WEDnESDAY PAnEl SESSIonS<br />
Abstract: The convergence of data and its conversion into valuable<br />
information in the commercial world is also being applied to the health<br />
care industry. Today, many hospitals are still hard wired and paperbased<br />
because systems do not share data. Remote locations (e.g., first<br />
responders) are often unable to capture and transmit critical patient<br />
care information. Improved acquisition, data integrity, convenience, and<br />
safety are improved through these emerging wireless systems. However,<br />
justification for the technology in terms of cost versus clinical benefit is<br />
often a barrier to acceptance. It is often unclear who pays for and owns the<br />
data, integration, and synthesis to result in optimized patient care? Who is<br />
liable? Can third parties do it effectively? Wireless feedback systems could<br />
enable the movement of health care from a symptom and procedure based<br />
model to a preventative data-driven disease progression inhibitor and/or<br />
health preservation model. To do this, the medical industry will need to<br />
learn to utilize these tools effectively, efficiently, and in concert to result<br />
in optimum patient outcomes. This panel will discuss the barriers to entry,<br />
value proposition, and path to future acceptance and utilization of this key<br />
wireless technology.<br />
WEDNESDAY 12:00-13:15 A302<br />
THE RISE OF SYSTEM AND SERvICE ENGINEERING<br />
Chairs/Moderators:<br />
• Dr. Barry Spielman, Washington University<br />
• Dr. Michael Steer, North Carolina State University<br />
• Dr. Rolf Jansen, Aachen University<br />
Panelists:<br />
• Dr. Gerald M. Borsuk, Naval Research Laboratory<br />
• Dr. Robert Jackson, University of Massachusetts Amherst<br />
• Dr. Linda Katehi, University of Illinois Urbana Champaign<br />
• Dr. Charles F. Krumm, Cosemi Technologies, Inc<br />
• Dr. Rick Martin, Boeing<br />
• Dr. David M. McQuiddy, TriQuint<br />
• Dr. Christopher Snowden, University of Surrey<br />
Sponsor: MTT-6 Microwave<br />
Abstract: During the past several years there has been a trend in industry<br />
to shift from innovation, design, and fabrication of electronic devices<br />
and components to innovation, design, and assembly of systems and<br />
subsystems that employ electronic devices/components, either already<br />
available within a company or available commercially. The emphasis has<br />
shifted to use of existing technologies to achieve new system solutions and<br />
innovations instead of continued development of base technologies. This<br />
type of system engineering has become known as “service engineering” in<br />
many corporate circles. Many companies also provide services to facilitate<br />
those who implement actual systems and this is an alternative definition<br />
of “service engineering.” Whichever definition is taken, the clear trend is<br />
that realizing new systems and focusing on innovative system solutions<br />
is a higher return on investment than investing in advanced technologies.<br />
Companies are not abandoning core technologies but believe it is key to<br />
exploit them in multiple, innovative, system and subsystem products.<br />
The trend described has led to the restructuring of many companies and,<br />
correspondingly, to the education and training of engineers to meet<br />
the needs of technology-based companies. Industry, Governments and<br />
Universities are attempting to revise the approach to educating engineers<br />
to meet the demand for engineers who can thrive in the service engineering<br />
environment. Members of the microwave community must understand<br />
these trends and adapt to and thrive within this changing environment.
3<br />
13:20<br />
13:30 13:40<br />
13:50 14:00<br />
WE3A: Planar Filters I<br />
Chi Wang, Orbital Sciences Corporation<br />
Kawthar Zaki, University of Maryland<br />
WE3A-03: Planar quintuple-Mode<br />
Resonator Bandpass Filters with Sharp<br />
Transition and Wide Stopband<br />
Y. Chiou, Y. Lee, J. Kuo, C. Chen<br />
National Chiao Tung University, Hsinchu,<br />
Taiwan<br />
WE3A-04: Rectangular Stubs in Microstrip<br />
or Stripline Using v-lines<br />
R. Levy<br />
R. Levy Associates, La Jolla, United States<br />
WE3B; Low Noise Devices and Circuits<br />
Phil Smith, BAE Systems<br />
Marian Pospieszalski, NRAO<br />
WE3C: Nonlinear Device Modeling<br />
Wayne Struble, Triquint Semiconductor<br />
Matthias Rudolph, Ferdinand-Braun-Institut<br />
(FBH)<br />
Room: A313<br />
WE3C-01: Modeling Fast Switching<br />
Speed PIN Diodes for RF and Microwave<br />
Applications<br />
R. H. Caverly, A. M. Reif<br />
Villanova University, Villanova, United States<br />
Room: A311<br />
Room: A312<br />
WE3A-01: A Multi-Resolution Channel- WE3B-01: Low Noise Amplifier for 180<br />
Select Filter with Ultra-Wide Frequency GHz Frequency Band<br />
Coverage<br />
P. Kangaslahti<br />
M. Koochakzadeh, A. Abbaspour-Tamijani<br />
Arizona State University, Tempe, United States<br />
1 , D. Pukala1 , T. Gaier1 , W. Deal2 ,<br />
X. Mei2 , R. Lai2 1Jet Propulsion Laboratory, Pasadena, United<br />
States, 1Northrop Grumman Corporation,<br />
Redondo Beach, United States<br />
WE3A-02: A Novel Compact Ultra-<br />
Wideband Bandpass Filter using<br />
Microstrip Stub-Loaded Dual-Mode<br />
Resonator Couples<br />
Z. Ma1 , W. He2 , C. Chen3 , Y. Kobayashi1 , T.<br />
Anada3 WE3B-02: q-band Low Noise Amplifiers<br />
Using a 0.15-_m MHEMT Process for<br />
Broadband Communication and Radio<br />
Astronomy Applications<br />
S. Weng<br />
1Saitama University, Saitama, Japan,<br />
2Shanghai University, Shanghai, China,<br />
3Kanagawa University, Yokohama, Japan<br />
1 , C. Lin1 , H. Chang1 , C. Chiong2 WE3C-02: A Nonlinear Electro-Thermal<br />
Model for High Power RF LDMOS<br />
Transistors<br />
D. Bridges, J. Wood, M. Guyonnet, P. H. Aaen<br />
Freescale Semiconductor Inc., Tempe, United<br />
1National Central University, Jhongli, Taiwan, States<br />
2Academia Sinica, Taipei, Taiwan<br />
WE3B-03: Experimental Cryogenic<br />
WE3C-03: A Scalable Compact Model for<br />
Modeling and Noise of SiGe HBTs<br />
III-v Heterojunction Bipolar Transistors<br />
J. C. Bardin, S. Weinreb<br />
S. R. Nedeljkovic, J. R. McMacken, J. M.<br />
California Institute of Technology, Pasadena, Gering, D. Halchin<br />
United States<br />
RFMD, Greensboro, United States<br />
14:10 14:20<br />
14:30 14:40<br />
WEDnESDAY TECHnICAl SESSIonS 13:20-15:00<br />
WE3A-05: New Differential PSL Coupled<br />
Resonator Filters<br />
S. F. Peik, F. Langner<br />
Bremen University of Applied Sciences,<br />
Bremen, Germany<br />
WE3B-04: Thermal Characterization<br />
of the Intrinsic Noise Parameters for<br />
AlGaN/GaN HEMTs<br />
M. Thorsell, K. Andersson, M. Fagerlind, M.<br />
Südow, P. Nilsson, N. Rorsman<br />
Chalmers University of Technology, Göteborg,<br />
Sweden<br />
WE3B-05: DC-to-40GHz MMIC Traveling<br />
Wave Power Splitter for Airborne Systems<br />
R. S. N’Gongo1 , 2 , K. Y. Varma2 , P. Ratna2 , V.<br />
Kirty2 1J&R Microwave Solutions Ltd., Toulouse,<br />
France, 2Astra Microelectronics Tech. Ltd.,<br />
Hyderabad, India<br />
WE3C-04: Large-Signal Hybrid<br />
Compact/Behavioral HBT Model for III-v<br />
Technology Power Amplifiers<br />
T. S. Nielsen, S. Nedeljkovic, D. Halchin,<br />
RFMD Inc., Greensboro, United States<br />
WE3C-05: Limitations of Current Compact<br />
Transit-Time Models for III-v-Based HBTs<br />
M. Rudolph<br />
Ferdinand-Braun-Institut (FBH), Berlin,<br />
Germany
WEDnESDAY TECHnICAl SESSIonS 13:20-15:00<br />
WE3D: RF-over-Fiber Links and<br />
Components<br />
Ronald Reano, Ohio State University<br />
Chris Scholz, LeCroy<br />
Room: A314<br />
WE3D-01: Performance Evaluation of<br />
Multiband Radio-over-Fiber for WLAN,<br />
Gigabit Ethernet and UWB<br />
M. Yee, Y. Guo, V. Pham, L. Ong<br />
A-STAR, Singapore, Singapore<br />
WE3D-02: MultiGbit/s Transmission over a<br />
Fiber Optic mm-wave Link<br />
I. Gonzalez Insua, K. Kojucharow, C. G.<br />
Schäffer<br />
TU Dresden, Dresden, Germany<br />
WE3D-03: High-Power Modified Uni-<br />
Traveling Carrier Photodiode with > 50<br />
dBm Third Order Intercept Point<br />
A. Beling, H. Pan, H. Chen, J. C. Campbell<br />
University of Virginia, Charlottesville, United<br />
States<br />
WE3D-04: Radio-Over-Fiber Systems for<br />
WLAN Based on CMOS-Compatible Si<br />
Avalanche Photodetectors<br />
H. Kang, M. Lee, W. Choi<br />
Yonsei University, Seoul, Republic of Korea<br />
WE3D-05: A Broadband High Dynamic<br />
Range Analog Photonic Link using Push-<br />
Pull Directly-Modulated Semiconductor<br />
Lasers<br />
D. A. Marpaung, C. G. Roeloffzen, W. C. van<br />
Etten<br />
University of Twente, Enschede, the<br />
Netherlands<br />
WE3E: Frequency-Domain Techniques<br />
Luca Perregrini, University of Pavia<br />
Adalbert Beyer, University of Duisburg-Essen<br />
Room: A315/316<br />
WE3E-01: A Derived Circuit Model<br />
for Spiral Inductors on Lossy Silicon<br />
Substrate<br />
K. Yang1 , H. Hu1 , K. L. Wu1 , W. Y. Yin2 , J. F.<br />
Mao2 1The Chinese University of Hong Kong, Hong<br />
Kong, Hong Kong, 2Shanghai Jiao Tong<br />
University, Shanghai, China<br />
WE3E-02: Modeling of Losses in Substrate<br />
Integrated Waveguide by Boundary<br />
Integral-Resonant Mode Expansion<br />
Method<br />
M. Bozzi1 , L. Perregrini1 , K. Wu2 1 2 University of Pavia, Pavia, Italy, École<br />
Polytechnique de Montréal, Montréal, Canada<br />
WE3E-03: Electromagnetic Macro-<br />
Modeling of 3D High Density Trenched<br />
Silicon Capacitors for Wafer-Level-<br />
Packaging<br />
S. Wane1 , V. Mühlhaus2 , J. Rautio2 1 2 NXP-Semiconductors, Caen, France, Sonnet<br />
Software, Witten, Germany<br />
WE3E-04: A Novel Boundary Element<br />
Method with Surface Conductive<br />
Absorbers for 3-D Analysis of<br />
Nanophotonics<br />
L. Zhang, J. Lee, A. Farjadpour, J. K. White, S.<br />
G. Johnson<br />
Massachusetts Institute of Technology,<br />
Cambridge, United States<br />
WE3E-05: Sensitivity Analysis of<br />
S-parameters Including Port variations<br />
Using the Transfinite Element Method<br />
L. Vardapetyan, J. Manges, Z. Cendes<br />
Ansoft Corporation, Pittsburgh, United States<br />
13:20 13:30<br />
13:40 13:50<br />
14:00 14:10<br />
14:20 14:30<br />
14:40<br />
WEDnESDAY<br />
33
34<br />
WEDnESDAY InTERACTIVE FoRUM 14:00-16:00<br />
WEP2A<br />
Passive Circuit Elements<br />
WEP2A-01: Notes on Bandpass Filters Whose<br />
Inter-Resonator Coupling Coefficients are<br />
Linear Functions of Frequency<br />
S. Amari 1 , M. Bekheit 2 , F. Seyfert 3<br />
1 Royal Military College of Canada, Kingston,<br />
Canada, 2 Queen’s University, Kingston, Canada,<br />
3 INRIA, Sophia-Antipolis, France<br />
WEP2A-02: Miniaturized Ultra-Wideband<br />
Self-Complementary Antennas Using<br />
Shunted Spiral Inductors<br />
A. Saitou 1 , Y. Ohhashi 1 , K. Honjo 2 , K. Takahashi 1<br />
1 YKC Corporation, Musashi-Murayama, Japan,<br />
2 The University of Electro-Communications,<br />
Chofu, Japan<br />
WEP2A-03: A Miniature Lumped Element<br />
LTCC Bandpass Filter with High Stopband<br />
Attenuation for GPS Applications<br />
G. M. Brzezina, L. Roy<br />
Carleton University, Ottawa, Canada<br />
WEP2A-04: A New Ultra Wideband<br />
Directional Coupler Based on a Combination<br />
between CB-CPW and Microstrip<br />
Technologies<br />
M. Nedil, T. A. Denidni<br />
Université de Québec, Montréal, Canada<br />
WEP2A-05: Designs of Dual-Band Wilkinson<br />
Power Dividers with Flexible Frequency<br />
Ratios<br />
H. Zhang, H. Xin<br />
University of Arizona, Tucson, United States<br />
WEP2A-06: A Novel Planar Dual-Band<br />
Branch Line Coupler Using Defect Ground<br />
Structure<br />
C. You, X. Zhu<br />
Southeast University, Nanjing, China<br />
WEP2A-07: Accurate and Efficient Design<br />
Approach of Substrate Integrated<br />
Waveguide Filter Using Numerical TRL<br />
Calibration Technique<br />
X. Chen, K. Wu<br />
École Polytechnique de Montréal, Montréal, Canada<br />
WEP2A-08: A Ka-Band Multilayer LTCC<br />
4-pole Bandpass Filter using Dual-Mode<br />
Cavity Resonators<br />
K. Ahn, I. Yom<br />
Electronics and Telecommunications Research<br />
Institute, Daejeon, Republic of Korea<br />
WEP2A-09: Small Form-Factor Integrated<br />
Balun with Complex Impedance Matching<br />
K. Liu1 , R. Emigh1 , R. Frye2 1 2 STATS ChipPAC, Inc., Tempe, United States, RF Design<br />
Consulting, LLC, Berkeley Heights, United States<br />
WEP2A-10: A Planar Ultra-Wideband<br />
Balanced Doubler<br />
Y. Kim1 , K. W. Kim1 , 2 , Y. Cho1 1 Kyungpook National University, Daegu,<br />
Republic of Korea, 2 EM-wise Communications<br />
Co., Daegu, Republic of Korea<br />
WEP2A-11: High Performance Bandstop<br />
Filter Design and Investigation using<br />
Physical Model for WiMAx Measurement<br />
Equipment<br />
K. Ma 1 , R. M. Jayasuriya 1 , K. Chan 2<br />
1 ST Electronics, Singapore, Singapore, 2 MEDs<br />
Technologies Pte Ltd, Singapore, Singapore<br />
WEP2B<br />
Ferroelectric, Ferrite and Acoustic<br />
Wave Components<br />
WEP2B-01: A Circuit Model for Nonlinear<br />
Simulation of Radio-Frequency Filters<br />
Employing Bulk Acoustic Wave Resonators<br />
M. Ueda 1 , 2 , M. Iwaki 1 , T. Nishihara 1 , Y. Satoh 1 , K.<br />
Hashimoto 2<br />
1 Fujitsu Labs. LTD., Akashi, Japan, 2 Chiba<br />
University, Chiba, Japan<br />
WEP2B-02: Surface Acoustic Wave Filter in<br />
High Frequency with Narrow Bandwidth<br />
and Excellent Temperature Characteristic<br />
T. Murata, M. Kadota, T. Nakao, K. Matsuda<br />
Murata MFG. Co. Ltd., Kyoto, Japan<br />
WEP2B-03: Third Order Intermodulation<br />
Distortion in Film Bulk Acoustic Resonators<br />
at Resonance and Antiresonance<br />
E. Rocas 1 , C. Collado 1 , J. Mateu 1 , 2 , H.<br />
Campanella 3 , J. M. O’Callaghan 1<br />
1 UPC, Barcelona, Spain, 2 CTTC, Castelldefels,<br />
Spain, 3 CNM-CSIC, Bellaterra, Spain<br />
WEP2B-04: Strontium Titanate DC Electric<br />
Field Switchable and Tunable Bulk Acoustic<br />
Wave Solidly Mounted Resonator<br />
G. N. Saddik, D. S. Boesch, S. Stemmer, R. A. York<br />
University of California Santa Barbara, Santa<br />
Barbara, United States<br />
WEP2C<br />
MEMS Components and Technologies WEP2D<br />
Semiconductor Devices and<br />
Monolithic IC Technologies<br />
WEP2C-01: Continuously Tunable RF-MEMS<br />
varactor for High Power Applications<br />
S. Leidich 1 , S. Kurth 2 , T. Gessner 1 , 2<br />
1 Chemnitz University of Technology, Chemnitz,<br />
Germany, 2 Fraunhofer IZM, Chemnitz, Germany<br />
WEP2C-02: A 40/50 GHz Diplexer<br />
Realized with Three Dimensional Copper<br />
Micromachining<br />
J. R. Reid, D. Hanna, R. T. Webster<br />
Air Force Research Laboratory, Hanscom AFB,<br />
United States<br />
WEP2C-03: Effect of Dielectric Film<br />
Thickness on Dielectric Charging of RF MEMS<br />
Capacitive Switches<br />
R. A. Daigler 1 , G. Papaioannou 2 , E. Papandreou 2 ,<br />
J. Papapolymerou 1<br />
1 Georgia Institute of Technology, Atlanta, United<br />
States, 2 University of Athens, Athens, Greece<br />
WEP2C-04: Improved Distributed MEMS<br />
Matching Network for Low Frequency<br />
Applications Using a Slow-Wave Structure<br />
F. Domingue 1 , 2 , A. B. Kouki 1 , R. R. Mansour 2<br />
1 École de technologie supérieure, Montréal,<br />
Canada, 2 University of Waterloo, Waterloo,<br />
Canada<br />
WEP2C-05: High-q RF MEMS Capacitor with<br />
Digital/Analog Tuning Capabilities<br />
A. Grichener, B. Lakshminarayanan, G. M.<br />
Rebeiz<br />
University of California-San Diego, La Jolla,<br />
United States<br />
WEP2D-01: Intergate-Channel-Connected<br />
Multi-Gate PHEMT Devices for Antenna<br />
Switch Applications<br />
S. Koya 1 , T. Ogawa 1 , H. Takazawa 1 , A. Nakajima 2 ,<br />
S. Osakabe 2 , Y. Shigeno 2 , S. Takatani 1<br />
1 Hitachi, Ltd., Kokubunji-shi, Japan, 2 Renesas<br />
Technology Corp., Takasaki-shi, Japan<br />
WEP2D-02: An Efficient Technique for<br />
Designing Balanced vector Modulators with<br />
Low Insertion Loss<br />
Y. Hou, X. Sun, L. Li<br />
Chinese Academy of Science, Shanghai, China<br />
WEP2D-03: A Monolithic, 1000 Watt SPDT<br />
Switch<br />
T. E. Boles, J. Brogle, A. Rozbicki<br />
M/A-COM, Inc., Lowell, United States<br />
WEP2D-04: A Low Phase-Shift Temperature<br />
Compensation Attenuator with variable-q<br />
FET Resonators<br />
M. Hangai 1 , H. Asao 2 , M. Hieda 1 , H. Takeda 2 , M.<br />
Yamaguchi 3 , M. Miyazaki 1<br />
1 Mitsubishi Electric Corporation, Kamakura,<br />
Japan, 2 Mitsubishi Electric Corporation,<br />
Amagasaki, Japan, 3 Mitsubishi Electric<br />
Corporation, Itami, Japan<br />
WEP2D-05: A K-band AlGaN/GaN-based<br />
MMIC Amplifier with Microstrip Lines on<br />
Sapphire<br />
T. Murata 1 , M. Kuroda 1 , S. Nagai 2 , M. Nishijima 1 ,<br />
H. Ishida 1 , M. Yanagihara 1 , T. Ueda 1 , H. Sakai 1 , T.<br />
Tanaka 1 , M. Li 2<br />
1 Matsushita Electric Industrial Co., Ltd.,<br />
Nagaokakyo-shi, Japan, 2 Panasonic Technologies<br />
Company, Cambridge, United States
WEDnESDAY WEP2 — HAll A3 14:00-16:00<br />
WEP2E<br />
Packaging, Interconnects, MCMs and<br />
Hybrid Manufacturing<br />
WEP2E-01: Wideband Electrical Modeling<br />
of Large Three-Dimensional Interconnects<br />
using Accelerated Generation of Partial<br />
Impedances with Cylindrical Conduction<br />
Mode Basis Functions<br />
K. Han, M. Swaminathan, E. Engin<br />
Georgia Institute of Technology, Atlanta,<br />
United States<br />
WEP2E-02: Utilizing Infrared for<br />
Improved Channel Temperature<br />
Prediction<br />
A. Darwish1 , A. Bayba2 , H.A. Hung2 1 2 GTS, Little Rock, United States, ARL, Adelphi,<br />
United States<br />
WEP2E-03: Design, Integration and<br />
Characterization of a Novel Paper-based<br />
Wireless Sensor Module<br />
R. Vyas, A. Rida, L. Yang, M.M. Tentzeris<br />
Georgia Institute of Technology, Atlanta,<br />
United States<br />
WEP2F<br />
Biological Effects and Medical<br />
Applications<br />
WEP2F-01: Miniature Antenna for RF<br />
Telemetry through Ocular Tissue<br />
E. Y. Chow, C. Yang, A. Chlebowski, W. J.<br />
Chappell, P. P. Irazoqui<br />
Purdue University, West Lafayette, United<br />
States<br />
WEP2F-02: A Tapered Microstrip Patch<br />
Antenna Array for Microwave Breast<br />
Imaging<br />
J. P. Stang, W. T. Joines<br />
Duke University, Durham, United States<br />
WEP2G<br />
Smart Antennas, Spatial Power<br />
Combining and Phased Arrays<br />
WEP2G-01: Integrated Mixer based on<br />
Composite Right/Left-Handed Leakywave<br />
Antenna<br />
Y. Kim1 , E. Kim1 , A. Lai2 , D. S. Goshi2 , T. Itoh2 1Kumoh National Institute of Technology,<br />
Gyungbuk, Republic of Korea, 2University of<br />
California-Los Angeles, United States<br />
WEP2G-02: Blind Source Separation<br />
of Human Body Motion using Direct<br />
Conversion Doppler Radar<br />
A. Vergara, N. Petrochilos, O. Boric-Lubecke,<br />
V. Lubecke<br />
University of Hawaii at Manoa, Honolulu,<br />
United States<br />
WEP2G-03: A Self-Steering Array Using<br />
Power Detection and Phase Shifting<br />
J. M. Akagi, A. Zamora, M. K. Watanabe, W.<br />
A. Shiroma<br />
University of Hawaii at Manoa, Honolulu,<br />
United States<br />
WEDnESDAY<br />
35
36<br />
15:30<br />
15:40 15:50<br />
16:00 16:10<br />
16:20 16:30<br />
16:40 16:50<br />
WEDnESDAY TECHnICAl SESSIonS 15:30-17:10<br />
WE4A: Planar Filters II<br />
Jeff Pond, Naval Research Lab<br />
Raafat Mansour, University of Waterloo<br />
Room: A311<br />
WE4A-01: Parallel-Coupled Microstrip<br />
Filters with Periodic Floating-Conductors<br />
on Coupled-Edges for Spurious<br />
Suppression<br />
T. Yamaguchi1 , T. Fujii2 , T. Kawai1 , I. Ohta1 1 2 University of Hyogo, Himeji, Japan, Fujitsu<br />
Limited, Kawasaki, Japan<br />
WE4A-02: A Miniaturized Microstrip Ring<br />
Resonator Lowpass Filter with Sharp<br />
Attenuation<br />
T. Wuren, I. Sakagami, M. Fujii, M. Tahara<br />
University of Toyama, Toyama-shi, Japan<br />
WE4A-03: Design of Dual- and<br />
Triple-Passband Bandpass Filters with<br />
Interdigital Resonators<br />
C. Tang, L. Lu, C. Shen, J. Wu<br />
National Chung Cheng University, Chia-Yi,<br />
Taiwan<br />
WE4A-04: Design Procedure of Low Cost<br />
Substrate Microstrip Filters based on<br />
Nonresonating Nodes<br />
S. Cogollos 1 , V. Boria 1 , R. J. Cameron 2 , R. R.<br />
Mansour 3<br />
1 Universidad Politécnica de Valencia, Valencia,<br />
Spain, 2 COMDEV, Cambridge, Canada,<br />
3 University of Waterloo, Waterloo, Canada<br />
WE4A-05: Improvement of Stopband<br />
Performance in Parallel-Coupled<br />
Bandpass Filters using quasi-Lumped<br />
Elements<br />
V. Zhurbenko, V. Krozer, P. Meincke<br />
Technical University of Denmark, Kgs. Lyngby,<br />
Denmark<br />
WE4B: High-Performance Frequency<br />
Conversion and Control Integrated<br />
Circuits<br />
Deuk Hyoun Heo, Washington State University<br />
Jae-Sung Rieh, Korea University<br />
Room: A312<br />
WE4B-01: A q-band Low Loss Reduced-<br />
Size Filter-Integrated SPDT Switch using<br />
0.15-um MHEMT Technology<br />
J. Lee1 , R. Lai1 , K. Lin1 , C. Chiong2 , H. Wang1 1National Taiwan University, Taipei, Taiwan,<br />
2Academia Sinica, Taipei, Taiwan<br />
WE4B-02: 3W SPDT Antenna Switch<br />
Design Using Standard 0.18 um CMOS<br />
Process<br />
M. Ahn1 , C. Lee2 , B. Kim3 , J. Laskar1 1Georgia Institute of Technology, Atlanta,<br />
United States, 2Samsung RFIC Design Center,<br />
Atlanta, United States, 3Sungkyunkwan University, Suwon, Republic of Korea<br />
WE4B-03: A 60dB Harmonic Mixing<br />
Reduction Mixer for Wideband<br />
Applications<br />
C. Li, P. Huang<br />
National Tsing Hua University, Hsinchu,<br />
Taiwan<br />
WE4B-04: A v-band Wide Locking Range<br />
CMOS Frequency Divider<br />
T. Luo1 , Y. E. Chen1 , D. Heo2 1National Taiwan University, Taipei, Taiwan,<br />
2Washington State University, Pullman,<br />
United States<br />
WE4C: Tags and Sensors<br />
Alan Jenkins, Tyco Electronics<br />
Hiroshi Kondoh, Hitachi<br />
Room: A313<br />
WE4C-01: Complex Signal Demodulation<br />
and Random Body Movement<br />
Cancellation Techniques for Non-Contact<br />
vital Sign Detection<br />
C. Li, J. Lin<br />
University of Florida, Gainesville, United<br />
States<br />
WE4C-02: Regenerative Backscatter<br />
Transponder using the Switched<br />
Injection-Locked Oscillator Concept<br />
M. Vossiek1 , T. Schäfer1 , D. Becker2 1Clausthal University of Technology,<br />
Clausthal-Zellerfeld, Germany, 2Symeo GmbH,<br />
Neubiberg / Munich, Germany<br />
WE4C-03: A Smart Beam Steering RFID<br />
Interrogator For Passive Tags in Item<br />
Level Tagging Applications<br />
M. Y. Chia, K. C. Ang, K. Chee, S. Leong<br />
A-STAR, Singapore, Singapore<br />
WE4C-04: A Dual-Resonant Microstrip-<br />
Based UHF RFID “Cargo” Tag<br />
S. R. Aroor, D. D. Deavours<br />
University of Kansas, Lawrence , United States<br />
WE4C-05: Miniaturized Patch Antenna<br />
for the Radio Frequency Identification of<br />
Metallic Objects<br />
A. Ghiotto 1 , S. F. Cantalice 1 , 2 , T. Vuong 1 , A.<br />
Pouzin 1 , G. Fontgalland 2 , S. Tedjini 1<br />
1 Grenoble Polytechnic Institute, Valence,<br />
France, 2 Federal University of Campina<br />
Grande, Campina Grande, Brazil
WEDnESDAY TECHnICAl SESSIonS 15:30-17:10<br />
WE4D: Microwave Photonic<br />
Technologies and Systems<br />
Dieter Jaeger, University of Duisburg-Essen<br />
Edward Rezek, Northrop Grumman<br />
Room: A314<br />
WE4D-01: Fiber-Fed 60-GHz Self-<br />
Heterodyne Systems using Self-<br />
Oscillating Harmonic Optoelectronic<br />
Mixers Based on CMOS-Compatible APDs<br />
M. Lee, H. Kang, K. Lee, W. Choi<br />
Yonsei University, Seoul, Republic of Korea<br />
WE4D-02: New Label Processing for<br />
Routing Optical Packets<br />
G. Kovács1 , T. Berceli1 , J. Capmany2 , B.<br />
Ortega2 , D. Pastor2 , A. Martinez2 , G. Puerto2 ,<br />
T. Bánky1 , M. Csörnyei1 , M. D. Manzanedo2 1Budapest University of Technology and<br />
Economics, Budapest, Hungary, 2Universidad Politécnica de Valencia, Valencia, Spain<br />
WE4D-03: Pure 2.5 Gb/s 16-qAM Signal<br />
Generation with Photonic vector<br />
Modulator<br />
J. L. Corral1 , R. Sambaraju1 , M. A. Piqueras2 ,<br />
V. Polo1 1Universidad Politécnica de Valencia, Valencia,<br />
Spain, 2DAS Photonics, S.L, Valencia, Spain<br />
WE4D-04: Photonic Instantaneous<br />
Frequency Measurement using Non-<br />
Linear Optical Mixing<br />
N. Sarkhosh, H. Emami, L. A. Bui, A. Mitchell<br />
Royal Melbourne Institute of Technology<br />
(RMIT), Melbourne , Australia<br />
WE4D-05: Microwave Signal Generation<br />
using Self-Heterodyning of a Fast<br />
Wavelength Switching SG-DBR Laser<br />
M. A. Bernacil, S. O’Connor, B. Maher, A.<br />
Dekelaita, D. Derickson<br />
California Polytechnic State University, San<br />
Luis Obispo, United States<br />
WE4E: Linear Device Modeling<br />
Peter H. Aaen, Freescale Semiconductor, Inc.<br />
Mohamed Megahed, Intel Corporation<br />
Room: A315/316<br />
WE4E-01: An Extrinsic Component<br />
Parameter Extraction Method for High<br />
Power RF LDMOS Transistors<br />
J. Wood1 , D. Lamey1 , M. Guyonnet1 , D. Chan1 ,<br />
D. Bridges1 , N. Monsauret2 , P. H. Aaen1 1 Freescale Semiconductor, Tempe, United<br />
States, 2 Freescale Semiconductor, Toulouse,<br />
France<br />
WE4E-02: A Novel Passivity verification<br />
and Enforcement Algorithm for<br />
Macromodels of Microwave Devices<br />
C. Walkey1 , D. W. Paul1 , M. S. Nakhla1 , R.<br />
Achar1 , A. Weisshaar2 1 2 Carleton University, Ottawa, Canada, Oregon<br />
State University, Corvallis, United States<br />
WE4E-03: Support-vector-Regression-<br />
Based Output Space-Mapping for<br />
Microwave Device Modeling<br />
S. Koziel, J. W. Bandler<br />
McMaster University, Hamilton, Canada<br />
15:30 15:40<br />
15:50 16:00<br />
16:10 16:20<br />
16:30 16:40<br />
16:50<br />
WEDnESDAY<br />
37
38<br />
08:00<br />
08:10 08:20<br />
08:30 08:40<br />
08:50<br />
09:00<br />
09:10 09:20<br />
09:30<br />
THURSDAY TECHnICAl SESSIonS 08:00-09:40<br />
TH1A: Filter Theory and New<br />
Concepts<br />
Giuseppe Macchiarella, Politecnico di Milano<br />
Huiwen Yao, Orbital Sciences Corp.<br />
Room: A311<br />
TH1A-01: Novel Waveguide Pseudo-<br />
Elliptic Filters using Slant Ridge<br />
Resonators<br />
S. Bastioli1 , L. Marcaccioli2 , R. Sorrentino1 1 2 University of Perugia, Perugia, Italy, RF<br />
Microtech s.r.l., Perugia, Italy<br />
TH1A-02: Design of a Coaxial Resonator<br />
Filter with Nonuniform Dissipation<br />
Z. Zakaria, I. C. Hunter, A. C. Guyette<br />
University of Leeds, Leeds, United Kingdom<br />
TH1A-03: Generalized Lossy Microwave<br />
Filter Coupling Matrix Synthesis and<br />
Design<br />
V. Miraftab, M. Yu<br />
COM DEV Ltd.,Cambridge, Canada<br />
TH1A-04: Longitudinal Dual-Mode Filters<br />
in Rectangular Waveguide<br />
J. A. Ruiz-Cruz1 , Y. Zhang2 , J. R. Montejo-<br />
Garai3 , J. M. Rebollar3 , K. A. Zaki4 1Universidad Autónoma de Madrid, Madrid,<br />
Spain, 2RFS-Radio Frequency Systems,<br />
Meriden, United States, 3Universidad Politécnica de Madrid, Madrid, Spain,<br />
4University of Maryland, College Park, United<br />
States<br />
TH1A-05: Enhanced Topology for the<br />
Design of Bandpass Elliptic Filters<br />
Employing Inductive Windows and<br />
Dielectric Objects<br />
M. Martínez-Mendoza1 , F. J. Pérez-Soler1 ,<br />
J. S. Gómez-Díaz1 , F. Quesada-Pereira1 , A.<br />
Alvarez-Melcon1, R. Cameron2 1Technical University Cartagena, Cartagena,<br />
Spain, 2COM DEV International Ltd, Aylesbury,<br />
United Kingdom<br />
TH1A-06: A Novel Low-loss Integrated<br />
60 GHz Cavity Filter with Source-Load<br />
Coupling using Surface Micromachining<br />
Technology<br />
B. Pan, Y. Li, M. M. Tentzeris, J.<br />
Papapolymerou<br />
Georgia Institute of Technology, Atlanta,<br />
United States<br />
TH1B: High Power Amplifiers for<br />
Infrastructure Applications<br />
Aryeh Platzker, Raytheon<br />
John Heaton, BAE Systems<br />
Room: A312<br />
TH1B-01: 10W Ultra-Broadband Power<br />
Amplifier<br />
A. K. Ezzeddine, H. C. Huang<br />
AMCOM Communications, Inc., Gaithersburg,<br />
United States<br />
TH1B-02: High Linearity 40 Watt, 28v<br />
InGaP/GaAs HBT<br />
W. Ma 1 , X. Sun 1 , P. Hu 1 , J. Yao 1 , B. Lin 1 , H.<br />
Chau 1 , L. Liu 1 , C. Lee 1 , 2<br />
1 WJ Communications, Inc., San Jose, United<br />
States, 2 National Chiao Tung University,<br />
Hsinchu, Taiwan<br />
TH1B-03: Characterization and Thermal<br />
Analysis of a 48 v GaN HFET Device<br />
Technology for Wireless Infrastructure<br />
Applications<br />
B. Green, H. Henry, J. Selbee, F. Clayton,<br />
K. Moore, M. CdeBaca, J. Abdou, C. Liu, O.<br />
Hartin, D. Hill, M. Miller<br />
Freescale Semiconductor, Inc.,Tempe, United<br />
States<br />
TH1B-04: A 2-stage 150W 2.2GHz Dual<br />
Path LDMOS RF Power Amplifier for High<br />
Efficiency Applications<br />
C. Cassan 1 , J. Jones 2 , O. Lembeye 1<br />
1 Freescale Semiconducteurs SAS, Toulouse,<br />
France, 2 Freescale Semiconductors Inc., Tempe,<br />
United States<br />
TH1C: Dual-Band Passive<br />
Components<br />
Magdalena Salazar - Palma, Universidad<br />
Carlos III de Madrid<br />
Mohamed Abouzahra, MIT Lincoln<br />
Laboratory<br />
Room: A313<br />
TH1C-01: Compact Single and Dual Band<br />
Zero-degree Metamaterial N-way Radial<br />
Power Combiner/Divider<br />
A. Dupuy, A. Gummalla, M. Achour, G.<br />
Poilasne<br />
Rayspan Corporation, San Diego, United<br />
States<br />
TH1C-02: Dual-Band Y-Junction Power<br />
Dividers Implemented Through Artificial<br />
Lines Based on Complementary<br />
Resonators<br />
G. Sisó, J. Bonache, F. Martín<br />
Universitat Autònoma de Barcelona,<br />
Bellaterra (Barcelona), Spain<br />
TH1C-03: A Compact Dual-Band<br />
Metamaterial-Based Rat-Race Coupler for<br />
a MIMO System Application<br />
P. Chi1 , C. Lee2 , T. Itoh1 1University of California- Los Angeles, Los<br />
Angeles, United States, 2Rayspan Corporation,<br />
San Diego, United States<br />
TH1C-04: Miniaturized DBR Filter:<br />
Formulation and Performances<br />
Improvement<br />
H. Issa, J. Duchamp, P. Ferrari<br />
IMEP-LAHC, Minatec-Grenoble, France<br />
TH1C-05: Dual-Band Bandpass Filter and<br />
Diplexer Based on Double-Sided Parallel-<br />
Strip Line<br />
J. Chen, Q. Xue<br />
City University of Hong Kong, Hong Kong,<br />
China<br />
TH1C-06: Dual-Band Marchand Baluns<br />
W. M. Fathelbab<br />
South Dakota School of Mines and<br />
Technology, Rapid City, United States
THURSDAY TECHnICAl SESSIonS 08:00-09:40<br />
TH1D: Microwave & Millimeter Wave<br />
Phased Array & Applications<br />
Nicholas Buris, Motorola-Schaumburg<br />
Constantine A. Balanis, Arizona State<br />
University<br />
Room: A314<br />
TH1D-01: A Feedback-Based Distributed<br />
Phased Array Technique and its<br />
Application to 60-GHz Wireless Sensor<br />
Network<br />
M. Seo, M. Rodwell, U. Madhow<br />
University of California-Santa Barbara, Santa<br />
Barbara, United States<br />
TH1D-02: A Tunable Concurrent 6-to-18<br />
GHz Phased-Array System in CMOS<br />
H. Wang1 , S. Jeon1 , Y. Wang1 , F. Bohn1 , A.<br />
Natarajan2 , A. Babakhani1 , A. Hajimiri1 1California Institute of Technology, Pasadena,<br />
United States, 2IBM T.J. Watson Research<br />
Center, Yorktown Heights, United States<br />
TH1D-03: A Novel Modularized Folded<br />
Highly Compact LTCC Butler Matrix<br />
G. Tudosie1 , R. Vahldieck1 , A. C. Lu2 1 2 ETH Zurich, Zurich, Switzerland, Singapore<br />
Institute of Manufacturing Technology,<br />
Singapore, Singapore<br />
TH1D-04: Architecture for Low Cost<br />
Electronically Steered Phased Arrays<br />
M. Sanchez-Barbetty, R. W. Jackson<br />
University of Massachusetts at Amherst,<br />
Amherst, United States<br />
TH1D-05: An Electronically Scanned Array<br />
with 180° Scanning Range Using Coupled<br />
Phase-Locked Loops<br />
S. Yan, T. Chu<br />
National Taiwan University, Taipei, Taiwan<br />
TH1D-06: Millimeter-Wave Substrate<br />
Integrated Waveguide Multi-Beam<br />
Antenna Based on the Modified R-KR<br />
Lens<br />
Y. Cheng, W. Hong<br />
Southeast University, Nanjing, China<br />
TH1E: History of MIC/MMIC<br />
Inventions - I (Special)<br />
George D. Vendelin, National Central University<br />
Ray Pengelly, Cree Wireless Devices<br />
Room: A315/316<br />
TH1E-01: Five Years at Texas Instruments:<br />
1963 – 1968<br />
G. D. Vendelin<br />
National Central University, JhongLi City,<br />
Taiwan<br />
TH1E-02: COMPACT—Microwave Circuit<br />
Optimization through Commercial<br />
Timesharing<br />
L. Besser<br />
Besser Associates, Mountain View, United<br />
States<br />
TH1E-03: Applied High Frequency<br />
Electromagnetic Analysis - A Historical<br />
Perspective<br />
J. Rautio<br />
Sonnet Software, North Syracuse, United<br />
States<br />
TH1E-04: The MERA <strong>Program</strong>, an MMIC<br />
Pioneer<br />
T. Hyltin<br />
United States<br />
TH1E-05: Microwave Power Generation<br />
at 9 GHz in Hybrid Microwave Integrated<br />
Circuits<br />
B. T. Vincent, Jr.<br />
United States<br />
08:00 08:10<br />
08:20 08:30<br />
08:40 08:50<br />
09:00 09:10<br />
09:20<br />
09:30<br />
THURSDAY<br />
39
40<br />
THURSDAY InTERACTIVE FoRUM 09:30-11:30<br />
THP1A<br />
Field Analysis and Guided Waves<br />
THP1A-01: Source Stirring Technology for<br />
Automotive Antenna Measurement<br />
M. Albrecht 1 , J. Luy 1 , P. Russer 2<br />
1 Daimler AG, Ulm, Germany, 2 Technische<br />
Universität München, München, Germany<br />
THP1A-02: On The Slow Wave Behaviour<br />
of the Shielded Mushroom Structure<br />
F. Elek, G. V. Eleftheriades<br />
University of Toronto, Toronto, Canada<br />
THP1A-03: Far Field Measurement on a<br />
Ka-band Substrate-integrated Waveguide<br />
Antenna Array with Polarization<br />
Multiplexing<br />
K. Kuhlmann, K. Rezer, A. F. Jacob<br />
Technische Universität Hamburg-Harburg,<br />
Hamburg, Germany<br />
THP1A-04: Dielectric Resonance in<br />
Composites Filled with Metal-coated<br />
Microspheres<br />
J. Liu, N. Bowler<br />
Iowa State University, Ames, United States<br />
THP1B<br />
Frequency-Domain Techniques<br />
THP1B-01: Complex-Domain Mapping for<br />
Evaluating Troublesome Integrals in Fast<br />
Full-Wave Integral Equation Solvers<br />
J. Lee, J. White<br />
Massachusetts Institute of Technology,<br />
Cambridge, United States<br />
THP1B-02: Evaluation of Electrical<br />
Properties for Complex Mixtures with a<br />
Periodic Technique<br />
H. Wu, D. Wu, J. Chen, R. Liu<br />
University of Houston, Houston, United States<br />
THP1C<br />
Time-Domain Techniques<br />
THP1C-01: Analyzing Broad-Band<br />
Electromagnetics Problems with<br />
Commercial Software—Time Domain<br />
versus Frequency Domain<br />
E. L. Holzman1 , W. S. Nelson1 , B. C. Swift1 , J.<br />
R. Willhite2 , S. Hegde2 1Northrop Grumman Corporation, Baltimore,<br />
United States, 2Sonnet Software, Syracuse,<br />
United States<br />
THP1C-02: An FDTD-Based Tool for<br />
Simulation of Nonlinear Interactions of<br />
Guided Waves<br />
A. Marandi, P. P. So, T. E. Darcie<br />
University of Victoria, Victoria, Canada<br />
THP1C-03: Optimisation of the<br />
Homogenization of Tissues using the<br />
Adjoint Method and the FDTD<br />
J. Silly-Carette 1 , D. Lautru 2 , A. Gati 1 , M.<br />
Wong 1 , J. Wiart 1 , V. Fouad Hanna 2<br />
1 Orange Labs, Issy Les Moulineaux Cedex<br />
9, France, 2 Université Pierre et Marie Curie<br />
– Paris 6, Paris, France<br />
THP1C-04: A General Method for<br />
Introducing Subgrids into High-Order<br />
FDTD: Formulation and Microwave<br />
Applications<br />
R. B. Armenta, C. D. Sarris<br />
University of Toronto, Toronto, Canada<br />
THP1C-05: An Accurate and Stable Fourth<br />
Order Finite Difference Time Domain<br />
Method<br />
J. L. Wilson 1 , C. Wang 1 , S. Yang 1 , A. E. Fathy 1 ,<br />
Y. W. Kang 2<br />
1 University of Tennessee, Knoxville, United<br />
States, 2 Spallation Neutron Source, Oak Ridge,<br />
United States<br />
THP1D<br />
CAD Algorithms and Techniques<br />
THP1D-01: Perfectly Calibrated Internal<br />
Ports in EM Analysis of Planar Circuits<br />
J. C. Rautio, Sonnet Software<br />
North Syracuse, United States<br />
THP1D-02: Space Mapping with<br />
Distributed Fine Model Evaluation for<br />
Optimization of Microwave Structures<br />
and Devices<br />
S. Koziel, J. W. Bandler<br />
McMaster University, Hamilton, Canada<br />
THP1D-03: Topology Optimization<br />
Applied to the Design of a Dual-mode<br />
Filter Including a Dielectric Resonator<br />
H. Khalil1 , N. Delhote1 , S. Bila1 , M. Aubourg1 ,<br />
S. Verdeyme1 , J. Puech2 , L. Lapierre2 , C.<br />
Delage3 , T. Chartier4 1 2 XLIM, Limoges, France, CNES, Toulouse,<br />
France, 3CTTC, Limoges, France, 4 SPCTS,<br />
Limoges, France<br />
THP1D-04: Modeling Device<br />
Manufacturing Uncertainty in<br />
Electromagnetic Simulations<br />
L. R. de Menezes, A. O. Paredes, H. Abdalla<br />
Jr., G. A. Borges<br />
Universidade de Brasília, Brasília, Brazil<br />
THP1D-05: Modeling of Arbitrary-Order<br />
Mutual Coupling<br />
L. Han, K. Wu<br />
École Polytechnique de Montréal, Montréal,<br />
Canada<br />
THP1D-06: Time Domain Sensitivity of<br />
Non Linear Circuits via Wavelet Transform<br />
S. Barmada, A. Musolino, M. Raugi, M. Tucci<br />
University of Pisa, Pisa, Italy<br />
THP1D-07: RF Design Methodology for<br />
Design-Cycle-Time Reduction using<br />
Parameterization of Embedded Passives<br />
on Multilayer Organic Substrates<br />
S. Min1 , C. Seo1 , A. M. Yepes1 , C. Ward1 , S.<br />
Dalmia1 , G. White1 , M. Swaminathan1 , 1<br />
1Jacket Micro Devices, Atlanta, United States,<br />
2Georgia Institute of Technology, Atlanta,<br />
United States<br />
THP1D-08: Scalable Parallel Matrix<br />
Solver for Steady State Analysis of Large<br />
Nonlinear Circuits<br />
N. Soveiko1 , M. Nakhla1 , R. Achar1 , E. Gad2 1Carleton University, Ottawa, Canada,<br />
2University of Ottawa, Ottawa, Canada
THURSDAY THP1 — HAll A3 09:30-11:30<br />
THP1E<br />
Linear Device Modeling<br />
THP1E-01: Extraction of an Extrinsic<br />
Parasitic Network for Accurate mm-Wave<br />
FET Scalable Modeling on the Basis of<br />
Full-Wave EM Simulation<br />
D. Resca1 , A. Raffo2 , A. Santarelli1 , G.<br />
Vannini2 , F. Filicori1 1University of Bologna, Bologna, Italy,<br />
2University of Ferrara, Ferrara, Italy<br />
THP1E-02: A New Method for<br />
Determining the Gate Resistance and<br />
Inductance of GaN HEMTs Based on the<br />
Extrema Points of Z11 Curves<br />
J. A. Reynoso-Hernández, J. E. Zúñiga-<br />
Juárez, A. Zárate-de Landa<br />
CICESE, Ensenada, México<br />
THP1F<br />
Nonlinear Device Modeling<br />
THP1F-01: A Scalable High Power<br />
Nonlinear HBT Model for a 28v HvHBT<br />
X. Zhang 1 , F. Chau 1 , B. Lin 1 , X. Sun 1 , W. Ma 1 , P.<br />
Hu 1 , J. Yao 1 , C. Lee 1 , 2<br />
1 WJ Communications, San Jose, United States,<br />
2 National Chiao Tung University, Hsinchu,<br />
Taiwan<br />
THP1F-02: RF Large-Signal Model for<br />
SiO2/AlGaN/GaN MOSHFETs<br />
J. Deng1 , W. Wang1 , S. Halder1 , W. R. Curtice1 ,<br />
J. C. Hwang1 , V. Adivarahan2 , A. Khan2 1Lehigh University, Bethlehem, United States,<br />
2University of South Carolina, Columbia,<br />
United States<br />
THP1F-03: A New Empirical Model for<br />
the Characterization of Low-Frequency<br />
Dispersive Effects in FET Electron Devices<br />
Accounting for Thermal Influence on the<br />
Trapping State<br />
A. Raffo1 , V. Vadalà1 , G. Vannini1 , A.<br />
Santarelli2 1University of Ferrara, Ferrara, Italy,<br />
2University of Bologna, Bologna, Italy<br />
THP1F-04: Harmonic Balance Simulation<br />
of a New Physics Based Model of the<br />
AlGaN/GaN HFET<br />
H. Yin, D. Hou, G. L. Bilbro, R. J. Trew<br />
North Carolina State University, Raleigh,<br />
United States<br />
THP1G<br />
Nonlinear Circuit Analysis and System<br />
Simulation<br />
THP1G-01: A Piecewise Transistor-Level<br />
Simulation Technique for the Steady<br />
State and Phase Noise Analysis of Integer<br />
N PLLs<br />
B. Wang, E. Ngoya<br />
University of Limoges, Limoges, France<br />
THP1G-02: Evaluation of Nonlinear<br />
Distortion in ADCs Using Multisines<br />
P. M. Cruz 1 , N. B. Carvalho 1 , K. A. Remley 2<br />
1 IT-Universidade de Aveiro, Aveiro, Portugal,<br />
2 NIST , Boulder, United States<br />
THP1G-03: An Orthogonal Lookuptable<br />
Decomposition for Accurate IMD<br />
Prediction in Power Amplifier with<br />
Memory<br />
C. Quindroit, E. Ngoya, A. Bennadji, J. Nébus<br />
University of Limoges, Limoges, France<br />
THP1G-04: Comparison of Evaluation<br />
Criteria for Power Amplifier Behavioral<br />
Modeling<br />
P. N. Landin 1 , 2 , M. Isaksson 1 , P. Händel 2 , 3<br />
1 University of Gävle, Gävle, Sweden, 2 Royal<br />
Institute of Technology, Stockholm, Sweden,<br />
3 Royal Institute of Technology, Stockholm,<br />
Sweden<br />
THP1G-05: Low-Pass Equivalent Feedback<br />
Topology for Power Amplifier Modeling<br />
T. R. Cunha1 , J. C. Pedro1 , E. G. Lima2 1Universidade de Aveiro, Aveiro, Portugal,<br />
2Politecnico di Torino, Torino, Italy<br />
THP1G-06: Analysis and Reduction of the<br />
Oscillator Phase Noise from the variance<br />
of the Phase Deviations, Determined with<br />
Harmonic Balance<br />
S. Sancho, F. Ramírez, A. Suárez<br />
University of Cantabria, Santander, Spain<br />
THP1G-07: A Novel Measurement Based<br />
Method Enabling Rapid Extraction of<br />
an RF Waveform Look-up Table Based<br />
Behavioral Model<br />
S. P. Woodington1 , T. Williams1 , H. Qi1 , D.<br />
Williams2 , L. Pattison2 , A. Patterson2 , J. Lees1 ,<br />
J. Benedikt1 , P. Tasker1 1Cardiff University, Cardiff, United Kingdom,<br />
2Mimix Europe, Belfast, United Kingdom<br />
THP1H<br />
Microwave Photonics<br />
THP1H-01: Phase Modulated Fiber-optic<br />
Link with High Dynamic Range<br />
Y. Li 1 , P. Herczfeld 2 , A. Rosen 2<br />
1 University of Massachusetts at Dartmouth,<br />
Dartmouth, United States, 2 Drexel University,<br />
Philadelphia, United States<br />
THURSDAY<br />
4
4<br />
10:10<br />
10:20 10:30<br />
10:40 10:50<br />
11:00 11:10<br />
11:20 11:30<br />
11:40<br />
THURSDAY TECHnICAl SESSIonS 10:10-11:50<br />
TH2A: Filter Realization Techniques<br />
Ming Yu, COM DEV<br />
Vicente E. Boria, Universidad Politécnica de<br />
Valencia<br />
TH2B: Advanced High-Efficiency<br />
Power Amplifier Concepts<br />
Anh-Vu Pham, UC Davis<br />
Leo de Vreede, TU Delft<br />
TH2C: Passive Semiconductor<br />
Microwave Components<br />
Peter Russer, Technical University of Munich<br />
Magdalena Salazar - Palma, Universidad<br />
Carlos III de Madrid<br />
Room: A311<br />
Room: A312<br />
Room: A313<br />
TH2A-01: New Concepts for Dielectric TH2B-01: Switch-Mode Amplifier ICs with TH2C-01: A CMOS 3-dB Directional<br />
Multi-Mode Resonators with Branches over 90% Efficiency for Class-S PAs using Coupler Using Edge-Coupled Meandered<br />
M. Höft<br />
GaAs-HBTs and GaN-HEMTs<br />
Synthetic Transmission Lines<br />
Panasonic Electronic Devices Europe GmbH, C. Meliani, J. Flucke, A. Wentzel, J. Würfl, W. M. Chiang, H. Wu, C. C. Tzuang<br />
Lueneburg, Germany<br />
Heinrich, G. Tränkle<br />
Ferdinand-Braun-Institut für<br />
Höchstfrequenztechnik, Berlin, Germany<br />
National Taiwan University, Taipei, Taiwan<br />
TH2A-02: Multilayer Folded-Waveguide TH2B-02: An All-Digital CMOS 915<br />
TH2C-02: A 60 GHz High-q Tapered<br />
Dual-Band Filter.<br />
MHz ISM Band 802.15.4 / ZigBee<br />
Transmission Line Resonator in 90nm<br />
S. K. Alotaibi, J. Hong, Z. Hao<br />
Transmitter with a Noise Spreading Direct CMOS<br />
Heriot-Watt University , Edinburgh, United quantization Algorithm<br />
C. Marcu, A. M. Niknejad<br />
Kingdom<br />
J. Rode, T. Hung, P. Asbeck<br />
University of California at Berkeley, Berkeley,<br />
University of California-San Diego, La Jolla,<br />
United States<br />
United States<br />
TH2A-03: Theoretical Investigation<br />
of Microwave Breakdown Ignition in<br />
OMUx Filters. A 3D Numerical Modeling<br />
Approach<br />
K. Frigui1 , D. Baillargeat1 , S. Verdeyme1 , S.<br />
Bila1 , A. Catherinot2 , J. Puech3 , D. Pacaud4 ,<br />
J.J. Herren4 1 2 XLIM, Limoges, France, SPCTS, Limoges,<br />
France, 3CNES, Toulouse, France, 4 TH2B-03: A Highly Efficient Chireix<br />
Amplifier Using Adaptive Power<br />
Combining<br />
J. Qureshi<br />
Thales Alenia<br />
Space, Toulouse, France<br />
1 , R. Lui1 , A.J.M. de Graaw2 , M. P.<br />
van der Heijden2 , J. Gajadharsing3 , L. C. de<br />
Vreede1 , A. J. de Graauw2 1Delft University of Technology, Delft, The<br />
Netherlands, 2NXP Semiconductor Research,<br />
Eindhoven, The Netherlands, 3 TH2C-03: A Reconfigurable MEMS-less<br />
CMOS Tuner for Software Defined Radio<br />
L. Rabieirad, S. Mohammadi<br />
Purdue University, West Lafayette, United<br />
States<br />
NX<br />
TH2A-04: Sequential Tuning of Coupled TH2B-04: A Novel Doherty Amplifier for TH2C-04: Three-Stage Bandpass Filters<br />
Resonator Filters Using Hilbert Transform Enhanced Load Modulation and Higher Implemented in Silicon IPD Technology<br />
Derived Relative Group Delay<br />
Bandwidth<br />
using Magnetic Coupling between<br />
N. Zahirovic, R. R. Mansour<br />
M. Sarkeshi, O. B. Leong<br />
Resonators<br />
University of Waterloo, Waterloo, Canada National University of Singapore, Singapore, R. C. Frye<br />
Singapore<br />
1 , K. Liu2 , Y. Lin3 1RF Design Consulting, LLC, Berkeley Heights,<br />
United States, 2STATS ChipPAC, Inc., Tempe,<br />
United States, 3STATS ChipPAC, Ltd., Singapore,<br />
Singapore<br />
TH2A-05: Innovative Manufacturing<br />
Technology for RF Passive Devices<br />
Combining Electroforming and CFRP<br />
Application<br />
S. Liberatoscioli1 , M. Mattes2 , M. Guglielmi3 ,<br />
D. Schmitt3 , C. Ernst3 TH2B-05: Design and Performance Of TH2C-05: Dummy Fill Insertion<br />
Sequential Power Amplifiers<br />
Considering the Effect on High-Frequency<br />
T. Lehmann, R. Knoechel<br />
Characteristics of Spiral Inductors<br />
University of Kiel, Kiel, Germany<br />
A. Tsuchiya, H. Onodera<br />
1APCO Technologies, Vevey, Switzerland,<br />
2 3 LEMA/EPFL, Lausanne, Switzerland, ESA-<br />
ESTEC, Noordwijk, The Netherlands<br />
TH2A-06: Size-Reduced Tunable Hairpin<br />
Bandpass Filter using Aperture Coupling<br />
with Enhanced Selectivity and Constant<br />
Bandwidth<br />
H. Moon, S. Choi, Y. Cho, S. Yun<br />
Sogang University, Seoul, Republic of Korea<br />
Kyoto University, Kyoto, Japan
THURSDAY TECHnICAl SESSIonS 10:10-11:50<br />
TH2D: Retrodirective Phased Arrays &<br />
Smart Antennas<br />
Chris Rodenbeck, Sandia National<br />
Laboratories<br />
Kiyo Tomiyasu, IEEE Life Fellow<br />
Room: A314<br />
TH2D-01: quadrant Switching PLL Phase<br />
Conjugator for Retrodirective Antenna<br />
Applications<br />
N. B. Buchanan, V. F. Fusco<br />
Queen’s University of Belfast, Belfast, United<br />
Kingdom<br />
TH2D-02: A Sparse Conformal<br />
Retrodirective Array for UAv Application<br />
J. S. Sun, D. S. Goshi, T. Itoh<br />
University of California-Los Angeles, Los<br />
Angeles, United States<br />
TH2D-03: A Planar Circular Phase<br />
Conjugated Array with Full Scanning<br />
Range<br />
L. Chiu, Q. Xue, C. Chan<br />
City University of Hong Kong, Hong Kong,<br />
Hong Kong<br />
TH2D-04: A 2.4 GHz 1-Dimensional Array<br />
Antenna Driven by vector Modulators<br />
N. Tohmé1 , J. Paillot1 , D. Cordeau1 , S. Cauet1 ,<br />
Y. Mahé2 , P. Ribardière1 1University of Poitiers, Poitiers, France,<br />
2University of Nantes, Nantes, France<br />
TH2D-05: CRLH Leaky-Wave Real-<br />
Time Spectrum Analyzer (RTSA) with<br />
Unrestricted Time-Frequency Resolution<br />
S. Gupta, C. Caloz, S. Abielmona<br />
École Polytechnique de Montréal, Montréal,<br />
Canada<br />
TH2D-06: Self-Phasing Receive Array for<br />
RF-Sensing and Tracking Applications<br />
R. N. Pang, M. K. Watanabe, W. A. Shiroma<br />
University of Hawaii at Manoa, Honolulu,<br />
United States<br />
TH2E: History of MIC/MMIC<br />
Inventions - II (Special)<br />
George D. Vendelin, National Central<br />
University<br />
Ray Pengelly, Cree Wireless Devices<br />
Rooms: A315/316<br />
TH2E-01: The Development of a Solid<br />
State Transceiver for an Active Element<br />
Ground Based L-Band Phased Array Radar<br />
R. W. Sudbury<br />
MIT Lincoln Laboratory, Lexington, United<br />
States<br />
TH2E-02: Development of Silicon-based<br />
Millimeter-Wave Monolithic Integrated<br />
Circuits at National Taiwan University<br />
H. Wang<br />
National Taiwan University, Taipei, Taiwan<br />
TH2E-03: Early MMIC Developments at<br />
Texas Instruments<br />
G. Brehm<br />
TriQuint Semiconductor, Richardson, United<br />
States<br />
TH2E-04: Early GaAs FET Monolithic<br />
Microwave Integrated Circuit<br />
Developments for Radar Applications at<br />
Plessey, UK<br />
R. Pengelly<br />
Cree, Inc., Durham, United States<br />
10:10 10:20<br />
10:30 10:40<br />
10:50 11:00<br />
11:10 11:20<br />
11:10<br />
11:30<br />
THURSDAY<br />
43
44<br />
THURSDAY PAnEl, FoCUSED AnD SPECIAl SESSIonS<br />
TH1E 8:00-9:40 GWCC A315/316<br />
HISTORY OF MIC/MMIC INvENTIONS - I<br />
Chair: George D. Vendelin, Department of Electrical Engineering,<br />
National Central University<br />
Co-Chair: Dr. Ray Pengelly, Cree Wireless Devices<br />
Abstract:<br />
This session will review the history of the development of MIC/MMIC<br />
circuits that occurred at Texas Instruments 1964-1970 due to the<br />
MERA (Microwave Electronic Radar Applications) <strong>Program</strong>, which was<br />
a contract between TI and Wright Patterson Air Force Base to develop<br />
an X-Band solid-state radar. Many of the people who performed this<br />
work will give their recollections of the design of this benchmark<br />
system, including Tom Hyltin, the program manager.<br />
TH2E 10:10-11:50 GWCC A315/316<br />
HISTORY OF MIC/MMIC INvENTIONS - II<br />
Chair: George D. Vendelin, Department of Electrical Engineering,<br />
National Central University<br />
Co-Chair: Dr. Ray Pengelly, Cree Wireless Devices<br />
Abstract:<br />
This session will review the history of the development of MIC/MMIC<br />
circuits that occurred at Texas Instruments 1964-1970 due to the<br />
MERA (Microwave Electronic Radar Applications) <strong>Program</strong>, which was<br />
a contract between TI and Wright Patterson Air Force Base to develop<br />
an X-Band solid-state radar. Many of the people who performed this<br />
work will give their recollections of the design of this benchmark<br />
system, including Tom Hyltin, the program manager.<br />
TH3A 13:20-15:00 GWCC A311<br />
MICROACOUSTIC FRONTEND TECHNOLOGIES<br />
Chair: Clemens Ruppel, EPCOS AG<br />
Co-Chair: Robert Weigel, University of Erlangen-Nuremberg<br />
Abstract:<br />
This session addresses novel developments and future trends in the<br />
design of microwave acoustic components. The session starts with<br />
novel WCDMA duplexers; proceeds with ultra miniature ISM filters,<br />
FBAR oscillators, and highly stable SAW filters; and concludes with a<br />
new measurement technique for both SAW and BAW devices.<br />
THURSDAY 12:00-13:15 ROOM: A305<br />
AUTOMOTIvE RADAR: AN OPPORTUNITY AND A<br />
CHALLENGE FOR RF AND MICROWAvE ENGINEERS (IMS<br />
PANEL)<br />
Chair/Moderators: Ashok Bindra, Penton Media<br />
Panelists:<br />
• John Irza, The MathWorks<br />
• Jean-Pierre Lanteri, Tyco M/A-COM<br />
• Dr. Johann-Friedrich Luy, Daimler<br />
• Dr. Colin Warwick, Agilent Technologies<br />
Sponsors: MTT-9 and MTT-16<br />
Abstract:<br />
The World Health Organization estimates deaths due to automotive<br />
accidents numbered over 1,200,000 in 2004 worldwide. These<br />
fatalities, plus injuries (20-50 million) and staggering economic costs<br />
(half a trillion dollars), are motivating automotive manufacturers to<br />
go beyond passive safety systems such as airbags, and to develop<br />
active safety systems such as collision avoidance radar. In common<br />
risk situations, an alert that improves driver reaction time by as little<br />
as two seconds can reduce collision probability from almost 100%<br />
down to below 5%. Direct braking intervention has the potential to<br />
reduce this even further. This panel will highlight the opportunities<br />
and challenges (technical, societal, and economic) for you, the RF<br />
and microwave engineering community, to help meet this need by<br />
repurposing radar techniques.
10:10-11:50 GWCC A402<br />
TRANSITION: MOvING YOUR CAREER TO THE NExT<br />
FRONTIER<br />
Chair: R. Henderson, University of Texas at Dallas<br />
Co-Chair: P. Molina Gaudó, University of Zaragoza, Spain<br />
Sponsor: IEEE MTT-S GOLD Committee<br />
THURSDAY GolD PAnEl SESSIonS<br />
Are you contemplating a career move in which you’re not very<br />
certain? Is it a transition from industry to academia or vice versa?<br />
Or have you become interested in opportunities at funding agencies<br />
(e.g. NSF, European Funding Agency) or research appointments? Our<br />
distinguished panel will speak about moving your microwave career<br />
in an undefined path. The opportunities available to microwave<br />
engineers are very broad and this session will speak to the methods and<br />
actions that put one in the position to transition his or her career. The<br />
IEEE MTT-S GOLD Committee is glad to invite all of its GOLD members<br />
as well as anyone who is interested in learning and discussing plans<br />
for transitioning your career!<br />
Panel: The panel of speakers will include MTT-S members who have<br />
transitioned from industry to academia in the US, Europe and Asia.<br />
In addition, we will hear from those who have left academia to start<br />
profitable companies that service the MTT community and those who<br />
work as program directors at national funding agencies.<br />
13:20-15:00 GWCC A402<br />
CREATIvITY IN MICROWAvE RESEARCH AND<br />
DEvELOPEMENT<br />
Chair: P. Molina Gaudó, University of Zaragoza, Spain<br />
Co-Chair: R. Henderson, University of Texas at Dallas<br />
Sponsor: IEEE MTT-S GOLD Committee<br />
Do you consider your work as being creative? Do you consider yourself<br />
a creative person? Do you really think it is important to be creative in<br />
microwave engineering? Why is creativity so highly appreciated? Are<br />
research and creativity two sides of the same coin? This panel intends<br />
to address the issue of creativity and technology particularly focusing<br />
on research and development in MTT areas of interest. At the final<br />
part of the panel session discussion between attendees and speakers<br />
will be strongly supported and a sufficient time-slot secured from<br />
organizers to allow for fruitful discussion on the floor.<br />
Panel: The panel of speakers will include highly creative MTT-S<br />
members who are senior in the industry and hold a number of patents<br />
or have started their own company. In addition, representatives who<br />
have been program directors at NSF with innovative projects in the<br />
MTT-S field will be sharing their ideas.<br />
THURSDAY<br />
45
46<br />
13:20<br />
13:30<br />
13:40<br />
13:50<br />
14:00<br />
14:10<br />
14:20<br />
14:30<br />
14:40<br />
14:50<br />
THURSDAY TECHnICAl SESSIonS 13:20-15:00<br />
TH3A: Microacoustic Front-end<br />
Technologies (Special)<br />
Clemens Ruppel, EPCOS AG<br />
Robert Weigel, University of Erlangen-<br />
Nuremberg<br />
Room: A311<br />
TH3A-01: BAW/SAW/IPD Hybrid Type<br />
Duplexer with Rx Balanced Output for<br />
WCDMA Band I<br />
T. Nishihara 1 , M. Iwaki 1 , G. Endo 2 , X. Mi 1 , S.<br />
Taniguchi 1 , M. Ueda 1 , Y. Satoh 1<br />
1 Fujitsu Laboratories Ltd., Akashi, Japan, 2 Fujitsu<br />
Media Devices Limited, Yokohama, Japan<br />
TH3A-02: Selection of Micro-Acoustic<br />
Technologies for the Realization of Singleended<br />
/ Balanced WCDMA Duplexers<br />
T. Metzger, M. Maier, H. Klamm, Z. Kovats, D.<br />
Ritter, G. Maurer, P. Selmeier<br />
EPCOS AG, Munich, Germany<br />
TH3A-03: An Ultra-Miniature, Low Cost<br />
Single Ended to Differential Filter for ISM<br />
Band Applications<br />
S. R. Gilbert, R. Parker, M. K. Small, U. B. Koelle,<br />
J. D. Larson III, R. C. Ruby<br />
Avago Technologies, San Jose, United States<br />
TH3A-04: A 2 GHz Oscillator using a<br />
Monolithically Integrated AlN TFBAR<br />
M. Norling 1 , J. Enlund 2 , I. Katardjiev 2 , S.<br />
Gevorgian 1 , 3<br />
1 Chalmers University of Technology, Göteborg,<br />
Sweden, 2 Uppsala University, Uppsala, Sweden,<br />
3 Ericsson AB, Mölndal, Sweden<br />
TH3A-05: Miniature Surface Acoustic Wave<br />
Devices with Excellent Temperature Stability<br />
using High Density Metal Electrodes and<br />
SiO2 film<br />
M. Kadota, T. Nakao, K. Nishiyama, S. Kido,<br />
M.Kato, R.Omote, H.Yonekura, N.Takada, R.Kita,<br />
Y.Nakai, D.Yamamoto<br />
Murata MFG. Co. Ltd., Kyoto, Japan<br />
TH3A-06: A Fast Scanning Laser Probe Based<br />
on Sagnac Interferometer for RF Surface<br />
and Bulk Acoustic Wave Devices<br />
K. Hashimoto 1 , K. Kashiwa 1 , T. Omori 1 , M.<br />
Yamaguchi 1 , O. Takano 2 , S. Meguro 2 , K.<br />
Akahane 2<br />
1 Chiba University, Chiba, Japan, 2 Neoark Co. Ltd,<br />
Hachi-Ohji, Japan<br />
TH3B: Power Amplifier Design<br />
Techniques for Millimeter-Wave and<br />
Multi-Band Applications<br />
Chang-Ho Lee, Samsung<br />
Debasis Dawn, Georgia Institute of<br />
Technology<br />
Room: A312<br />
TH3B-01: 35 dBm, 35 GHz Power Amplifier<br />
MMICs using 6-inch GaAs pHEMT<br />
Commercial Technology<br />
S. J. Mahon, A. Dadello, A. P. Fattorini, A.<br />
Bessemoulin, J. T. Harvey<br />
Mimix Asia, North Sydney, Australia<br />
TH3B-02: 17-dB-Gain CMOS Power Amplifier<br />
at 60GHz<br />
D. Dawn, S. Sarkar, P. Sen, B. Perumana, D. Yeh,<br />
S. Pinel, J. Laskar<br />
Georgia Institute of Technology, Atlanta, United<br />
States<br />
TH3B-03: q-, v-, and W-Band Power<br />
Amplifiers Utilizing Coupled Lines for<br />
Impedance Matching<br />
M. Abbasi, H. Zirath, I. Angelov<br />
Chalmers University of Technology, Göteborg,<br />
Sweden<br />
TH3B-04: A Novel Reconfigurable quadband<br />
Power Amplifier with Reconfigurable<br />
Biasing Network and LTCC Substrates<br />
A. Fukuda, H. Okazaki, S. Narahashi<br />
NTT DoCoMo, Inc., Yokosuka-City, Japan<br />
TH3B-05: A variable Supply, (2.3-2.7)GHz<br />
Linear Power Amplifier Module for IEEE<br />
802.16e and LTE Applications using E-mode<br />
pHEMT Technology<br />
Y. H. Chow, C. K. Yong, J. Lee, H. K. Lee, J.<br />
Rajendran, S. H. Khoo, M. L. Soo, C. F. Chan<br />
Avago Technologies Malaysia, Bayan Lepas,<br />
Malaysia<br />
TH3B-06: A 2.4-GHz HBT Power Amplifier<br />
Using an On-Chip Transformer as an Output<br />
Matching Network<br />
H. Seol 1 , C. Park 2 , D. Lee 3 , M. Park 4 , S. Hong 1<br />
1 Korea Advanced Institute of Science and<br />
Technology, Daejeon, Republic of Korea, 2 Hynix<br />
Semiconductor Inc., Icheon, Republic of Korea,<br />
3 Georgia Institute of Technology, Atlanta, United<br />
State<br />
TH3C: Innovative Substrate<br />
Techniques for Passive Integration<br />
Nickolas Kingsley, Auriga Measurement<br />
Systems<br />
Jesse Taub, Consultant<br />
Room: A313<br />
TH3C-01: Broadband Half-Mode Substrate<br />
Integrated Waveguide (HMSIW) Wilkinson<br />
Power Divider<br />
Z. Zhang, K. Wu<br />
École Polytechnique Montréal, Montréal, Canada<br />
TH3C-02: Substrate Integrated Waveguide<br />
Power Divider Based on Multimode<br />
Interference Imaging<br />
N. Yang, C. Caloz, K. Wu<br />
École Polytechnique Montréal, Montréal, Canada<br />
TH3C-03: A Compact Multilayered Magic-T<br />
in Microstrip Form and its Application to<br />
Microwave Sampler<br />
T. Ma, C. Chou<br />
National Taiwan University of Science and<br />
Technology, Taipei, Taiwan<br />
TH3C-04: Ultra Slow-Wave Periodic<br />
Transmission Line Using 3D Substrate<br />
Metallization<br />
Y. Zhang, H. Yang<br />
University of Illinois at Chicago, Chicago, United<br />
States<br />
TH3C-05: A Compact Highly-Selective Filter<br />
Inspired by Negative-Refractive-Index<br />
Transmission Lines<br />
R. Islam, G. V. Eleftheriades<br />
University of Toronto, Toronto, Canada<br />
TH3C-06: Compact H-Plane Waveguide<br />
Corners with very Wide Bandwidth<br />
S. Matsumoto 1 , M. Ohshima 2 , K. Fukata 2 ,<br />
T. Kawai 2 , I. Ohta 2 , M. Kishihara 3 , K. Iio 1 , T.<br />
Kashiwa 1<br />
1 Furuno Electric Co., Ltd., Nishinomiya, Japan,<br />
2 University of Hyogo, Himeji, Japan, 3 Okayama<br />
Prefectural University, Soja, Japan
THURSDAY TECHnICAl SESSIonS 13:20-15:00<br />
TH3D: Biological Effects and Medical<br />
Applications<br />
Mohammad-Reza Tofighi, Penn State<br />
University Harrisburg<br />
Arye Rosen, Drexel University<br />
Room: A314<br />
TH3D-01: On Design of a Low Power<br />
Wireless Hearing Aid Communication<br />
System<br />
G. S. Shaker1 , M. Nezhad-Ahmadi2 , S. Safavi-<br />
Naeini1 , G. Weale2 1University of Waterloo, Waterloo, Canada,<br />
2AMI Semiconductor Canada Co., Waterloo,<br />
Canada<br />
TH3D-02: Electrical Properties of Nude<br />
Rat Skin and Design of Implantable<br />
Antennas for Wireless Data Telemetry<br />
T. Karacolak, E. Topsakal<br />
Mississippi State University, Mississippi State,<br />
United States<br />
TH3D-03: Label Free Biosensors for<br />
Human Cell Characterization using Radio<br />
and Microwave Frequencies<br />
C. Dalmay, A. Pothier, P.Blondy, F.Lalloue,<br />
M.Jauberteau<br />
Limoges University, Limoges, France<br />
TH3D-04: High Frequency Wideband<br />
Permittivity Measurements of Biological<br />
Substances Using Coplanar Waveguides<br />
and Application to Cell Suspensions<br />
S. Seo 1 , T. Stintzing 1 , I. Block 2 , D. Pavlidis 1 , M.<br />
Rieke 1 , P. G. Layer 1<br />
1 Darmstadt University of Technology,<br />
Darmstadt, Germany, 2 University of Illinois at<br />
Urbana-Champaign, Urbana, United States<br />
TH3D-05: Two frequency Radar Sensor for<br />
Non-contact vital Signal Monitor<br />
J. Oum1 , D. Kim2 , S. Hong1 1Korea Advanced Institute of Science and<br />
Technology (KAIST), Daejeon, Republic of<br />
Korea, 2Chungnam National University,<br />
Daejeon , Republic of Korea<br />
TH3D-06: A Novel Liquid Antenna for<br />
Wearable Bio-monitoring Applications<br />
A. Traille, L. Yang, A. Rida, M. M. Tentzeris<br />
Georgia Institute of Technology, Atlanta,<br />
United States<br />
TH3E: Nonlinear Circuit Analysis and<br />
System Simulation<br />
José Carlos Pedro, University of Aveiro<br />
Vittorio Rizzoli, University of Bologna<br />
Room: A315/316<br />
TH3E-01: A CAD Procedure for MIMO<br />
Link Estimation by the Combination<br />
of Nonlinear, Electromagnetic and<br />
Propagation Analysis Techniques<br />
V. Rizzoli, A. Costanzo, P. Spadoni, F. Donzelli,<br />
D. Masotti, E. M. Vitucci<br />
University of Bologna, Bologna, Italy<br />
TH3E-02: quantifying Distortion of<br />
RF Power Amplifiers for Estimation of<br />
Predistorter Performance<br />
P. J. Draxler1 , 2 , A. Zhu3 , J. J. Yan2 , P. Kolinko2 ,<br />
D. F. Kimball2 , P. M. Asbeck2 1Qualcomm Inc, San Diego, United States,<br />
2University of California, San Diego, La Jolla,<br />
United States, 3University College Dublin,<br />
Dublin, Ireland<br />
TH3E-03: A Linearized Polar Transmitter<br />
for Wireless Applications<br />
P. M. Cabral1 , J. C. Pedro1 , J. A. Garcia2 , L.<br />
Cabria2 1Universidade de Aveiro, Aveiro, Portugal,<br />
2Universidad de Cantabria, Santander, Spain<br />
TH3E-04: Mismatch Detection and<br />
Compensation Algorithm with the<br />
Closed Form Solution for the LINC System<br />
Implementation<br />
S. Myoung1 , I. Lee2 , K. Lim3 , J. Yook1 , J.<br />
Laskar3 1Yonsei University, Seoul, Republic of Korea,<br />
2Kongju National University, Kongju, Republic<br />
of Korea, 3Georgia Institude of Technology,<br />
Atlanta, United States<br />
TH3E-05: Implementation of a volterra<br />
Behavioral Model for System Simulation<br />
S. A. Maas1 , J. C. Pedro2 1Applied Wave Research, El Segundo, United<br />
States, 2Institute of Telecommunications,<br />
University of Aveiro, Aveiro, Portugal<br />
TH3E-06: Nonlinear Analysis and Design<br />
of Frequency Selective Limiters Based on<br />
Parametric Circuits<br />
F. Ramírez1 , R. Melville2 , A. Suárez1 , J. S.<br />
Kenney3 1University of Cantabria, Santander,<br />
Spain, 2New Jersey Institute of Technology,<br />
Newark, United States, 3Georgia Institute of<br />
Technology, Atlanta, United States<br />
13:20 13:30<br />
13:40 13:50<br />
14:00 14:10<br />
14:20<br />
14:30<br />
14:40<br />
14:50<br />
THURSDAY<br />
47
48<br />
THURSDAY InTERACTIVE FoRUM 14:00-16:00<br />
THP2A<br />
Signal Generation<br />
THP2A-01: Microwave Pulse Generation<br />
using the Bragg Cutoff of a Nonlinear<br />
Transmission Line<br />
K. G. Lyon, E. C. Kan<br />
Cornell University, Ithaca, United States<br />
THP2A-02: An Eight-Phase voltage<br />
Controlled Oscillator with Reflection-<br />
Type Modulators in 0.18-Μμm CMOS<br />
Technology<br />
C. Lin, H. Chang<br />
National Central University, Jhongli, Taiwan<br />
THP2A-03: Low Phase Noise vCO using<br />
Microstrip Square Open Loop Multiple<br />
Split Ring Resonator<br />
J. Choi, C. Seo<br />
Soongsil University, Seoul, Republic of Korea<br />
THP2B<br />
Frequency Conversion and Control<br />
THP2B-01: High Power AlGaN/GaN<br />
Ku-Band MMIC SPDT Switch and Design<br />
Consideration<br />
B. Y. Ma, K. S. Boutros, J. B. Hacker, G. Nagy<br />
Teledyne Scientific Company, Thousand Oaks,<br />
United States<br />
THP2B-02: A 14~23 GHz CMOS MMIC<br />
Distributed Doubler with a 22-dB<br />
Fundamental Rejection<br />
K. Lin, J. Huang, J. Kuo, C. Lin, H. Wang<br />
National Taiwan University, Taipei, Taiwan<br />
THP2B-03: A 60-GHz Single-Balance Gate-<br />
Pumped Down-Conversion Mixer with<br />
Reduced-Size Rat-Race Hybrid on 130-nm<br />
CMOS Process<br />
C. Lien1 , P. Wu2 , K. Lin1 , H. Wang1 1National Taiwan University, Taipei, Taiwan,<br />
2Realtek Semiconductor Corporation, Hsinchu,<br />
Taiwan<br />
THP2B-04: An Even Harmonic Image<br />
Rejection Mixer using an Eight-Phase<br />
Polyphase Filter<br />
M. Shimozawa, K. Nakajima, H. Ueda, T.<br />
Tadokoro, N. Suematsu<br />
Mitsubishi Electric Corporation, Kamakura,<br />
Japan<br />
THP2B-05: An Ultra Low Power Analog<br />
Frequency Divider<br />
P. Sun1 , J. Jung1 , Y. Kim2 , D. Heo1 1Washington State University, Pullman,<br />
United States, 2Handong Global University,<br />
Pohang, Republic of Korea<br />
THP2C<br />
HF/vHF/UHF Technologies and<br />
Applications<br />
THP2C-01: A Novel Adaptive LDMOS<br />
Power Amplifier with Constant Efficiency<br />
for Wide Dynamic Power Levels Control<br />
K. Narendra1 , A. Mediano2 , C. Paoloni3 , E.<br />
Limiti3 1Motorola Technology, Penang, Malaysia,<br />
2University of Zaragoza, Zaragoza, Spain,<br />
3University of Roma Tor Vergata, Roma, Italy<br />
THP2C-02: Long Life Microwave<br />
Electrodeless Lamps for Projection<br />
Display and General Lighting Applications<br />
M. DeVincentis, G. Hollingsworth, R. Gilliard<br />
Luxim Corporation, Sunnyvale, United States<br />
THP2C-03: Underwater Motion and<br />
Physiological Sensing using UHF Doppler<br />
Radar<br />
N. Hafner, W. Massagram, V. M. Lubecke, O.<br />
Boric-Lubecke<br />
University of Hawaii at Manoa, Honolulu,<br />
United States<br />
THP2D<br />
High-Power Amplifiers<br />
THP2D-01: Characterization of Switch<br />
Mode LDMOS and GaN Power Amplifiers<br />
for Optimal Use in Polar Transmitter<br />
Architectures<br />
H. M. Nemati1 , C. Fager1 , U. Gustavsson2 , R.<br />
Jos3 , H. Zirath1 1Chalmers University of Technology,<br />
Gothenburg, Sweden, 2Ericsson AB,<br />
Stockholm, Sweden, 3NXP Semiconductors,<br />
Nijmegen , The Netherlands<br />
THP2D-02: A 120 Watt, Two-Stage,<br />
LDMOS Power Amplifier IC at 1.8 GHz for<br />
GSM/EDGE Applications<br />
L. Zhao, G. Bigny, J. Jones<br />
Freescale Semiconductor, Tempe, United<br />
States<br />
THP2D-03: Digital Baseband Injection<br />
Techniques to Reduce Spectral Regrowth<br />
in Power Amplifier<br />
M. Xiao, P. Gardner<br />
University of Birmingham, Birmingham,<br />
United Kingdom<br />
THP2D-04: Wide Bandwidth Adaptive<br />
Digital Predistortion of Power Amplifiers<br />
using Reduced Order Memory Correction<br />
R. N. Braithwaite<br />
Powerwave Technologies, Santa Ana, United<br />
States<br />
THP2D-05: Novel Approach for Static<br />
Nonlinear Behavior Identification in RF<br />
Power Amplifiers Exhibiting Memory<br />
Effects<br />
O. Hammi 1 , S. Carichner 2 , B. Vassilakis 2 , F. M.<br />
Ghannouchi 1<br />
1 University of Calgary, Calgary, Canada,<br />
2 Powerwave Technologies, Inc., Santa Ana,<br />
United States
THURSDAY THP2 — HAll A3 14:00-16:00<br />
THP2E THP2F THP2G THP2H<br />
THP2E-01: A Miniature LNA-Filter GPS<br />
Receiver Front-end Module Combining FBAR<br />
and E-mode pHEMT Technology<br />
Y. H. Chow 1 , H. T. Tan 1 , S. C. Low 1 , M.<br />
Mutanizam 1 , T. W. Lee 1 , C. C. Lim 1 , S. H. Khoo 1 , Y.<br />
Y. Liew 1 , W. K. Kim 2<br />
1 Avago Technologies Malaysia, Penang, Malaysia,<br />
2 Avago Technologies Korea Ltd., Seoul, Republic of Korea<br />
THP2F-01: Gunn Oscillator Modeling<br />
and Second Harmonic Output Power<br />
Optimization at 76 GHz<br />
T. Kiuru 1 , A. M. Safwat 2 , J. Mallat 1 , A. V.<br />
Räisänen 1<br />
1 TKK Helsinki University of Technology, Espoo,<br />
Finland, 2 Ain Shams University, Cairo, Egypt<br />
THP2F-02: Application of Terahertz Imaging<br />
to Osteoarthritis<br />
E. Pickwell-MacPherson 1 , WC Kan1 , W. Lee1 , V. P.<br />
Wallace 2 , W.H. Cheung 1<br />
1Chinese University of Hong Kong, Hong Kong,<br />
Hong Kong, 2University of Western Australia,<br />
Perth, Australia<br />
THP2F-03: Full Coverage Millimeter Wave<br />
Primary Noise Standards for 18-170 GHz<br />
D. R. Vizard 1 , P. Foster 2 , B. Lunn3 , S. Cherry1 1 2 VivaTech LLC, United States, Maas Ltd, Malvern,<br />
United Kingdom, 3Amideon Systems, Limerick,<br />
Ireland<br />
THP2F-04: A 60GHz High Isolation SPDT<br />
MMIC Switch Using Shunt pHEMT Resonator<br />
Y. Tsukahara, H. Amasuga, S. Goto, T. Oku, T.<br />
Ishikawa<br />
Mitsubishi Electric Corporation, Itami, Japan<br />
THP2F-05: A Heterostructure Barrier Charge<br />
Swing Device for Frequency Multiplication<br />
at 306 GHz<br />
B. I. Nicolae 1 , M. Ruf2 , J. Schür2 , L. Schmidt 2 , H.<br />
L. Hartnagel 1<br />
1Technical University of Darmstadt, Darmstadt,<br />
Germany, 2University of Erlangen-Nuremberg,<br />
Erlangen, Germany<br />
THP2F-06: Ka-Band Surface-Mount<br />
Directional Coupler Fabricated using Micro-<br />
Rectangular Coaxial Transmission Lines<br />
K. J. Vanhille 1 , J. Rollin 1 , S. Rondineau 2 , J. W.<br />
O’Brien 2 , J. L. Wood 3 , Z. Popovic 2<br />
1Rohm and Haas Electronic Materials LLC,<br />
Blacksburg, United States, 2University of<br />
Colorado, Boulder, United States, 3Virginia Tech,<br />
Blacksburg, United<br />
THP2F-07: A W-band quasi-optical Doppler<br />
Radar for Detection of very Slow-Moving<br />
Targets<br />
J. Y. Suen, R. S. Singh, Z. D. Taylor, E. R. Brown<br />
University of California-Santa Barbara, Santa<br />
Barbara, United States<br />
THP2F-08: A CMOS-Compatible Schottky-<br />
Barrier Diode Detector for 60-GHz<br />
Amplitude-Shift Keying (ASK) Systems<br />
M. Ko, H. Kang, W. Choi<br />
Yonsei University, Seoul, Republic of Korea<br />
THP2F-09: Average Capacity of Wireless<br />
Optical Communication Systems over<br />
Gamma Gamma Atmospheric Turbulence<br />
Channels<br />
H. E. Nistazakis 1 , G. S. Tombras 1 , A. D.<br />
Tsigopoulos 2 , E. A. Karagianni 2 , M. E. Fafalios 2<br />
1 2 University of Athens, Athens, Greece, Hellenic<br />
Naval Academy, Piraeus, Greece<br />
THP2G-01: Signal Integrity in Reflection-<br />
Limited Channels<br />
J. F. Buckwalter<br />
University of California - San Diego, La Jolla,<br />
United States<br />
THP2H-01: On the Cyclostationary<br />
Properties of the 1/f Noise of Microwave<br />
Semiconductor Devices<br />
A. A. Lisboa de Souza, J. Nallatamby, M. Prigent,<br />
J. Obregon<br />
Université de Limoges, Brive, France<br />
THP2H-02: Mapping of Passive<br />
Intermodulation Products on Microstrip<br />
Lines<br />
A. P. Shitvov, D. Zelenchuk, A. G. Schuchinsky,<br />
V. F. Fusco<br />
Queen’s University of Belfast, Belfast, United<br />
Kingdom<br />
THP2H-03: Measurement of Polarized Nano-<br />
Material (PNM) for Microwave Application<br />
W. Chen1 , Z. Zhang1 , Z. Feng1 , Y. Chen1 , K. Jiang2 ,<br />
S. Fan2 , M. Iskander 3<br />
1 2 Tsinghua University, Beijing, China, Tsinghua-<br />
Foxconn Nanotechnology Center, Beijing, China,<br />
3University of Hawaii at Manoa, Honolulu, United States<br />
THP2H-04: Characterization of Galileo<br />
Signal Correlation Losses Caused by Non<br />
Linear Power Amplification with Memory<br />
G. Nanfack Nkondem 1 , J. Santiago 2 , G. Neveux 1 ,<br />
D. Barataud 1 , J. Collantes 2 , J. Portilla 2 , J. Nebus1 ,<br />
A. Mallet 3<br />
1 2 University of Limoges, Limoges, France, Basque<br />
Country university, Bilbao, Spain, 3CNES, Toulouse, France<br />
THP2H-05: Microwave Properties of<br />
Platinum Nanoparticle Films<br />
A. Sulaimalebbe, A. Porch, G. Attard, Cardiff<br />
University, Cardiff, United Kingdom<br />
THP2H-06: vector Near-Field Measurement<br />
System Using an Electro-Optic Microcavity<br />
and Electrical Downconversion<br />
D. Lee 1 , J. Kang 2 , C. Chen 1 , J. F. Whitaker 1<br />
1 University of Michigan, Ann Arbor, United<br />
States, 2 Dong Seoul College, Seongnam, Republic<br />
of Korea<br />
THURSDAY<br />
49
50<br />
15:30<br />
15:40 15:50<br />
16:00 16:10<br />
16:20<br />
16:30<br />
16:40<br />
16:50<br />
17:00<br />
THURSDAY TECHnICAl SESSIonS 15:30-17:10<br />
TH4A: Ferrites and Ferroelectrics<br />
Spartak Gevorgian, Chalmers University<br />
Steven Stitzer, Northrop Grumman<br />
Room: A311<br />
TH4A-01: Broadband Tunable Filters<br />
Using High q Passive Tunable ICs<br />
M. Nguyen, W. D. Yan, E. P. Horne<br />
Paratek Microwave Inc., Columbia, United<br />
States<br />
TH4A-02: A Ferroelectric-Based<br />
Impedance Tuner for Adaptive Matching<br />
Applications<br />
J. Fu, X. A. Zhu, J. D. Phillips, A. Mortazawi<br />
University of Michigan, Ann Arbor, United<br />
States<br />
TH4A-03: Suppression on Harmonic<br />
Radiation of Tunable PIFA by Ferroelectric<br />
varactor Loading<br />
Y. Zheng, A. Hristov, A. Giere, R. Jakoby<br />
TU Darmstadt, Darmstadt, Germany<br />
TH4A-04: A Novel Flexible Magnetic<br />
Composite Material for RFID, Wearable RF<br />
and Bio-monitoring Applications<br />
L. Yang1 , L. Martin2 , D. Staiculescu1 , C.P.<br />
Wong1 , M. M. Tentzeris1 1Georgia Institute of Technology, Atlanta,<br />
United States, 1Motorola, Plantation, United<br />
States<br />
TH4A-05: A Tunable and Reduced Size<br />
Power Divider using Ferroelectric Thin-<br />
Film varactors<br />
E. Lourandakis1 , M. Schmidt2 , A. Leidl2 , S.<br />
Seitz2 , R. Weigel1 1University of Erlangen-Nuremberg, Erlangen,<br />
Germany, 2EPCOS AG, Munich, Germany<br />
TH4A-06: Intermodulation Distortion<br />
Evaluation of Ferrite Element by Twotone<br />
Method<br />
T. Miura, L. E. Davis<br />
The University of Manchester, Manchester,<br />
United Kingdom<br />
TH4B: Advanced Techniques for CAD<br />
Arvind Sharma, Northrop Grumman<br />
Andreas Cangellaris, University of Illinois at<br />
Urbana-Champaign<br />
Room: A312<br />
TH4B-01: Rigorous Computer-Aided<br />
Design of Coaxial/Circular Antennas with<br />
Semi–Spherical Dielectric Layers<br />
C. Tomassoni1 , M. Mongiardo1 , P. Russer2 , R.<br />
Sorrentino1 1University of Perugia, Perugia, Italy,<br />
2Technische Universität München, Munich,<br />
Germany<br />
TH4B-02: Efficient Electromagnetic<br />
Optimization Using Self-adjoint Jacobian<br />
Computation Based on a Central-node<br />
FDFD Method<br />
X. Zhu, A. Hasib, N. K. Nikolova, M. H. Bakr<br />
McMaster University, Hamilton, Canada<br />
TH4B-03: A General EM-Based Design<br />
Procedure for Single-Layer Substrate<br />
Integrated Waveguide Interconnects with<br />
Microstrip Transitions<br />
J. E. Rayas-Sánchez 1 , V. Gutiérrez-Ayala 2<br />
1 ITESO, Tlaquepaque, México, 2 Intel<br />
- Guadalajara Design Center, Tlaquepaque,<br />
México<br />
TH4B-04: Adaptive Space Mapping<br />
with Convergence Enhancement for<br />
Optimization of Microwave Structures<br />
and Devices<br />
S. Koziel, J. W. Bandler, Q. S. Cheng<br />
McMaster University, Hamilton, Canada<br />
TH4B-05: Tuning Space Mapping: A<br />
Novel Technique for Engineering Design<br />
Optimization<br />
J. Meng, S. Koziel, J. W. Bandler, M. H. Bakr,<br />
Q. S. Cheng<br />
McMaster University, Hamilton, Canada<br />
TH4B-06: Robust Training of Microwave<br />
Neural Network Models Using Combined<br />
Global/Local Optimization Techniques<br />
H. Ninomiya, S. Wan, H. Kabir, X. Zhang, Q.<br />
Zhang<br />
Carleton University, Ottawa, Canada<br />
TH4C: Novel Passive Components<br />
Inder Bahl, Tyco Electronics<br />
John Owens, Boise State University<br />
Room: A313<br />
TH4C-01: A New Switching Structure<br />
using Branch-Line Hybrid Couplers for<br />
Time Division Duplex System<br />
K. Kim, D. Ahn<br />
Soonchunhyang University, Asan, Republic<br />
of Korea<br />
TH4C-02: A Waveguide-based Power<br />
Divider using H-plane Probes Shortcircuited<br />
with Substrate Metallization<br />
Patterns<br />
M. Abe, Y. Tahara, N. Yoneda, H. Oh-hashi<br />
Mitsubishi Electric Corporation, Kamakura,<br />
Japan<br />
TH4C-03: Complex Compensation<br />
of Coupled Line Structures in<br />
Inhomogeneous Media<br />
J. Müller, A. F. Jacob<br />
Technical University Hamburg-Harburg,<br />
Hamburg, Germany<br />
TH4C-04: Dual Function of a Dielectric<br />
Resonator: a High-q Resonator and a<br />
Low-q Radiator<br />
L. K. Hady, D. Kajfez, A. A. Kishk<br />
The University of Mississippi, University,<br />
United States<br />
TH4C-05: The Compound Resonator<br />
Approach : Parity Control and Selectivity<br />
Enhancement in N-Resonator Planar<br />
Systems<br />
T. Caillet 1 , D. Bajon 1 , S. Wane 2 , R. Plana 3<br />
1 Université de Toulouse, Toulouse, France,<br />
2 NXP-Semiconductor , Caen, France,<br />
3 Université de Toulouse CNRS-L.A.A.S.,<br />
Toulouse, France<br />
TH4C-06: A High-q Electronically Tunable<br />
Evanescent-Mode Double-Ridged<br />
Rectangular Waveguide Resonator<br />
A. L. Amadjikpè, J. Papapolymerou<br />
Georgia Institute of Technology, Atlanta,<br />
United States
THURSDAY TECHnICAl SESSIonS 15:30-17:10<br />
TH4D: Tunable and Active Filters<br />
Youji Kotsuka, Tokai University<br />
Pierre Blondy, Université de Limoges<br />
Room: A314<br />
TH4D-01: Multi-Scale Tunable Filter<br />
Covering a Frequency Range of 6.5:1<br />
M. Koochakzadeh, A. Abbaspour-Tamijani<br />
Arizona State University, Tempe, United States<br />
TH4D-02: Manifold-Coupled Switched<br />
Filter Bank Implementing Filters with<br />
Embedded Switches<br />
P. D. Laforge1 , R. R. Mansour1 , M. Yu2 1University of Waterloo, Waterloo, Canada,<br />
2CON DEV, Cambridge, Canada<br />
TH4D-03: Miniaturized Reconfigurable<br />
Filter Using PIN Diode for UWB<br />
Applications<br />
M. Karim, Y. Guo, Z. N. Chen, L. C. Ong<br />
Agency for Science, Technology and Research<br />
(A*STAR), Singapore, Singapore<br />
TH4D-04: Tunable RF Bandpass Filter with<br />
variable Resonator Coupling<br />
J. C. Estes<br />
Rockwell Collins, Scottsdale, United States<br />
TH4D-05: Novel Tunable Hexaferrite<br />
Bandpass Filter Based on Rectangular<br />
Waveguide Coupled Shielded Coplanar<br />
Transmission Lines<br />
M. Sterns, D. Schneiderbanger, R. Rehner, S.<br />
Martius, L. Schmidt<br />
University of Erlangen-Nuremberg, Erlangen,<br />
Germany<br />
TH4D-06: A 3.7-mW Zero-dB Fully<br />
Integrated Active Bandpass Filter at Kaband<br />
in 0.18-_m CMOS<br />
M. Chiang, H. Wu, C. C. Tzuang<br />
National Taiwan University, Taipei, Taiwan<br />
TH4D-07: Low Power Complementary-<br />
Colpitts Self-quenched Superregenerative<br />
Ultra-Wideband (UWB)<br />
Bandpass Filter in CMOS Technology<br />
M. Anis, R. Tielert, N. Wehn<br />
University of Technology in Kaiserslautern,<br />
Kaiserslautern, Germany<br />
TH4E: Novel Monolithic Circuit<br />
Elements and IC Technology<br />
Zaher Bardai, imn.epiphany<br />
Tsuneo Tokumitsu, Eudyna Devices<br />
Room: A315/316<br />
TH4E-01: A Novel Nanoionics-based<br />
Switch for Microwave Applications<br />
J. A. Nessel1 , R. Q. Lee1 , C. H. Mueller2 , M. N.<br />
Kozicki3 1NASA Glenn Research Center, Cleveland,<br />
United States, 2Analex Corporation, Cleveland,<br />
United States, 3Arizona State University,<br />
Tempe, United States<br />
TH4E-02: Low Temperature variable<br />
Inductor Using Porous Anodic Alumina<br />
T. B. Oogarah, M. Daneshmand, R. R.<br />
Mansour, S. Chang<br />
University of Waterloo, Waterloo, Canada<br />
TH4E-03: High quality-Factor and<br />
Inductance of Symmetric Differential-<br />
Pair Structure Active Inductor using a<br />
Feedback Resistance Design<br />
K. Hwang1 , C. Cho1 , J. Lee1 , J. Kim2 1Korea Aerospace University, Goyang, Republic<br />
of Korea, 2Information and Communications<br />
University, Yusong, Republic of Korea<br />
TH4E-04: Monolithic Millimeter-wave<br />
Distributed Amplifiers using AlGaN/GaN<br />
HEMTs<br />
R. Santhakumar, Y. Pei, U. K. Mishra, R. A.<br />
York<br />
University of California at Santa Barbara,<br />
Santa Barbara, United States<br />
TH4E-05: A Mixed HEMT-HBT MMIC<br />
Technology using MBE Regrowth<br />
E. T. Kunkee 1 , S. Consolazio 2 , J. Barner 2 ,<br />
T. Retelny 2 , G. Dietz 2 , E. Bogus 2 , A.<br />
Cavus 1 , J. Chen 1 , J. Uyeda 1 , R. Hsing 1 , P.<br />
Chin 1 , A. Ahkiyat 2 , D. Chua 2 , R. Clark 2 , R.<br />
Haubenstricker 2 , M. Johnson 2 , T. Nguyen 2 , P.<br />
Sahm 2 ,<br />
TH4E-06: ASK and Pi/4-qPSK Dual Mode<br />
SiGe-MMIC Transceiver for 5.8GHz DSRC<br />
Terminals having Stabilized Amplifier<br />
Chain<br />
S. Shinjo 1 , K. Tsutsumi 1 , K. Mori 1 , H. Okada 2 ,<br />
M. Inoue 3 , N. Suematsu 1<br />
1 Mitsubishi Electric Corporation, Kamakura,<br />
Japan, 2 Mitsubishi Electric Corporation,<br />
Himeji, Japan, 3 Mitsubishi Electric Engineering<br />
Corporation, Himeji, Japan<br />
15:30<br />
15:40<br />
15:50<br />
16:00<br />
16:10<br />
16:20<br />
16:30 16:40<br />
16:50<br />
THURSDAY<br />
5
54<br />
Joy Laskar<br />
Georgia Institute of Technology<br />
General Chair<br />
Technical Activites<br />
Manos Tentzeris<br />
Georgia Institute of Technology<br />
Technical <strong>Program</strong> Chair<br />
Jon Hacker<br />
Teledyne Scientific Co.<br />
Electronic Paper Management<br />
Anya Traille<br />
Georgia Tech Research Institute<br />
Workshops and Tutorials<br />
IMS STEERInG CoMMITTEE<br />
Mike Harris<br />
Georgia Tech Research Institute<br />
Vice Chair<br />
Kyutae Lim<br />
Georgia Electronic Design Center<br />
Vice Chair<br />
Jeff Pond<br />
NRL<br />
Electronic Paper Management<br />
Debasis Dawn<br />
Georgia Electronic Design Center<br />
Workshops and Tutorials<br />
Stephane Pinel<br />
Georgia Electronic Design Center<br />
Vice Chair<br />
Edward Gebara<br />
Quellan<br />
Workshops and Tutorials Chair<br />
Chang Ho Lee<br />
Samsung<br />
Panel Sessions Chair<br />
John Papapolymerou<br />
Georgia Institute of Technology<br />
Vice Chair<br />
vincent Hietala<br />
Sandia National Laboratories<br />
Workshops and Tutorials<br />
Vice Chair<br />
Farrokh Ayazi<br />
Georgia Institute of Technology<br />
Panel Sessions<br />
Roger Pollard<br />
University of Leeds<br />
Electronic Paper Management<br />
Shyh-Chiang Shen<br />
Georgia Institute of Technology<br />
Workshops and Tutorials<br />
Bhaskar Banjeree<br />
University of Texas-Dallas<br />
Panel Sessions
Gerald DeJean<br />
Microsoft<br />
Focused/Special Sessions<br />
Chair<br />
Kevin Kornegay<br />
Georgia Institute of Technology<br />
Historical Exhibit Chair<br />
Chris Ward<br />
JMD<br />
ARFTG Liaison<br />
Daniela Staiculescu<br />
Georgia Institute of Technology<br />
Interactive Forum Chair<br />
Chris Scholz<br />
LeCroy<br />
University Exhibits<br />
Coordinator<br />
Zaher Bardai<br />
VISAS<br />
local Arrangements<br />
Steve Kenney<br />
Georgia Institute of Technology<br />
Local Arrangements Chair<br />
Mononita Ghosal<br />
Agilent<br />
Vice Chair-Hotel Events<br />
Ronglin Li<br />
Georgia Institute of Technology<br />
Interactive Forum<br />
Samir El-Ghazaly<br />
University of Arkansas<br />
Publications Chair<br />
Kirk Laursen<br />
Epicom<br />
Vice Chair-GWCC<br />
Sanjay Raman<br />
Virginia Tech<br />
Plenary Session Chair<br />
Debabani Choudhury<br />
Intel Corporation<br />
Publications Vice Chair<br />
Bruce Schmuckler<br />
VT Silicon<br />
Signage Chair<br />
Luca Roselli<br />
University of Perugia<br />
Student Paper Competition<br />
Chair<br />
Brent Wagner<br />
Georgia Tech Research Institute<br />
Abstract <strong>Book</strong>s/Digest CD<br />
Keefe Bohannan<br />
Agilent<br />
AV Chair<br />
55
56<br />
Charlie Coulter<br />
Tektronix<br />
Photography Chair<br />
operations<br />
Chris Evans<br />
Georgia Electronic Design Center<br />
Operations and Registration<br />
Chair<br />
Ryan Tyson<br />
Georgia Electronic Design Center<br />
Webmaster<br />
Jeff Waggoner<br />
Rohde & Schwarz<br />
Exhibition Support Chair<br />
Jim Wiltse<br />
Awards Banquet<br />
Herb Lehman<br />
Georgia Electronic Design Center<br />
Finance Chair<br />
Timothy Lee<br />
Boeing<br />
Website Support<br />
Devi Laskar<br />
Guest <strong>Program</strong> Chair<br />
Cathy Beam<br />
Georgia Electronic Design Center<br />
Finance<br />
Barry Perlman<br />
RDECOM CERDEC<br />
Hall A3 Support Chair<br />
Catherine Gholson<br />
Georgia Institute of Technology<br />
Finance<br />
DeeDee Bennett<br />
Georgia Electronic Design Center<br />
Student Activities/<br />
Volunteers Chair<br />
Daniel Leatherwood<br />
Georgia Tech Research Institute<br />
Publicity Chair<br />
Angelika Braig<br />
Georgia Electronic Design Center<br />
Student Activities/<br />
Volunteers Vice Chair
Senior Advisors/Protocol Committee<br />
Charlie Jackson<br />
Northrup Gruman<br />
Emeritus Chair (IMS 2005)<br />
Support Services<br />
Elsie Cabrera<br />
IEEE Conference Management<br />
Services<br />
Conference Manager<br />
John Barr<br />
Agilent<br />
Emeritus Chair (IMS 2006)<br />
Larry Wicker<br />
LRW Associates<br />
Conference Services<br />
Wayne Shiroma<br />
University of Hawaii<br />
Emeritus Chair (IMS 2007)<br />
Howard Ellowitz<br />
Horizon House<br />
Exhibition Manager<br />
Kristen Anderson<br />
Microwave Journal<br />
Exhibition Coordinator<br />
Photos for the following Steering Committee members were not available at the time of printing:<br />
Technical Activities: Andrew Peterson (Senior Advisor), John Cressler (Electronic Paper Management), Jonghoon Lee (Focused/Special Sessions),<br />
Per Iversen (Focused/Special Sessions), Jeff Kemp (Focused/Special Sessions), Jack Vickers (MicroApps Co-Chair), Jim Stratigos (MicroApps Co-<br />
Chair), Frank Nestion (MicroApps)<br />
Operations: Luis Resta (Registration), Bo Pan (Translation-Japanese), Emery Chen (Translation-Taiwanese), Carlos Donado (Translation-<br />
Spanish)<br />
Members at Large: Charlie Rucker (Protocol), Gordon Harrison, Pete Rodrigue<br />
Support Services: Amanda Scacchitti, Rachael Zellner, Keisha Hersey (Conference Management)<br />
57
58<br />
Peter Aaen<br />
Mohamed Abouzahra<br />
Peter Asbeck<br />
John Atherton<br />
Inder Bahl<br />
Constantine Balanis<br />
John Bandler<br />
Bhaskar Banerjee<br />
Zaher Bardai<br />
Scott Barker<br />
John Barr<br />
H. Clark Bell<br />
Tibor Berceli<br />
Adalbert Beyer<br />
David Blackham<br />
Pierre Blondy<br />
Vicente Boria<br />
Jens Bornemann<br />
Hermann Boss<br />
Thomas Brazil<br />
Gailon Brehm<br />
Eric Bryerton<br />
Nicholas Buris<br />
Nathan Bushyager<br />
Edmar Camargo<br />
Richard Campbell<br />
Andreas Cangellaris<br />
Robert Caverly<br />
Malgorzata Celuch<br />
Zoltan Cendes<br />
Kai Chang<br />
Zhizhang (David) Chen<br />
Yi-Jan Emery Chen<br />
Young-Kai Chen<br />
J.C. Chiao<br />
Debabani Choudhury<br />
Terry Cisco<br />
Steve Cripps<br />
John Cunningham<br />
Francois Daneville<br />
Lionel Davis<br />
Debasis Dawn<br />
Har Dayal<br />
Leo de Vreede<br />
William Deal<br />
Gerald DeJean<br />
Guglielmo D’Inzeo<br />
Paul Draxler<br />
2008 TECHnICAl PRoGRAM CoMMITTEE<br />
John Ebel<br />
Danny Elad<br />
George Eleftherides<br />
Samir El-Ghazaly<br />
Atef Elsherbeni<br />
Andrea Ferrero<br />
Victor Fouad Hanna<br />
Kevin Gard<br />
Edward Gebara<br />
Bernard Geller<br />
Spartak Gevorgian<br />
Chuck Goldsmith<br />
Mike Golio<br />
Anand Gopinath<br />
Mark Gouker<br />
Kavita Goverdhanam<br />
Ian Gresham<br />
Ramesh Gupta<br />
Dave Halchin<br />
Leonard Hayden<br />
John Heaton<br />
Patric Heide<br />
Wolfgang Heinrich<br />
George Heiter<br />
Rashaunda Henderson<br />
Deuk Hyoun Heo<br />
Peter Herczfeld<br />
Tatsuya Hirose<br />
Wolfgang J. R. Hoefer<br />
Glenn Hopkins<br />
John Horton<br />
Ho Huang<br />
H. Alfred Hung<br />
Ian Hunter<br />
Kiki Ikossi<br />
Tatsuo Itoh<br />
Kenji Itoh<br />
David Jackson<br />
Robert Jackson<br />
Arne Jacob<br />
Dieter Jaeger<br />
Michael Janezic<br />
Bill Jemison<br />
Alan Jenkins<br />
Branka Jokanovic<br />
Reynold Kagiwada<br />
Sridhar Kanamaluru<br />
Linda Katehi<br />
Allen Katz<br />
Roger Kaul<br />
Wayne Kennan<br />
Amarpal (Paul) Khanna<br />
Bumman Kim<br />
Nickolas Kingsley<br />
Reinhard Knoechel<br />
James (Jim) Komiak<br />
Agnieszka Konczykowska<br />
Hiroshi Kondoh<br />
Bruce Kopp<br />
Youji Kotsuka<br />
H. John Kuno<br />
Youngwoo Kwon<br />
Paolo Lampariello<br />
Jong Hoon Lee<br />
Timothy Lee<br />
Chang-Ho Lee<br />
Ronglin Lee<br />
Kyutae Lim<br />
Johann Luy<br />
Gregory Lyons<br />
Stephen Maas<br />
Giuseppe Macchiarella<br />
Jan Machac<br />
Mohammad Madihian<br />
Asher Madjar<br />
Raghu Mallavarpu<br />
Raafat Mansour<br />
Jon Martens<br />
Kenichi Maruhashi<br />
Mohamed Megahed<br />
David Meharry<br />
Francisco Mesa<br />
Ryan Miyamoto<br />
Koji Mizuno<br />
Jozef Modelski<br />
Mauro Mongiardo<br />
Amir Mortazawi<br />
Alina Moussessian<br />
Koichi Murata<br />
Vijay Nair<br />
Michel Nakhla<br />
Shoichi Narahashi<br />
Julio Navarro<br />
Brad Nelson<br />
Cam Nguyen<br />
Edward Niehenke<br />
Natalia Nikolova<br />
Kenjiro Nishikawa<br />
Dalma Novak<br />
Hiroshi Okazaki<br />
Arthur Oliner<br />
Abbas Omar<br />
John Owens<br />
Jose Pedro<br />
Luca Perregrini<br />
Anh-Vu Pham<br />
Stephane Pinel<br />
Aryeh Platzker<br />
Roger Pollard<br />
George Ponchak<br />
Jeff Pond<br />
Marian Pospieszalski<br />
Reinhold Pregla<br />
Joseph Pribetich<br />
Frederick Raab<br />
Vesna Radisic<br />
Richard Ranson<br />
James Rautio<br />
Jose E. Rayas-Sanchez<br />
Ronald Reano<br />
Gabriel Rebeiz<br />
Kate Remley<br />
Edward Rezek<br />
Alfred Riddle<br />
Jae-Sung Rieh<br />
Vittorio Rizzoli<br />
David Root<br />
Luca Roselli<br />
Arye Rosen<br />
Matthias Rudolph<br />
Clemens Ruppel<br />
Peter Russer<br />
Magdalena Salazar-Palma<br />
Atsushi Sanada<br />
Tapan Sarkar<br />
James Schellenberg<br />
Chris Scholz<br />
Dominique Schreurs<br />
Arvind Sharma<br />
Prasad Shastry<br />
Sanghoon Shin<br />
Wayne Shiroma<br />
Peter Siegel<br />
Phillip Smith<br />
Chris Snowden<br />
Richard Snyder<br />
Roberto Sorrentino<br />
Dick Sparks<br />
Barry Spielman<br />
Peter Staecker<br />
Daniela Staiculescu<br />
Michael Steer<br />
Steve Stitzer<br />
Eric Strid<br />
Wayne Struble<br />
Almudena Suarez<br />
Roger Sudbury<br />
Yusuke Tajima<br />
Paul Tasker<br />
Jesse Taub<br />
Mohammad-Reza Tofighi<br />
Tsuneo Tokumitsu<br />
Kiyo Tomiyasu<br />
Robert Trew<br />
Clive Tzuang<br />
Ruediger Vahldieck<br />
Andre Vander Vorst<br />
Chi Wang<br />
Huei Wang<br />
Keh-Chung Wang<br />
Yuanxun Wang<br />
Paul Watson<br />
Robert Weigel<br />
Robert Weikle<br />
Claude Weil<br />
Andreas Weisshaar<br />
Charles Weitzel<br />
Tom Weller<br />
Cheng (CP) Wen<br />
Bob Wenzel<br />
Scott Wetenkamp<br />
James Whelehan<br />
James Wiltse<br />
Ingo Wolff<br />
Ken Wong<br />
Ke Wu<br />
H.Y. David Yang<br />
Huiwen Yao<br />
Robert York<br />
Ming Yu<br />
Kawthar Zaki<br />
Q.J. Zhang
MTT-1 Computer Aided Design MTT-13 Microwave Ferrites and Ferroelectrics<br />
MTT-2 Microwave Acoustics MTT-14 Microwave Low-Noise Techniques<br />
MTT-3 Microwave Photonics MTT-15 Microwave Field Theory<br />
MTT-4 Terahertz Technology and Applications MTT-16 Microwave Systems<br />
MTT-5 Microwave High-Power Techniques MTT-17 HF-VHF-UHF Technology<br />
MTT-6 Microwave and Millimeter-Wave Integrated Circuits MTT-18 Microwave Superconductivity<br />
MTT-7 Microwave and Millimeter-Wave Solid-State Devices MTT-19 Microwave Technology Business Issues<br />
MTT-8 Filters and Passive Components MTT-20 Wireless Communications<br />
MTT-9 Digital Signal Processing MTT-21 RF MEMS<br />
MTT-10 Biological Effects and Medical Applications MTT-22 Signal Generation and Frequency Conversion<br />
MTT-11 Microwave Measurements MTT-23 RFIC<br />
MTT-12 Microwave and Millimeter-Wave Packaging and Manufacturing<br />
IEEE MTT-S Administrative Committee<br />
2008 Officers Past Presidents Honorary Life Members<br />
President J. Modelski 2007 J. Stevenson Kenney T. Itoh P. Staecker<br />
Pres.-Elect B. Pearlman 2006 K.R. Varian A. Oliner K. Tomiyasu<br />
Treasurer N. Kolias 2005 K.C. Gupta T. Saad L. Young<br />
Secretary B. Szendrenyi 2004 R.J. Trew<br />
Elected AdCom Member<br />
2008 2009 2010<br />
K. Itoh L. Boglione J. Hacker<br />
L. Katehi S.M. El-Ghazaly T. Lee<br />
J. Lin H.M. Harris V. Nair<br />
J. Modelski J. Hausner B. Perlman<br />
A. Mortazawi B. Kim W. Shiroma<br />
A. Rosen N. Kolias R. Synder<br />
K. Wu R.Weigel<br />
R. York<br />
Future IMS locations<br />
IMS 2009, Boston, MA<br />
IMS 2010, Anaheim, CA<br />
J.K. McKinney<br />
Dura Sales of Southern California<br />
J.McKinney@ieee.org<br />
IMS 2013, Seattle, WA<br />
Tom Rashko<br />
Sea-Port Technical Sales<br />
Tom.Raschko@ieee.org<br />
IEEE MTT-S Technical Coordinating Committees<br />
General Chairman<br />
Fred Schindler<br />
RFMD<br />
fschindler@rfmd.com<br />
IMS 2011, Baltimore, MD<br />
Jeffery Pond<br />
Naval Research Laboratory<br />
J.M.Pond@ieee.org<br />
IMS 2014, Tampa, FL<br />
Larry Dunleavy<br />
University of South Florida<br />
dunleavy@eng.usf.edu<br />
Technical <strong>Program</strong> Chair<br />
Mark Gouker<br />
MIT Lincoln Labs<br />
gouker@ll.mit.edu<br />
IMS 2012, Montreal, CAN<br />
Ke Wu<br />
Ecole Polytechnique<br />
Ke.Wu@ieee.org<br />
IMS 2015, Phoenix, AZ<br />
Vijay Nair<br />
Intel Corporation<br />
v.nair@ieee.org<br />
59
60<br />
Microwave Career Award<br />
This award recognizes an individual for a career of meritorious<br />
achievement and outstanding technical contribution in the field of<br />
microwave theory and techniques. This year’s recipient is Rudolf<br />
Henning.<br />
“For a career of leadership, meritorious achievement, creativity,<br />
and outstanding contributions in the field of microwave theory<br />
and techniques.”<br />
Distinguished Service Award<br />
This award recognizes significant contributions and outstanding<br />
service to the MTT-S and the microwave profession over a sustained<br />
period of time. This year’s recipient is George Heiter.<br />
“For his outstanding and dedicated service to the society.”<br />
Distinguished Educator Award<br />
This award was inspired by the untimely death of Prof. F.J. Rosenbaum<br />
(1937-1992), an outstanding teacher of microwave science and a<br />
dedicated AdCom Member and contributor. The award recognizes a<br />
distinguished educator in the field of microwave engineering and<br />
science who best exemplifies the special human qualities of Fred<br />
Rosenbaum who considered teaching a high calling and demonstrated<br />
his dedication to the Society through tireless service. This year’s recipient<br />
is Madhu S. Gupta.<br />
“For outstanding achievements as an educator, mentor and role<br />
model of microwave engineers and engineering students.”<br />
Microwave Pioneer Award<br />
This award recognizes an individual or a team not exceeding three<br />
persons having made outstanding pioneering technical contributions<br />
that advance microwave theory and techniques, described in an<br />
archival paper published at least 20 years prior to the year of the<br />
award. This year’s recipient is James W. Mink.<br />
“For establishing the theoretical basis for the development of the<br />
practical quasi-optical power combining structures and networks.”<br />
Microwave Application Award<br />
This award recognizes an individual or team for outstanding application<br />
of microwave theory and techniques. This year’s recipient is Steve C.<br />
Cripps.<br />
“For the creation of an industry standard for design of broadband<br />
solid state power amplifiers.”<br />
IEEE MTT-S AWARDS<br />
outstanding Young Engineer<br />
Award<br />
This award recognizes MTT-S members, who have distinguished<br />
themselves through technical achievements, service to the MTT-S, or<br />
a combination of both. Nominees must not have reached their 39th<br />
birthday and must be an MTT-S member at the time of nomination.<br />
This year’s recipients are Michael P. DeLisio, Katherine Juliet Herrick,<br />
Anh-vu Pham, and Andreas Stelzer.<br />
Michael P. DeLisio: “For contributions to the development and<br />
commercialization of microwave and millimeter-wave spatial<br />
power combining techniques as well as service to the MTT society.”<br />
Katherine Juliet Herrick: “For leadership and technical<br />
contributions in the development of compact, high performance<br />
active and passive components for millimeter-wave arrays.”<br />
Anh-vu Pham: “For contributions to the development of<br />
microwave and millimeter-wave organic packages, components,<br />
and modules.”<br />
Andreas Stelzer: “For contributions made in the field of microwave<br />
sensor and local positioning systems and their signal processing.”<br />
n. Walter Cox Award<br />
This award was established in recognition of the qualities of N. Walter<br />
Cox and his service to the MTT-S prior to his untimely death in 1988. It<br />
is given to a Society volunteer whose efforts on behalf of MTT-S best<br />
exemplify Walter’s spirit and dedication. This year’s recipient is Charles<br />
M. Jackson.<br />
“For exemplary service, given in the spirit of selfless dedication and<br />
cooperation.”<br />
Microwave Prize<br />
This award recognizes on an annual basis the most significant<br />
contribution by a published paper within the MTT-S’s field of interest.<br />
Papers under consideration are those published during the calendar<br />
year preceding the Fall meeting of the AdCom. This years recipients are<br />
Marco Spirito, Marco J. Pelk, Fred van Rijs, Steven J.C.H. Theeuwen,<br />
Dave Hartskerl, and Leo C.N. de vreede.<br />
“For a significant contribution to the field of endeavor of the IEEE<br />
MTT Society in the paper entitled “Active Harmonic Load-Pull for<br />
On-Wafer Out-of-Band Device Linearity Optimization”, which has<br />
been published in IEEE Transactions on Microwave Theory and<br />
Techniques, Vol. 54, No 12, December 2006, pp. 4225-4236.”
The member grade of Fellow is conferred in recognition of unusual<br />
and outstanding professional distinction. It is awarded at the initiative<br />
of the IEEE Board of Directors following a rigorous nomination<br />
and evaluation process. Individuals receiving this distinction have<br />
demonstrated extraordinary contributions to one or more fields of<br />
IEEE FElloWS<br />
Ikuo Awai For contributions to microwave passive components<br />
electrical engineering, or related sciences. This grade is not conferred<br />
automatically on nomination, only a fraction of those nominated are<br />
elected. Twelve MTT-S members who were evaluated by our Society<br />
were elected to the grade of Fellow, effective 1 January 2008.<br />
Pane Chao For contributions to microwave and millimeter-wave high electron mobility transistors and monolithic<br />
integrated circuits<br />
Spartak Gevorgian For contributions to ferroelectric microwave devices<br />
Jerry Hausner For applications of microwave technology for remote sensing<br />
William Joines For contributions to frequency-selective structures in microwave circuits, biology, and medicine<br />
James Stevenson Kenney For contributions to microwave power amplifier design, characterization, and linearization<br />
Amarpal Khanna For contributions to the design and measurement techniques of microwave oscillators<br />
Reinhard Knoechel For contributions to microwave systems and sensors for industrial process control<br />
Michael Mrozowski For contributions to the theory of guided waves and computational electromagnetics<br />
George Ponchak For contributions to the thin film transmission lines for microwave integrated circuits<br />
Charles Wilker For contributions to microwave measurements of cryogenic and high power component<br />
Shanjia Xu For contributions to dielectric waveguiding structures<br />
Zhi Ning Chen (AP) For contributions to small and broadband antennas for wireless applications<br />
Cynthia Furse (AP) For leadership in electromagentics education<br />
Gianluca Lazzi (AP) For contributions to biolelectromagnetics and implantable devices<br />
Peter deMaagt (AP) For development and application of electromagnetic band gap materials and terahertz components and<br />
systems<br />
Sergei Tretyakov (AP) For contributions to distributed system software architectures and programming frameworks<br />
Jeffery Young (AP) For contributions to electromagnetic wave propagation in complex media<br />
Daniel Amey (CPMT) For contributions to electronic packaging and high frequency characterization of ceramic system package<br />
materials<br />
Kit Lau Paul Yu (ED) For contributions to semiconductor waveguide modulators and detectors<br />
Erping Li (EMC) For contributions to electromagnetic modeling and simulation in high speed electronics<br />
Waymond Scott (GRS) For contributions to the detection of buried objects using ground penetrating radar<br />
6
6<br />
The 2008 RFIC Symposium maintains its reputation as one of the foremost IEEE technical conferences dedicated<br />
to the latest innovations in RFIC development for wireless and wireline communication ICs and emerging<br />
applications. Running in conjunction with the International Microwave Symposium and Exhibition, the<br />
RFIC Symposium adds to the excitement of Microwave Week with three days focused exclusively on RFIC<br />
technology and innovation. The RFIC symposium will be held at the Georgia World Congress Center from 15-17 June<br />
2008. The symposium begins on Sunday, 15 June, with workshops targeted at RF technology, design, and system<br />
issues. Sunday evening activities continue at 17:30 with the Plenary Session where two speakers will share their<br />
views on the direction and challenges that the RF IC industry will be facing. The first speaker, Robert Van Buskirk,<br />
President of Multi-market Products Group at RFMD Inc., will discuss “Best of Both Worlds: Multi-market Diversity<br />
Embedded in a Scale RF Semiconductor Business.” The second speaker, Zoltan J. Cendes, Ph.D., Founder, Chairman,<br />
and CTO of Ansoft Corporation, will discuss “First Pass System Success - When First Pass Silicon Success is Not Enough.”<br />
Following the Plenary Session, the RFIC Reception will be hosted in A412ab of the Georgia World Congress Center.<br />
This social event is a key component of the conference with the opportunity to connect with old friends and new<br />
acquaintances and catch up on the wireless industry. The technical program includes 26 oral presentation sessions,<br />
an Interactive Forum (poster session), and two lunchtime panel sessions. The oral presentation sessions start on<br />
Monday, 16 June, and will continue on Tuesday, 17 June. The poster session will be held on Tuesday afternoon.<br />
The poster session is the perfect place to have an opportunity to have more detailed technical discussions with<br />
the authors. In the tradition of the RFIC conference, the Tuesday morning activity will be paused during the IMS<br />
Plenary Session, from 10:10-11:50. Panel Sessions are also planned at lunchtime on Monday and Tuesday. The RFIC<br />
Symposium concludes on Tuesday allowing participants to attend the IMS and ARFTG as well as plenty of time to<br />
visit the exhibit hall. The RFIC Committee is thankful to the Microwave Week team, without whom we could not<br />
make this conference happen. Most of all, we are particularly thankful to all the technical contributors to the RFIC.<br />
We look forward to your participation. Please continue to make this conference vibrant within the RFIC industry!<br />
Enjoy the conference!<br />
Jenshan Lin<br />
General Chairman<br />
2008 RFIC Symposium<br />
WElCoME To THE 2008 RFIC SYMPoSIUM<br />
Tina quach Yann Deval<br />
Technical <strong>Program</strong> Committee Chairs<br />
2008 RFIC Symposium
SUnDAY- 17:30-19:00 • RFIC PlEnARY SESSIon • RooM A411<br />
Best of Both Worlds: Multi-market Diversity Embedded<br />
in a Scale RF Semiconductor Business<br />
Robert Van Buskirk – President, Multi-market Products Group (MPG),<br />
RFMD Inc.<br />
Many RF semiconductor companies seek a balance between scale-driven,<br />
high volume business demands and more diverse, lower volume business<br />
requirements. Successful RF companies can<br />
manage these potentially conflicting business<br />
goals and realize significant advantages<br />
through the balance of scale and multi-market<br />
diversity. Using the acquisition of Sirenza<br />
Microdevices by RFMD, in November 2007, as a<br />
platform to discuss this balance, the significant<br />
competitive advantages for a multi-market<br />
business embedded in a scale RF business will be<br />
addressed. This talk will explore the benefits of<br />
these unique competitive advantages and give concrete examples of how<br />
growth can be accelerated by leveraging the “Best of Both Worlds.”<br />
Robert Van Buskirk has served as the President of RFMD’s Multi-market<br />
Products Group (MPG) since the successful completion of the Sirenza<br />
Microdevices acquisition in November 2007. Prior to joining RFMD he was<br />
Sirenza’s President and Chief Executive Officer and a member of the Board<br />
of Directors from May 1999 through November 2007. Before joining Sirenza,<br />
Mr. Van Buskirk held the position of Executive Vice President of Business<br />
Development and Operations from August 1998 to May 1999 at Multilink<br />
Technology Corporation, a company specializing in the design, development,<br />
and marketing of high bit-rate electronic products for advanced fiber-optic<br />
transmission systems. Prior to his position at Multilink, Mr. Van Buskirk held<br />
various management positions at TRW, a semiconductor wafer manufacturer,<br />
including Executive Director of the TRW GaAs Telecom Products business<br />
from 1993 to August 1998. Mr. Van Buskirk holds a B.A. from California State<br />
University at Long Beach.<br />
Monday<br />
12:00-13:15<br />
Room number A412ab<br />
Millimeter-wave IC: Is silicon winning? Is GaAs still alive?<br />
(RFIC Panel)<br />
Organizer: Chinchun Meng, National Chiao Tung University<br />
Moderator: Huei Wang, National Taiwan University<br />
Panelists:<br />
• Young-Kai Chen, Bell Labs Alcatel-Lucent<br />
• Bryan Floyd, IBM<br />
• Ali Hajimiri, California Institute of Technology<br />
• Joy Laskar, Georgia Institute of Technology<br />
RFIC PAnEl SESSIonS<br />
First Pass System Success - When First Pass Silicon Success is<br />
Not Enough<br />
Dr. Zoltan J. Cendes – Founder, Chairman and CTO, Ansoft Corporation<br />
Advances in the performance and accuracy of design automation software and<br />
electromagnetic modeling have enabled RFIC designers to apply their skills<br />
to achieve first pass silicon success for complex mixed-signal radio circuits.<br />
Now, coupling between circuit simulation and<br />
parameterized electromagnetics allows them to<br />
include detailed analysis of packaging and printed<br />
circuit board parasitic coupling to analyze system<br />
performance. A silicon vendor may produce a<br />
wireless SoC that performs flawlessly at the<br />
packaged part level. Once that part is placed on<br />
a system PCB, the complex interactions among<br />
traces on the board, the coupled impedances<br />
between package pins and the PCB, and nonlinear<br />
effects in the circuit itself can combine to generate spurious radiation and corrupt<br />
signal/power integrity. These undesired effects can be predicted by applying full<br />
electromagnetic simulation of the package and board in concert with a top-level<br />
transient or harmonic balance simulation at the circuit level. We present here an<br />
overview of key simulation technologies and discuss how they can be applied to<br />
achieve first pass system success for complex electronic products.<br />
Dr. Zoltan Cendes is Founder, Chairman and CTO of Ansoft Corporation, Pittsburgh,<br />
PA, and is an Adjunct Professor at Carnegie Mellon University, Pittsburgh. As<br />
Ansoft’s chief technology officer he is responsible for managing the company’s<br />
research and development. He has served as Professor of Electrical and Computer<br />
Engineering at Carnegie Mellon University, as an Associate Professor of Electrical<br />
Engineering at McGill University, Montreal, Canada, and as an Engineer in the<br />
Corporate Research and Development Center of the General Electric Company<br />
in Schenectady, NY. Cendes received his MS and doctoral degrees in electrical<br />
engineering from McGill University. Dr. Cendes is a Fellow of the IEEE, has served<br />
on the Editorial Board of IEEE Spectrum, on the International Steering Committee<br />
of the COMPUMAG Conference and as an IEEE Antennas and Propagation Society<br />
(IEEE AP-S) Distinguished Lecturer.<br />
• Chinchun Meng, National Chiao Tung University<br />
• Sorin Voinigescu, University of Toronto<br />
• Herbert Zirath, Chalmers University of Technology<br />
Sponsor: RFIC<br />
Abstract: Fully integrated 60 GHz MMICs were successfully built by PHEMT/<br />
MHEMT technologies while advanced CMOS and SiGe HBT technologies<br />
have also shown good promise on 60 GHz MMICs. GaAs technology was<br />
not fairly invested at the beginning of RFIC revolution even though it is<br />
known to have better intrinsic properties. Thus, the panel will examine<br />
which technology will be the winner at the millimeter-wave regime and<br />
whether GaAs can come back at the microwave regime.<br />
63
64<br />
08:00<br />
08:20<br />
08:40<br />
09:00<br />
09:20<br />
10:10<br />
10:30<br />
10:50<br />
11:10<br />
11:30<br />
MonDAY TECHnICAl SESSIonS 08:00-11:50<br />
RMO1A: Cellular Transceiver<br />
Chair: Jyoti P.Mondal, Freescale<br />
Semiconductor<br />
Co-Chair: Didier Belot, ST Microelectronics<br />
Room: A411<br />
RMO1A-1: (INvITED) Self-shielded EGPRS Transceiver<br />
A.W.Hietala, S.R.Humphreys, R. Arkizewski, S. Morris<br />
RFMD, USA<br />
RMO1A-2: A digital delta-sigma RF signal generator<br />
for mobile communication transmitters in 90nm<br />
CMOS<br />
A. Frappé, B. Stefanelli, A. Flament, A. Kaiser, A. Cathelin*<br />
IEMN - ISEN, Lille, France, *STMicroelectronics, Grenoble,<br />
France<br />
RMO1A-3: Active Mitigation of Induced Phase<br />
Distortion in a GSM SoC<br />
O. Eliezer, B. Staszewski, S. Bhatara, I. Bashir, , P. Balsara*<br />
Texas Instruments, *The University of Texas at Dallas<br />
RMO1A-4: A L1-Band Dual-Mode RF Receiver for GPS<br />
and Galileo in 0.18µm CMOS<br />
J.-G. Jo, J.-H. Lee, D. J. Park*, Y. G. Pu*, S.-C. Shin, K.-Y.<br />
Lee*, S.-E. Park**, S.-J. Lee**, C. Yoo<br />
Dept. of Electronics and Comp. Eng. Hanyang Univ. Seoul,<br />
Korea, * Dept. of Electronics Eng. Konkuk Univ. Seoul, Korea,<br />
** CoreLogic Inc. Seoul, Korea<br />
RMO1A-5: An Adaptive Multi-Mode RF Front-End for<br />
Cellular Terminals<br />
G. Hueber, J. Zipper, R. Stuhlberger, A. Holm*<br />
DICE, Austria<br />
*Infineon Technologies, Germany<br />
RMO2A: WLAN and WiMAx<br />
Transceivers<br />
Chair: Srenik Mehta, Atheros<br />
Communications<br />
Co-Chair: Bill Redman-White, NXP<br />
Room: A411<br />
RMO2A-1: A 65nm Low-power CMOS Transceiver for<br />
802.11n Portable Application<br />
Y.M. Chiu, T.M. Chen, P.Y. Chen, R. Kuan, Y.C. Shih, Y.J.<br />
Lin, C.L. Li<br />
Realtek Semiconductor Corp., Hsinchu, Taiwan<br />
RMO2A-2: A MISO CMOS Transceiver For WLAN<br />
802.11b/g/n Applications<br />
C.J. Chang, P.C. Wang, W.M. Chiu, P.J. Chiu, C.C. Wang,<br />
Y.M.Chang, C.Y. Chen, K.T. Chen, C.H. Lu, S.M. Lin, C.P. Lin,<br />
K.U. Chan, Y.H.Lin and C.C.Lee<br />
Realtek Semiconductor Corp., Hsinchu, 300, Taiwan<br />
RMO2A-3: A 0.13 μm CMOS Transmitter with<br />
72-dB RF Gain Control for Mobile WiMAx/WiBro<br />
Applications<br />
H.-H. Kuo, Y.-H. Li, and Y.-H. Pang<br />
SoC Technology Center, Industrial Technology Research<br />
Institute, HsinChu 310, Taiwan<br />
RMO2A-4: 2.5-GHz Fully-Integrated WiMAx<br />
Transceiver IC for a Compact, Low-Power<br />
Consumption RF Module<br />
D. Yamazaki, N. Kobayashi, K. Oishi*, M. Kudo*, T. Arai, N.<br />
Hasegawa, K. Kobayashi<br />
Fujitsu Laboratories Ltd., Fujitsu Ltd., Japan<br />
RMO2A-5: A Fully Integrated Tri-Band, MIMO<br />
Transceiver RFIC for 802.16e<br />
F. Beaudoin*, T. Zortea**, G. Deliyannides, M. Hiebert,<br />
M. McAdam, M. Venditti*, V. Choudary, B. Guay, H.<br />
Djahanshahi, T. McKeen, A. Hafez<br />
PMC-Sierra, Inc., Burnaby, BC, Canada, *PMC-Sierra, Inc.,<br />
Montreal, QC, Canada, **PMC-Sierra, Inc., Allentown, USA<br />
RMO1B: Broad Band Circuit<br />
Techniques<br />
Chair: Ranjit Gharpurey, University of Texas,<br />
Austin<br />
Co-Chair: Madhukar Reddy, Maxlinear, Inc<br />
Room: A405<br />
RMO1B-1: A 3.1-9.5 GHz Agile UWB Pulse Radio<br />
Receiver with Discrete-Time Wideband-IF Correlation<br />
in 90nm CMOS<br />
F. Zhang, R. Gharpury*, P. Kinget<br />
Columbia University, *University of Texas, USA<br />
RMO1B-2: A 3 to 5-GHz UWB Pulse Radio Transmitter<br />
in 90nm CMOS<br />
Anuranjan Jha*, Ranjit Gharpurey**, Peter Kinget*<br />
*Columbia University, NY<br />
**University of Texas, Austin<br />
RMO1B-3: A 6-9GHz WiMedia UWB RF Transmitter in<br />
90nm CMOS<br />
Z. Zhang, K. Mertens, M. Tiebout, S. Ek,S. Marsili, D.<br />
Matveev, C. Sandner<br />
Infineon Technologies Austria AG, Austria<br />
RMO1B-4: An Ultra-Wideband Transmitter Based on a<br />
New Pulse Generator<br />
M. Cavallaro, E. Ragonese, G. Palmisano<br />
University of Catania, DIEES, viale A. Doria 6, Catania,<br />
95126, Italy<br />
RMO1B-5: A 19pJ/pulse UWB Transmitter with Dual<br />
Capacitively-Coupled Digital Power Amplifiers<br />
P.P. Mercier, D.C. Daly, A.P. Chandrakasan<br />
Massachusetts Institute of Technology<br />
RMO2B: High Frequency vCOs<br />
Chair: Stephen Dow, ON Semiconductor<br />
Co-Chair: Timothy Hancock, MIT Lincoln<br />
Laboratory<br />
Room: A405<br />
RMO2B-1: 60GHz vCOs with transmission line<br />
resonator in a 0.25µm SiGe BiCMOS technology<br />
H. Veenstra, M.G.M. Notten<br />
Philips Research, Eindhoven, The Netherlands<br />
RMO2B-2: A Low Phase Noise LC-vCO with a<br />
High-q Inductor Fabricated by Wafer Level Package<br />
Technology<br />
K.Ohashi, Y.Kobayashi, H.Ito 1 , K.Okada, H.Hatakeyama 2 ,<br />
T.Aizawa 2 , T.Ito 2 , R.Yamauchi 3 , K. Masu<br />
Integrated Research Institute, 1 Precision and Intelligence<br />
Laboratory,Tokyo Institute of Technology, 2 Electron Device<br />
Laboratory,Fujikura Ltd., 3 Fujikura Ltd.<br />
RMO2B-3: The Process variability of a v-band LC-vCO<br />
in 65nm SOI CMOS<br />
Daeik D. Kim, Choongyeun Cho, Jonghae Kim<br />
IBM Semiconductor Research and Development Center, USA<br />
RMO2B-4: Simultaneous Sub-harmonic Injection-<br />
Locked mm-Wave Frequency Generators for Multiband<br />
Communications in CMOS<br />
S-W. Tam, E. Socher, A.Wong, Y. Wang, L. D. Vu and M.<br />
F. Chang<br />
University of California, Los Angeles<br />
RMO2B-5: vCO design for 60 GHz applications using<br />
differential shielded inductors in 0.13 µm CMOS<br />
J. Borremans*, M. Dehan, K. Scheir*, M. Kuijk,<br />
P.Wambacq*<br />
IMEC, Leuven, Belgium, *also Vrije Universiteit Brussel,<br />
Brussels, Belgium<br />
RMO1C: CMOS Millimeter-wave<br />
Amplifiers<br />
Chair: Patrick Yue, UC Santa Barbara<br />
Co-Chair: Luciano Boglione, University of<br />
Massachusetts Lowell<br />
Room: A406-7<br />
RMO1C-1: (INvITED) Deep-Submicron Digital CMOS<br />
Potentialities for Millimeter-wave Applications<br />
Andreia Cathelin 1 , Baudouin Martineau 1,2 , Nicolas<br />
Seller 1,3 , Frederic Gianesello 1 , Christine Raynaud 1,4 ,<br />
Didier Belot 1<br />
1 STMicroelectronics, France, 2 IEMN, France, 3 IMS<br />
Laboratory, France, 4 CEA-LETI, France<br />
RMO1C-2: A Tapered Cascaded Multi-Stage<br />
Distributed Amplifier with 370GHz GBW in 90nm<br />
CMOS<br />
A. Arbabian, A. M. Niknejad<br />
University of California at Berkeley, USA<br />
RMO1C-3: An ultra low power LNA with 15dB gain<br />
and 4.4db NF in 90nm CMOS process for 60 GHz phase<br />
array radio<br />
Emanuel Cohen*, Shmuel Ravid*, Dan Ritter**<br />
* Mobile Wireless Group, Intel Haifa, Israel, ** Electrical<br />
Engineering Technion, Haifa, Israel<br />
RMO1C-4: 60GHz CMOS Differential and Transformer-<br />
Coupled Power Amplifier for Compact Design<br />
Tim LaRocca, Mau-Chung Frank Chang<br />
University of California at Los Angeles<br />
RMO1C-5: A 60-GHz Fully-Integrated Doherty Power<br />
Amplifier Based on 0.13-µm CMOS Process<br />
Byron Wicks*, Efstratios Skafidas*, Rob Evans*<br />
* National ICT Australia<br />
RMO2C: Advanced Handset Power<br />
Amplifiers<br />
Chair: Nick Cheng, Skyworks<br />
Co-Chair: Bruce Thompson, Motorola, Inc<br />
Room: A406-7<br />
RMO2C-1: A 65nm CMOS 30dBm Class-E RF Power<br />
Amplifier with 60% Power Added Efficiency<br />
M. Apostolidou 1 , M.P. van der Heijden 1 , D.M.W.<br />
Leenaerts 1 , J. Sonsky 2 , A. Heringa 2 and I. Volokhine 2<br />
1 NXP Semiconductors Research, Eindhoven (the<br />
Netherlands), 2 NXP-TSMC Research Center, Eindhoven (the<br />
Netherlands) - Leuven (Belgium)<br />
RMO2C-2: Design and Linearization of Class-E Power<br />
Amplifier for Non-constant Envelope Modulation<br />
C.-T. Chen, C.-J. Li, T.-S. Horng, J.-K. Jau*, and J.-Y. Li*<br />
National Sun Yat-Sen University, Taiwan, *Industrial<br />
Technology Research Institute, Taiwan<br />
RMO2C-3: Efficient Three-State WCDMA PA Integrated<br />
with High-Performance BiHEMT HBT / E-D pHEMT<br />
Process<br />
T. Apel, T. Henderson, Y. Tang, O. Berger<br />
TriQuint Semiconductor, USA<br />
RMO2C-4: Switch-Mode Power Amplifier Linearization<br />
D.E. Kelly, K. Mekechuk, and T. Miller<br />
PulseWave RF, USA<br />
RMO2C-5: A 0.18 µm CMOS Fully Integrated RF DAC<br />
and vGA for WCDMA Transmitters<br />
S. Mehdizad Taleie*, Y. Han**, T. Copani**, B.<br />
Bakkaloglu**, S. Kiaei**<br />
*Qualcomm, Inc., USA, **Arizona State University<br />
RMO1D: RF Front-end Design<br />
Techniques<br />
Chair: Donald Y.C.Lie, Texas Tech University<br />
Co-Chair: Jean-Baptiste Begueret, IMS Lab<br />
Room: A404<br />
RMO1D-1: Perspective of RF design in future planar<br />
and FinFET CMOS<br />
J. Borremans*, B. Parvais, M. Dehan, S. Thijs, P.<br />
Wambacq*, A. Mercha, M. Kuijk*, G. Carchon, S.<br />
Decoutere<br />
IMEC, Leuven, Belgium, *also Vrije Universiteit Brussel,<br />
Brussels, Belgium<br />
RMO1D-2: A Broadband Low-Noise Singel-Ended<br />
Input Differential-Output Amplifier with IM2<br />
Cancelling<br />
D. Manstretta<br />
Dipartimento di Elettronica, Università degli Studi di Pavia,<br />
Pavia, Italy<br />
RMO1D-3: Linearization of Differential CMOS Low<br />
Noise Amplifier Using Cross-Coupled Post Distortion<br />
Canceller<br />
Tae-Sung Kim, Byung-Sung Kim<br />
Sungkyunkwan University, South Korea<br />
RMO1D-4: A New Method of Tx Leakage Cancelation<br />
in W/CDMA and GPS Receivers<br />
V. Aparin<br />
QUALCOMM Inc., San Diego, USA<br />
RMO1D-5: A 2.5mW Inductorless Wideband vGA with<br />
Dual Feedback DC-Offset Correction in 90nm CMOS<br />
Technology<br />
Y. Wang, B. Afshar, T. Cheng, V. Gaudet*, A. M. Niknejad<br />
Berkeley Wireless Research Center, University of California<br />
at Berkeley, *Univeristy of Alberta, Canada<br />
RMO2D: Advanced passive circuits<br />
and components<br />
Chair: Chang-Ho Lee, Samsung<br />
Co-Chair: Gary Zhang, Skyworks<br />
Room: A404<br />
RMO2D-1: (INvITED) High-Performance RF passives<br />
Using Post-CMOS MEMS Techniques for RF SoC<br />
Xinxin Li, Lei Gu and Zhengzheng Wu<br />
State Key Lab of Transducer Technology, Shanghai Institute<br />
of Microsystem and Information Technology, Chinese<br />
Academy of Sciences<br />
RMO2D-2: An Area Efficient High Turn Ratio<br />
Monolithic Transformer For Silicon RFIC<br />
Chee Chong Lim**, Qiu-ping**, Kiat Seng Yeo, Kok Wai<br />
Chew*, Suh Fei Lim*, Chirn Chye Boon and Manh Anh Do<br />
Nanyang Technological University at Singapore (NTU),<br />
*Chartered Semiconductor Manufacturing (Chrt), **NTU<br />
& Chrt<br />
RMO2D-3: Miniaturized Multi-Band Filter Banks for<br />
Extravehicular Radio (EvA) Applications<br />
Philip J. Stephanou, Justin P. Black, and Andrew L.<br />
Benjamin*<br />
Harmonic Devices Inc., USA, *NASA Johnson Space Center,<br />
USA<br />
RMO2D-4: A Low-Distortion, Low-Loss varactor<br />
Phase-Shifter Based on a Silicon-on-Glass Technology<br />
S. Kim, J.H. Qureshi, K. Buisman, L.E. Larson and L.C.N.<br />
de Vreede<br />
Center for Wireless Communication, University of California<br />
San Diego, La Jolla, CA, USA, DIMES, Delft Institute<br />
of Microsystems and Nanoelectronics, TUDelft, The<br />
Netherlands
MonDAY TECHnICAl SESSIonS 13:20-17:10<br />
RMO3A: High-Frequency CMOS Mixers<br />
and Data-Converters<br />
Chair: Frank Henkel, IMST GmbH<br />
Co-Chair: Jaber Khoja, Microtune Inc.<br />
Room: A411<br />
RMO3A-1: A 1GHz Bandwidth Low-Pass ∆∑ ADC with<br />
20GHz to 50GHz Adjustable Sampling Rate<br />
A. Hart and S. P. Voinigescu<br />
University of Toronto, Canada<br />
RMO3A-2: A Resistively Degenerated Wide-Band<br />
Passive Mixer with Low Noise Figure and +60dBm<br />
IIP2 in 0.18µm CMOS<br />
N. Kim, *V. Aparin, L.E. Larson<br />
University of California at San Diego, *Qualcomm, Inc.,USA<br />
RMO3A-3: High Linearity SiGe-MMIC q-MOD Having<br />
Self Mixer Current Control Circuit with Output Power<br />
Detector for 0.4-5.8GHz Cognitive Radio<br />
S.Shinjo, K.Tsutsumi, F.Onoma, N.Suematsu, H.Harada*<br />
Mitsubishi Electric Corp, *National Institute of Information and<br />
Communications Technology<br />
RMO3A-4: A High IIP2 Multi-Standard CMOS Mixer<br />
for GSM, UMTS and IEEE802.11b-g-a Applications<br />
Mohammad B. Vahidfar, Omid Shoaei *, Francesco Svelto<br />
Unieversita degli studi di Pavia, 27100 Pavia, Italy, *University of<br />
Tehran, Iran<br />
RMO3A-5: Low-Power 1v 5.8GHz Bulk-Driven Mixer<br />
with On-Chip Balun in 0.18 µm CMOS<br />
D. Van Vorst, S. Mirabbasi<br />
University of British Columbia, Department of Electrical and<br />
Computer Engineering, Canada<br />
RMO4A: Wireless Systems<br />
Chair: Glenn Chang, MaxLinear<br />
Co-Chair: Natalino Camilleri, Alien Technology<br />
Room: A411<br />
RMO4A-1: A 5.8GHz Low-IF Mult-Data Rate GFSK<br />
Transceiver with Carrier Recovery and Integrated<br />
21dBm Power Amplifier<br />
C. Quek, S. Farahvash, W. Roberts, M. Romney, D. Walker,<br />
C. Otten, R. Wei, D. Schwan, M. Mostafa 1 , D. Haab, J. Liu 2 ,<br />
H. Liem 3 , R. Koupal 4<br />
RFMD, 1 Beceem Communications, 2 Marvell Semiconductor<br />
Inc., 3 Sigma Designs Inc., 4 Scintera Networks Inc., USA<br />
RMO4A-2: An Ultra Low Power 130nm CMOS Direct<br />
Conversion Transceiver for IEEE802.15.4<br />
C. Bernier, F. Hameau, G. Billiot, E. de Foucauld, S.<br />
Robinet, J. Durupt, F. Dehmas, E. Mercier, P. Vincent, L.<br />
Ouvry, D. Lattard, M. Gary, C. Bour, J. Prouvée, S. Dumas<br />
CEA-LETI, MINATEC, Grenoble, France<br />
RMO4A-3: A Compact and Power Efficient Local<br />
Oscillator Generation and Distribution System for<br />
Complex Multi Radio Systems<br />
Rozi Roufoogaran*, Tom (Qiang) Li*, Adedayo Ojo**,<br />
Shelley Cheng***, C. Paul Lee**, Sajeevan Mahadeva*,<br />
Prashant Shetter***, Arya Behzad**<br />
*Broadcom Corporation, Irvine, CA, **Broadcom Corporation,<br />
San Diego, CA, ***Broadcom Corporation, Sunnyvale, CA<br />
RMO4A-4: A 900-MHz RFID System with TAG-Antenna<br />
Magnetically-Coupled to the Die<br />
A. Finocchiaro*, G. Ferla*, G. Girlando*, F. Carrara**, G.<br />
Palmisano**<br />
*STMicroelectronics, Catania, Italy, **University of Catania,<br />
Catania, Italy<br />
RMO4A-5: A 2mW 400MHz RF Transceiver SoC in 0.18um<br />
CMOS Technology for Wireless Medical Applications<br />
M.R. Nezhad-Ahmadi*, G. Weale*, A. El-Agha*,<br />
D. Griesdorf*, G. Tumbush**, A.Hollinger***,M.<br />
Matthey***,H.Meiners***, S. Asgaran*<br />
*AMI Semiconductor, Waterloo, ON, Canada, **AMI Semiconductor,<br />
Colorado, USA, ***AMI Semiconductor, Marin, Switzerland<br />
RMO3B: UWB Front-end ICs<br />
Chair: Albert Wang, Dept. of Electrical<br />
Engineering, University of California, Riverside<br />
Co-Chair: Stefan Heinen, Infineon<br />
Technologies AG<br />
Room: A405<br />
RMO3B-1: (INvITED) 10GBASE-T for 10Gb/s Full<br />
Duplex Ethernet LAN Transmission over Structured<br />
Copper Cabling<br />
S. K. Gupta, J. Tellado, S. Begur, F. Yang, M. A. Inerfield,<br />
D. Dabiri, J. Dring, S. Goel, K. Muthukumaraswamy, F.<br />
McCarthy, G. Golden, J. Wu, S. Arno and S. Kasturia<br />
Teranetics Inc., Santa Clara, CA, USA<br />
RMO3B-2: A 38-Gb/s 2-tap Transversal Equalizer in<br />
0.13-um CMOS using a Microstrip Delay Element<br />
G. Ng, A. C. Carusone<br />
University of Toronto<br />
RMO3B-3: A 35-GHz Differential Distributed Loss-<br />
Compensation Amplifier<br />
James F. Buckwalter<br />
University of California - San Diego<br />
RMO3B-4: Wide-band CMOS Loop-Through Amplifier<br />
for Cable Tv Tuner<br />
S. Jin, T. Oh, K. Hong, H. Kim, B. Kim*<br />
System IC Team, LG Electronics, Inc., Seoul, Korea, *Pohang University<br />
of Science and Technology, Pohang, Korea<br />
RMO3B-5: A Novel Wide-Band Envelope Detector<br />
Yan-Ping Zhou, Guochi Huang, Byung-Sung Kim<br />
Sungkyunkwan University<br />
RMO4B: Advanced Frequency Synthesizer<br />
Design<br />
Chair: Bertan Bakkaloglu, Arizona State University<br />
Co-Chair: Sanjay Raman, Virginia Tech/DARPA<br />
Room: A405<br />
RMO4B-1: (INvITED) Analysis and Modeling of<br />
Noise Folding and Spurious Emission in Wideband<br />
ΣΔ Fractional-N Synthesizers<br />
Waleed Khalil1*, Hiva Hedayati**, Bertan Bakkaloglu**<br />
and Sayfe Kiaei**<br />
Intel Corporation*, Arizona State University**<br />
RMO4B-2: A 40GHz Fractional-N Frequency<br />
Synthesizer in 0.13 µm CMOS<br />
Chao-Ching Hung, Ding-Shiuan Shen and Shen-Iuan Liu<br />
Graduate Institute of Electronics Engineering and<br />
Department of Electrical Engineering, National Taiwan<br />
University, Taiwan, R. O. C.<br />
RMO4B-3: A 0.13 µm CMOS ∆∑ Frequency Synthesizer<br />
with an Area Optimizing LPF, Fast AFC Time, and a<br />
Wideband vCO for WCDMA/GSM/GPRS Applications<br />
Kun-Seok Lee, Hwayeal Yu, Hyung Ki Ahn, Hyoung-Seok<br />
Oh, Dongjin Keum, and Byeong-Ha Park<br />
Samsung Electronics<br />
RMO4B-4: A Fully Integrated 1.175-to-2GHz<br />
Frequency Synthesizer with Constant Bandwidth for<br />
DvB-T application<br />
L. Lu, L. Yuan, H. Min and Z. Tang<br />
ASIC & System State Key laboratory, Fudan University, China<br />
RMO4B-5: A Digitally Calibrated 64.3-66.2GHz Phase-<br />
Locked Loop<br />
Kun-Hung Tsai, Jia-Hao Wu, and Shen-Iuan Liu<br />
Graduate Institute of Electronics Engineering and<br />
Department of Electrical Engineering, National Taiwan<br />
University, Taiwan, R. O. C.<br />
RMO3C: Silicon Millimeter-Wave<br />
Chair: Kevin Kobayashi, RFMD<br />
Co-Chair: Paul Blount, Custom MMIC<br />
Design Services<br />
Room: A406-407<br />
RMO3C-1: A q-Band (40-45 GHz) 16-Element Phased-<br />
Array Transmitter in 0.18-µm SiGe BiCMOS Technology<br />
K.-J. Koh, J. W. May, G. M. Rebeiz<br />
University of California at San Diego, USA<br />
RMO3C-2: A 1.2v, 140GHz Receiver with On-Die<br />
Antenna in 65nm CMOS<br />
S. T. Nicolson*, A. Tomkins*, K. W. Tang*, A. Cathelin**, D.<br />
Belot**, and S. P. Voinigescu*<br />
*Edward S. Rogers, Sr. Dept. of Electrical & Computer<br />
Engineering, University of Toronto, Toronto, Canada,<br />
**STMicroelectronics, Crolles, France<br />
RMO3C-3: A 77GHz 4-Channel Automotive Radar<br />
Transceiver in SiGe<br />
H. P. Forstner, H. Knapp, H. Jäger*, E. Kolmhofer*<br />
Infineon Technologies AG, Germany, *DICE GmbH, Austria<br />
RMO3C-4: A 91 GHz Receiver Front-End in Silicon-<br />
Germanium Technology<br />
Jihwan Kim*, Javier Alvarado Jr.* **, and Kevin T. Kornegay*<br />
*Electronic Design Center, Georgia Institute of Technology Atlanta,<br />
**Raytheon Company, RF Electronics, Tucson, Arizona<br />
RMO3C-5: A W-Band SiGe 1.5v LNA for Imaging<br />
Applications<br />
J. W. May, G. M. Rebeiz<br />
University of California at San Diego<br />
RMO4C: RF Switches and Switchable<br />
Components<br />
Chair: Joe Staudinger, Freescale, Inc<br />
Co-Chair: Noriharu Suematsu, Mitsubishi Electrics<br />
Room: A406-7<br />
RMO4C-1: (INvITED) An Ultra-Low insertion loss T/R<br />
switch fully integrated with 802.11b/g/n transceiver<br />
in 90nm CMOS<br />
A.A.Kidwai, *C.T.Fu, R.Sadhwani, Chu Chi D, J.C.Jensen,<br />
S.Taylor<br />
Intel Corporation, Hillsboro, OR, *National Chiao-Tung<br />
University, Hsinchu, Taiwan<br />
RMO4C-2: A 5-GHz, 30-dBm, 0.9-dB Insertion Loss<br />
Single-Pole Double-Throw T/R Switch in 90nm CMOS<br />
C.-T. Fu* **, S. S. Taylor*, C.-N. Kuo**<br />
* Intel Corporation, Hillsboro, ** National Chiao-Tung<br />
University<br />
RMO4C-3: 5-6 GHz SPDT Switchable Balun Using CMOS<br />
Transistors<br />
B-W. Min, G. M. Rebeiz*<br />
University of Michigan at Ann Arbor, *University of<br />
California at San Diego<br />
RMO4C-4: A Stage-Bypass SOI-CMOS Switch for Multi-<br />
Mode Multi-Band Applications<br />
A. Scuderi, C.D. Presti*, F. Carrara*, B. Rauber**, G.<br />
Palmisano*<br />
STMicroelectronics, Catania, Italy, *University of Catania, Italy,<br />
**STMicroelectronics, Crolles, France<br />
RMO4C-5: High power GaN HEMT Microwave Switches<br />
for x-Band and Wideband Applications<br />
A. Bettidi, A. Cetronio, M. De Dominicis*, G. Giolo*, C.<br />
Lanzieri, A. Manna*, M. Peroni, C. Proietti, P. Romanini<br />
SELEX Sistemi Integrati SpA, *Elettronica SpA, Italy<br />
RMO3D: Next Generation RF Models and<br />
Devices<br />
Chair: Kevin McCarthy, University College Cork<br />
Co-Chair: Bumman Kim, Pohang University of<br />
Science and Technology<br />
Room: A404<br />
RMO3D-1: (INvITED) The new CMC standard compact<br />
MOS model PSP: advantages for RF applications<br />
A.J. Scholten, G.D.J. Smit, B.A. De Vries, L.F. Tiemeijer, J.A.<br />
Croon, D.B.M. Klaassen, X. Li*, W. Wu*, and G. Gildenblat*<br />
NXP-TSMC Research Center, Eindhoven, The Netherlands,<br />
*Department of Electrical Engineering, Arizona State<br />
University, Tempe, USA<br />
RMO3D-2: Experimental Characterization and<br />
Simulation of RF Intermodulation Linearity in a 90<br />
nm RF CMOS Technology<br />
Xiaoyun Wei, Guofu Niu, Ying Li, Ming-Ta Yang*, Stewart<br />
S. Taylor**<br />
Electrical and Computer Engineering Department, Auburn University,<br />
USA, *Spice Modeling Dept., TSMC, Taiwan, **Communications<br />
Circuits Lab, Intel Corporation, USA.<br />
RMO3D-3: Statistical variations in vCO Phase Noise<br />
due to Upconverted MOSFET 1/f Noise<br />
M. Erturk+*, T. Xia+, R. L. Wolf*, D. P. Scagnelli*, W. F.<br />
Clark+*<br />
+School of Engineering, University of Vermont, *IBM Systems and<br />
Technology Group<br />
RMO3D-4: Novel Pseudo-Drain (PD) RF Power Cell in<br />
0.13 µm CMOS Technology<br />
S.Y. Huang, C.C. Hung, T.L. Lee, V. Liang<br />
UMC, Inc., Taiwan<br />
RMO3D-5: Characterization and Modeling of Asymmetric<br />
LDD MOSFET for 65nm CMOS RF Power Amplifier Design<br />
Kai-Yi Huang, Po-Chih Wang, Yuh-Sheng Jean, Ta-Hsun<br />
Yeh, Ying-Hsi Lin<br />
Realtek Semiconductor Corp., Hsin-Chu, Taiwan, 300, ROC<br />
RMO4D: CMOS Transceiver Front-ends<br />
Chair: Georg Boeck, University of Technology, Berlin<br />
Co-Chair: Walid Ali-Ahmad, Mediatek<br />
Singapore Pte Ltd<br />
Room: A404<br />
RMO4D-1: A CMOS Code-Modulated Path-Sharing<br />
Multi-Antenna Receiver Front-End for Spatial<br />
Multiplexing, Spatial Diversity and Beamforming<br />
F. Tzeng, A. Jahanaian, P. Heydari<br />
University of California, Irvine<br />
RMO4D-2: A High Performance 2-GHz Direct-<br />
Conversion Front End with Single-Ended RF input in<br />
0.13µm CMOS<br />
Y.Feng*, G.Takemura**, S.Kawaguchi**, P.Kinget*<br />
*Columbia University, **Toshiba Corporation<br />
Semiconductor Company<br />
RMO4D-3: A 6-to-18 GHz Tunable Concurrent Dual-<br />
Band Receiver Front End for Scalable Phased-Arrays<br />
in 0.13µm CMOS<br />
Y. Wang, S. Jeon, A. Babakhani, and A. Hajimiri<br />
California Institute of Technology<br />
RMO4D-4: A rapid interference detector for ultra<br />
wideband radio systems in 0.13µm CMOS<br />
Tien-Ling Hsieh, Peter Kinget*, Ranjit Gharpurey<br />
University of Texas at Austin, *Columbia University<br />
RMO4D-5: Integrated Time Division Multiplexing<br />
Front-End Circuit for Multi-Antenna RF Receivers<br />
G. Krishnamurthy, K. G. Gard<br />
North Carolina State University, USA<br />
13:20<br />
13:40<br />
14:00<br />
14:20<br />
14:40<br />
15:30<br />
15:50<br />
16:10<br />
16:30<br />
16:50<br />
MonDAY<br />
65
66<br />
08:00<br />
08:20<br />
08:40<br />
09:00<br />
09:20<br />
10:10<br />
10:30<br />
10:50<br />
11:10<br />
11:30<br />
TUESDAY TECHnICAl SESSIonS 08:00-11:50<br />
RTU1A: Silicon Millimeter-Wave 2<br />
Chair: Carlos E. Saavedra, Queen’s University,<br />
Canada<br />
Co-Chair: Brian Floyd, IBM<br />
Room: A311<br />
RTU1A-1: (INvITED) mm-Wave Silicon ICs: an<br />
Opportunities for Holistic Design<br />
Ali Hajimiri<br />
California Institute of Technology<br />
RTU1A-2: A 24 GHz 4-Channel Phased-Array Receiver<br />
in 0.13 µm CMOS<br />
Tiku Yu, Gabriel M. Rebeiz<br />
University of California, San Diego<br />
RTU1A-3: A 24-GHz Full-360 degrees CMOS Reflection-<br />
Type Phase Shifter MMIC with Low Loss-variation<br />
Jen-Chieh Wu, Chia-Chan Chang, Sheng-Fuh Chang, and<br />
Ting-Yueh Chin<br />
Department of Electrical Engineering, Department<br />
of Communications Engineering, Center for<br />
Telecommunication Research, National Chung Cheng<br />
University, Chia-Yi, 621, Taiwan<br />
RTU1A-4: A High-Linearity, LC-Tuned, 24-GHz T/R<br />
Switch in 90-nm CMOS<br />
Piljae Park, Dong Hun Shin, John J. Pekarik*, Mark<br />
Rodwell and C. Patrick Yue<br />
High-Speed Silicon Lab, University of California, Santa<br />
Barbara, *IBM Microelectronics<br />
RTU1A-5: A 24 GHz 3.3 dB NF Low Noise Amplifier<br />
based upon Slow Wave Transmission Lines and the<br />
0.18 µm CMOS Technology<br />
A. Sayag*, S. Levin**, D. Regev**, D. Zfira**, S.<br />
Shapira**, D. Goren*** and D. Ritter*<br />
*Department of Electrical Engineering, Technion, Haifa,<br />
Israel, **Tower Semiconductors Inc., Migdal Haemek, Israel,<br />
***IBM Haifa Research Laboratories, Haifa, Israel<br />
RTU1E: On-chip Microwave Passive<br />
Components<br />
Chair: Bob Stengel, Motorola Labs<br />
Co-Chair: Louis Liu, Northrop Grumman<br />
Room: A313<br />
RTU1E-1: Broadband variable Passive Delay Elements<br />
Based on an Inductance Multiplication Technique<br />
E. Adabi, A. M. Niknejad<br />
University of California at Berkeley, USA<br />
RTU1E-2: wideband mixed lumped-distributedelement<br />
90° and 180° power splitters on silicon<br />
substrate for millimeter-wave applications<br />
A. Chen 1,2 , H.-B. Liang 3 , Y. Baeyens 1 , J. Lin 2 , Y.-K. Chen 1 .<br />
Y.-S. Lin 3<br />
1 Alcatel-Lucent/Bell Laboratories, 2 University of Florida,<br />
3 National Chi Nan Univeristy, Puli, Taiwan<br />
RTU1E-3: A Compact 5GHz q-enhanced Standing-<br />
Wave Resonator-based Filter in 0.13µm CMOS<br />
Dan Shi, Michael P. Flynn<br />
University of Michigan<br />
RTU1E-4: 3D Group-Cross Symmetrical Inductor: A<br />
New Inductor Architecture improving Self-Resonance<br />
Frequency and q Factor<br />
F. Gianesello 1 , D. Gloria 2 , C. Raynaud 1,2 , P. Touret 1,2 and<br />
B. Rauber 1<br />
1 STMicroelectronics, FTM, TPS Lab, 850 avenue Jean<br />
Monnet, 38926 Crolles, 2 CEA Leti, avenue des martyrs,<br />
38000 Grenoble<br />
RTU1E-5: A Derived Physically Expressive Circuit<br />
Model for Integrated Passives in RFIC<br />
K. Yang*, H. Hu*, K. L. Wu*, and W. Y. Yin**<br />
* Department of Electronic Engineering, The Chinese<br />
University of Hong Kong, Hong Kong , ** Center for<br />
Microwave and RF Technologies, Shanghai Jiao Tong<br />
University, Shanghai, China<br />
RTU1B: Digital Enabled vCOs<br />
Chair: Tian-Wei Huang, National Taiwan<br />
University<br />
Co-Chair: Adrian Maxim, Silicon Labs<br />
Room: A312<br />
RTU1B-1: A Self-Calibrated LC quadrature vCO in a<br />
Current-Limited Region<br />
S. Byun, K.-W. Kim*, D.-H. Lee*, J. Laskar*, C. S. Kim<br />
ETRI, South Korea, *Georgia Institute of Technology, USA<br />
RTU1B-2: vCO Gain Calibration Technique for GSM/<br />
EDGE Polar Modulated Transmitter<br />
H. K. Ahn, K.-S. Lee, H. Yu, H.-S. Oh, D. Keum, B.-H. Park<br />
Samsung Electronics, Korea<br />
RTU1B-3: A Low-Noise vCO with a Constant Kvco for<br />
GSM/GPRS/EDGE Applications<br />
T. Y. Lin, T. Y. Yu, L. W. Ke, G. K. Deng<br />
MediaTek Inc. No. 1, Dusing Rd. 1, Hsinchu Science Park,<br />
Hsinchu, Taiwan 300, R.O.C.<br />
RTU1B-4: A Transfer-Curve-Folded DCO in 0.13µm<br />
CMOS<br />
Jing-Hong Conan Zhan<br />
RF Division, MediaTek, HsinChu, Taiwan<br />
RTU1B-5: A Ring vCO with Wide and Linear Tuning<br />
Characteristics for a Cognitive Radio System<br />
J.Choi, K.Lim, J.Laskar<br />
Georgia Electronic Design Center, Georgia Institute of<br />
Technology<br />
RTU1C: Supply Modulators for Power<br />
Amplifiers<br />
Chair: Noriharu Suematsu, Misubishi Electrics<br />
Co-Chair: Freek van Straten, NXP<br />
Room: A315-316<br />
RTU1C-1: A 50MHz Bandwidth Multi-Mode PA Supply<br />
Modulator for GSM, EDGE and UMTS Application<br />
P.G. Blanken*, R. Karadi**, H.J. Bergveld**<br />
*Philips Research Laboratories, **NXP Semiconductors<br />
(Research), Netherlands<br />
RTU1C-2: An Envelope Tracking Power Amplifier using<br />
an Adaptive Biased Envelope Amplifier for WCDMA<br />
Handsets<br />
K. Takahashi, S. Yamanouchi, T. Hirayama, and K. Kunihiro<br />
NEC Corporation<br />
RTU1C-3: A 3x3mm 2 Embedded-Wafer-Level<br />
Packaged WCDMA GaAs HBT Power Amplifier Module<br />
with Integrated Si DC Power Management IC<br />
Gary Hau, Shih Hsu, Yutaka Aoki*, Takeshi Wakabayashi*,<br />
Naoki Furuhata**, Yukinobu Mikado**<br />
ANADIGICS, Inc., USA., CASIO COMPUTER CO., LTD., Japan.*,<br />
IBIDEN Co., Ltd., Japan. **<br />
RTU1C-4: Integration of a Cellular Handset Power<br />
Amplifier and a DC/DC Converter in a Silicon-On-<br />
Insulator (SOI) Technology<br />
A. Tombak, R. J. Baeten, J. D. Jorgenson, D. C. Dening<br />
RFMD Inc., Corporate R&D<br />
RTU1C-5: Supply Modulators for RF Polar Transmitters<br />
J. N. Kitchen, C. Chu*, S. Kiaei*, B. Bakkaloglu*<br />
Ubidyne, Inc., *Arizona State University, USA<br />
RTU1D: Advanced Frequency<br />
Generation Techniques<br />
Chair: Domine Leenaerts, NXP<br />
Co-Chair: Ting-Ping Liu, Winbond Electronics<br />
(Shanghai)<br />
Room: A314<br />
RTU1D-1: A Low Noise <strong>Program</strong>mable Clock Multiplier<br />
based on a Pulse Injection-Locked Oscillator with a<br />
Highly-Digital Tuning Loop<br />
B. M. Helal, C.-M. Hsu, K. Johnson, and M. H. Perrott<br />
Massachusetts Institute of Technology, USA<br />
RTU1D-2: A 1.6-to-3.2/4.8 GHz Dual-Modulus<br />
Injection-Locked Frequency Multiplier in 0.18um<br />
Digital CMOS<br />
L. Zhang, D. Karasiewicz, B. Cifctioglu and H. Wu<br />
Laboratory for Advanced Integrated Circuits and Systems,,<br />
Department of Electrical and Computer Engineering,,<br />
University of Rochester, Rochester, NY<br />
RTU1D-3: Sub-mW Multi-GHz CMOS Dual-Modulus<br />
Prescalers Based on <strong>Program</strong>mable Injection-Locked<br />
Frequency Dividers<br />
X. P. Yu, J. Zhou*, X. L. Yan, W. M. Lim**, M. A. Do**<br />
Zhejiang University, *Shanghai Jiao Tong University,<br />
**Nanyan Technological University, China and Singapore<br />
RTU1D-4: A 50-to-62GHz Wide-Locking-Range CMOS<br />
Injection-Locked Frequency Divider with Transformer<br />
Feedback<br />
Y.-H. Wong, W.-H. Lin, J.-H. Tsai, T.-W. Huang<br />
Dept. of Electrical Engineering and Graduate Institute of<br />
Communication Engineering, National Taiwan University,<br />
Taipei, Taiwan, 106, R.O.C.<br />
RTU1D-5: Fully Integrated Frequency and Phase<br />
Generation for a 6-18GHz Wideband Phased-Array<br />
Receiver in CMOS<br />
F. Bohn, H. Wang, A. Natarajan, S. Jeon, A. Hajimiri<br />
California Institute of Technology
TUESDAY TECHnICAl SESSIonS 13:20-17:10<br />
RTU3A: Complex Integration<br />
Challenges: Characterization and<br />
Modeling<br />
Chair: Francis Rotella, Peregrine Semiconductor<br />
Co-Chair: Yuhua Cheng, Peking University<br />
Room: A407<br />
RTU3A-1: (INvITED) ESD-RFIC Co-Design Methodology<br />
*Xiaokang Guan, *Xin Wang, *Lin Lin, *Guang Chen,<br />
*Albert Wang, **Hainan Liu, **Yumei Zhou, ***Hongyi<br />
Chen and ****Lee Yang<br />
*University of California, Riverside, USA, **Institute of<br />
Microelectronics, CAS, **Tsinghua Univ, **** SMIC<br />
RTU3A-2: Electromagnetic and Thermal Co-Analysis<br />
for Distributed Co-design and Co-simulation of Chip,<br />
Package and Board<br />
S.Wane* and A. Kuo**<br />
*:NXP-Semiconductors, Campus EffiScience, Caen,<br />
14000,France , **:Apache-Optimal Design Solutions, 2645<br />
Zanker Road San Jose (CA), USA<br />
RTU3A-3: Study of the different coupling mechanisms<br />
between a 4 GHz PPA and a 5-7 GHz LC-vCO<br />
S. Bronckers 1,2 , G. Vandersteen 1,2 , L. De Locht 2 , G. Van<br />
der Plas 1 , Y. Rolain 2<br />
1 IMEC, Belgium - 2 ELEC, Vrije Universiteit Brussel, Belgium<br />
RTU3A-4: A Simple and <strong>Complete</strong> Circuit Model for<br />
the Coupling Between Symmetrical Spiral Inductors<br />
in Silicon RF-ICs<br />
F. Vecchi*, M. Repossi**, A. Mazzanti***, P. Arcioni*,<br />
F. Svelto*<br />
*Università degli Studi di Pavia, Italy, **STMicroelectronics,<br />
Italy, *** Università di Modena e Reggio Emilia, Italy<br />
RTU3A-5: Isolation Enhancement in Integrated<br />
Circuits Using Dummy Metal Fill<br />
Steven G. Gaskill, Vikas S. Shilimkar, Andreas Weisshaar<br />
Oregon State University<br />
RTU4B: voltage Controlled Oscillators<br />
Chair: Jing-Hong Chen, jinghong@ieee.org<br />
Co-Chair: Stephen Dow, ON Semiconductor<br />
Room: A406<br />
RTU4B-1: A Temperature-Compensated Low-Noise<br />
Digitally-Controlled Crystal Oscillator for Multi-<br />
Standard Applications<br />
Ming-Da Tsai, Chih-Wei Yeh, Yi-Hsien Cho, Ling-Wei Ke,<br />
Pei-Wei Chen, Guang-Kaai Dehng<br />
MediaTek Inc. No. 1, Dusing Rd. 1, Hsinchu Science Park,<br />
Hsinchu, Taiwan 300, R.O.C.<br />
RTU4B-2: A BiCMOS voltage Controlled Oscillator and<br />
Frequency Doubler for K-Band Applications<br />
Tino Copani, Bertan Bakkaloglu, Sayfe Kiaei<br />
Connection One, Department of Electrical Engineering,<br />
Arizona State University, USA<br />
RTU4B-3: A Novel Compact Complementary Colpitts<br />
Differential CMOS vCO with Low Phase-Noise<br />
Performance<br />
Chien-Cheng Wei, Yi-Tzu Yang, and Hsien-Chin Chiu<br />
Department of Electronic Engineering, Chang Gung<br />
University, Taoyuan, Taiwan, Republic of China<br />
RTU4B-4:A Low-voltage High-Frequency CMOS LC-vCO<br />
Chih-Hsiang Chang and Ching-Yuan Yang<br />
Department of Electrical Engineering, National Chung<br />
Hsing University, 250, Kuo-Kuang Road, Taichung, Taiwan<br />
40254<br />
RTU4B-5: Current Reuse Cross-Coupling CMOS vCO<br />
Using the Center-tapped Transformer in LC Tank for<br />
Digitally Controlled Oscillator<br />
Youngjae Lee,Seokbong Hyun,Cheonsoo Kim<br />
RF/Analog SoC Design Team, ETRI, Korea<br />
RTU3B: UWB LNA’s<br />
Chair: Danilo Manstretta, Universita degli<br />
Studi di Pavia<br />
Co-Chair: Kirk Ashby, Microtune, Inc.<br />
Room: A406<br />
RTU3B-1: A 90-nm CMOS Two-Stage Low-Noise<br />
Amplifier for 3-5-GHz Ultra-Wideband Radio<br />
Giuseppina Sapone and Giuseppe Palmisano<br />
Università di Catania, Facoltà di Ingegneria, DIEES,<br />
Catania, Italy<br />
RTU3B-2: A 1.0 v, 2.5 mW, Transformer Noise-<br />
Canceling UWB CMOS LNA<br />
T. Kihara, T. Matsuoka, and K. Taniguchi<br />
Graduate School of Engineering, Osaka University, Osaka,<br />
Japan<br />
RTU3B-3: A 90-nm CMOS LNA for MB-OFDM UWB in<br />
qFN package<br />
W.K.Wong, M.A.Arasu, W.K.Chan*<br />
Institute of Microelectronics, *Wipro techno centre,<br />
Singapore<br />
RTU3B-4: A 2.5-dB NF 3.1-10.6-GHz CMOS UWB LNA<br />
with Small Group-Delay-variation<br />
H. Y. Hang, Y. S. Ln, and C. C. Chen<br />
Department of EE, National Chi Nan Unversity, Taiwan<br />
RTU3B-5: A RF CMOS Amplifier with Optimized<br />
Gain, Noise, Linearity and Return Losses for UWB<br />
Applications<br />
G. D. Nguyen, K. Cimino, M. Feng<br />
University of Illinois at Urbana-Champaign, USA<br />
RTU4C: Advances in silicon RFIC<br />
devices<br />
Chair: Eli Reese, TriQuint<br />
Co-Chair: Waleed Khalil, Intel<br />
Room: A315-316<br />
RTU4C-1: Effect of Technology Scaling on RF<br />
performance of the Transistors Fabricated by<br />
Standard CMOS Technology<br />
Han-Su Kim, Chulho Chung, Joohyun Jeong, Seung-Jae<br />
Jung, Jinsung Lim, JinHyoun Joe, Jaehoon Park, HyunWoo<br />
Lee, Gwangdoo Jo, Kangwook Park, Jedon Kim, Hansu<br />
Oh, and Jong Shik Yoon<br />
Samsung Electronics, System LSI Division<br />
RTU4C-2: Process dependence of 0.11 mm RF CMOS<br />
on High resistivity substrate for System on Chip (SOC)<br />
Application<br />
T. Ohguro, K. Kojima, N. Momo, H. S. Momose, Y.<br />
Toyoshima<br />
Toshiba Corporation, Semiconductor Company, Center for<br />
Semiconductor Research and Development, Japan<br />
RTU4C-3: Improved RF-Performance of Sub-Micron<br />
CMOS Transistors by Asymmetrically Fingered Device<br />
Layout<br />
C. Weyers, D. Kehrer*, J. Kunze, P. Mayr, D. Siprak**, M.<br />
Tiebout**, J. Hausner** and U. Langmann<br />
Ruhr-Universität Bochum, *Qimonda AG, **Infineon<br />
Technologies AG, Germany<br />
RTU4C-4: Effects of Forward Body Biasing on the High<br />
frequency Noise in Deep Submicron NMOSFETs<br />
Hao Su, Hong Wang, Tao Xu, Rong Zeng<br />
Microelectronic Centre, School of Electrical and Electronic<br />
Engineering, Nanyang Technological University, Singapore<br />
639798, Republic of Singapore<br />
RTU4C-5: On-chip Calibration of RF Detectors by DC<br />
Stimuli<br />
R.Ramzan, J.Dabrowski<br />
Linkoping Univetsity, Sweden<br />
RTU3C: WLAN and Broadband Power<br />
Amplfiers<br />
Chair: Freek van Straten, NXP<br />
Co-Chair: David Ngo, RFMD<br />
Room: A315-316<br />
RTU3C-1: A 27dBm, SiGe-BiCMOS Transmitter with<br />
62% PAE and Operation Class Control for Large-<br />
Bandwidth Polar Modulation<br />
M.A.T. Sanduleanu, R.P. Aditham*<br />
Philips Research Einhoven, *NXP Semiconductors, The<br />
Netherlands<br />
RTU3C-2: A Fully Integrated 2x2 Power Amplifier for<br />
Dual Band MIMO 802.11n WLAN Application using<br />
SiGe HBT Technology<br />
H.H.Liao, H.Jiang*, P.Shanjani, A.Behzad<br />
Broadcom Corporation, *San Francisco State University<br />
RTU3C-3: A Decade Bandwidth, Low voltage, Medium<br />
Power Class B Push-Pull Si/SiGe HBT Power Amplifier<br />
Employing Through-Wafer vias<br />
T. S. Wooten, L. E. Larson<br />
University of California at San Diego, Center for Wireless<br />
Communications, USA<br />
RTU3C-4: A x-Band CMOS Power Amplifier with On-Chip<br />
Transmission Line Transformers<br />
B.-H. Ku, S.-H. Baek and S. Hong<br />
School of Electrical Engineering and Computer Science, KAIST,<br />
Daejeon, 305-701, Korea<br />
RTU3C-5: A Broadband Low Cost GaN-on-Silicon MMIC<br />
Amplifier<br />
Bernard Geller, Allen Hanson, Apurva Chaudhari, Andrew<br />
Edwards and Isik C. Kizilyalli<br />
Nitronex Corporation, Durham, NC, 27703, USA<br />
13:20<br />
13:40<br />
14:00<br />
14:20<br />
14:40<br />
15:30<br />
15:50<br />
16:10<br />
16:30<br />
16:50<br />
TUESDAY<br />
67
68<br />
TUESDAY InTERACTIVE FoRUM 14:00-17:00<br />
RTUIF: Interactive Forum<br />
Chair: Yann Deval, University of Bordeaux,<br />
France IMS Lab<br />
Co-Chair: Tina Quach, Freescale Inc.<br />
Room: A3<br />
RTUIF-01: An RFIC within a Direct Open-<br />
Loop Polar Multimode Transmitter for<br />
UMTS/EDGE/GSM<br />
S. Osman, W. Lee, E. McCune, S. Hirano*, M.<br />
Maeda*, K. Ishida*<br />
Panasonic Emerging Advanced RF Laboratory<br />
(PEARL), USA, *Network Development Center<br />
(NDC), Matsushita Electric Industrial Co.,Ltd., Japan<br />
RTUIF-05: A 12-mW 500-Mb/s 1.8-µm<br />
CMOS Pulsed UWB Transceiver Suitable<br />
for Sub-meter Short-range Wireless<br />
Communication<br />
Mamoru Sasaki<br />
Hiroshima University, Hiroshima, Japan<br />
RTUIF-09: A Tunable Bandpass BAW-Filter<br />
Architecture Using Negative Capacitance<br />
Circuitry<br />
C. Tilhac, S. Razafimandimby, A. Cathelin, S.<br />
Bila*, V. Madrangeas*, D. Belot<br />
STMicroelectronics, Crolles, France, *XLIM<br />
Laboratory, University of Limoges<br />
RTUIF-13: A 1.2-v Low LO-Power 3-5 GHz<br />
Broadband CMOS Folded-Switching Mixer<br />
for UWB Receiver<br />
H.Y. Wang, K.F. Wei, J.S. Lin and H.R. Chuang<br />
Institute of Computer and Communication<br />
Engineering, Department of Electrical Engineering,<br />
National Cheng Kung University, Tainan, Taiwan<br />
RTUIF-17: 170-GHz Transceiver with On-<br />
Chip Antennas in SiGe Technology<br />
E. Laskin, K.W. Tang, K.H.K Yau, P. Chevalier*,<br />
A. Chantre*, B. Sautreuil*, S.P. Voinigescu<br />
Edward S. Rogers Sr.<br />
Dept. of ECE, University of Toronto, Toronto, OM M5S<br />
3G4, Canada, * STMicroelectronics, 850 rue Jean<br />
Monnet, F-38926, Crolles, France<br />
RTUIF-21: Colpitts vCOs for Low-Phase<br />
Noise and Low-Power Applications with<br />
Transformer-Coupled Tank<br />
E. van der Heijden, A. Farrugia**, R.<br />
Breunisse*, C.S. Vaucher, R. Pijper<br />
NXP Semiconductors Research, Eindhoven, The<br />
Netherlands , *NXP Semiconductors, Nijmegen, The<br />
Netherlands, **Philips Research, Eindhoven, The<br />
Netherlands<br />
RTUIF-25: A 5GHz CMOS PLL with Low<br />
KvCO and Extended Fine-Tuning Range<br />
Stephen P. Bruss and Richard R. Spencer<br />
University of California - Davis<br />
RTUIF-29: A New Highly-Scalable<br />
Equivalent Circuit Model for On-Chip<br />
Symmetrical Transformer with Accurate<br />
Substrate Modeling<br />
Chuan Wang, Huailin Liao, Chen Li, Xiong<br />
Yongzhong*, Ru Huang<br />
Institute of Microelectronics, Peking<br />
University, Beijing 100871, China, *Institute of<br />
Microelectronics, Singapore<br />
RTUIF-02: A GSM/EDGE Transmitter in<br />
0.13-µm CMOS Using Offset Phase Locked<br />
Loop and Direct Conversion Architecture<br />
S. F. Chen, Y. B. Lee, Bosen Tzeng, C. C. Tang,<br />
Charles Chiu, Rickey Yu, Ovid Lin, L. W. Ke, C.<br />
P. Wu, C. W. Yeh, P. Y. Chen, G. K. Dehng<br />
MediaTek Inc.<br />
RTUIF-06: UWB Antenna Diplexer with<br />
Mode Conversion using High quality<br />
Passive and Active Technology<br />
M. Gamal El Din*, Koen Mertens**, Bernd<br />
Geck* and H. Eul*<br />
*Institute of Radiofrequency and Microwave<br />
Engineering Hanover University, Appelstraße 9A,<br />
30167 Hanover, Germany, **Infineon Technologies<br />
Austria AG, Siemensstrasse 2, 9500 Villach, Austria.<br />
RTUIF-10: A 71-76 GHz CMOS variable<br />
Gain Amplifier Using Current Steering<br />
Technique<br />
Che-Chung Kuo, Zuo-Min Tsai, Jeng-Han Tsai,<br />
Huei Wang<br />
The Graduate Institute of Communication<br />
Engineering of National Taiwan University<br />
RTUIF-14: Scalable Statistical<br />
Measurement and Estimation of a mm-<br />
Wave CML Static Divider Sensitivity in<br />
65nm SOI CMOS<br />
Daeik D. Kim, Choongyeun Cho, Jonghae Kim<br />
IBM Semiconductor Research and Development<br />
Center<br />
RTUIF-18: 60 GHz Transmitter Circuits in<br />
65nm CMOS<br />
Alberto Valdes-Garcia, Scott Reynolds, and<br />
Jean-Oliver Plouchart<br />
IBM T. J. Watson Research Center<br />
RTUIF-22: An 11.5% Frequency Tuning,<br />
-184 dBc/Hz Noise FOM 54 GHz vCO<br />
S. Bozzola*, D. Guermandi**, A.<br />
Mazzanti***, F. Svelto*<br />
*Università degli Studi di Pavia,<br />
**STMicroelectronics, ***Università di Modena e<br />
Reggio Emilia, Italy<br />
RTUIF-26: A 0.13 µm CMOS 90 dB variable<br />
Gain Pre-power Amplifier using Robust<br />
Linear-in-dB Attenuator<br />
Y. Araki, T. Hashimoto, S. Otaka<br />
Corporate R&D Center, Toshiba Corporation, Japan<br />
RTUIF-30: Nonlinear Behavioral<br />
Modelling of Oscillators in vHDL-AMS<br />
using Artificial Neural Networks<br />
M. Kraemer, D. Dragomirescu, R. Plana<br />
LAAS-CNRS, University of Toulouse, 7 Avenue de<br />
Colonel Roche, 31077 Toulouse cedex 4, France<br />
RTUIF-03: A Low Spurious 400M-6GHz<br />
SiGe-MMIC Direct Conversion Transceiver<br />
using 2fLO LO Switching Configuration for<br />
Cognitive Radio<br />
K. Tsutsumi, F. Onoma, J. Koide, M. Uesugi,<br />
N. Suematsu, H. Harada*<br />
Mitsubishi Electric Corp., *National Institute of<br />
Information and Communications Technology, Japan<br />
RTUIF-07: A 10-Gb/s 200-mW Distributed<br />
MZI Driver Implemented in Silicon-<br />
Photonics-Enabled 0.13µm SOI CMOS<br />
Technology<br />
D. Kucharski, B. Welch, V. Sadagopan, and<br />
T. Pinguet<br />
Luxtera Inc.<br />
RTUIF-11: Design and Analysis of a High-<br />
Performance Cascode Bipolar Low Noise<br />
Amplifier with Shunt feedback Capacitor<br />
Byoungjoong Kang, Sung-Gi Yang, Jinhyuck<br />
Yu, Wooseung Choo, Byeong-Ha Park<br />
SAMSUNG ELECTRONICS Co., Ltd, Korea<br />
RTUIF-15: An On-Chip Dipole Antenna for<br />
Millimeter-Wave Transmitters<br />
P. H. Park, S. S. Wong<br />
Stanford University, USA<br />
RTUIF-19: A 40 GHz, Broadband, Highly<br />
Linear Amplifier, Employing T-coil<br />
Bandwidth Extension Technique<br />
Hammad M. Cheema, Reza Mahmoudi,<br />
M.A.T. Sanduleanu*, Arthur van Roermund<br />
Department of Electrical Engineering, Mixed-signal<br />
Microelectronics group, Eindhoven University of<br />
Technology, The Netherlands, *Philips Research<br />
Eindhoven, The Netherlands<br />
RTUIF-23: Frequency Dividers with<br />
Enhanced Locking Range<br />
Kun-Hung Tsai, Jia-Hao Wu, and Shen-Iuan Liu<br />
Graduate Institute of Electronics Engineering and<br />
Department of Electrical Engineering, National<br />
Taiwan University, Taiwan, R. O. C.<br />
RTUIF-27 :A 600MHz CMOS OFDM LINC<br />
Transmitter with a 7 Bit Digital Phase<br />
Modulator<br />
K. Kim, S. Byun*, K. Lim, C-H. Lee**, J. Laskar<br />
Georgia Institute of Technology, *ETRI, Daejeon,<br />
305-350, South Korea, **Samsung RFIC Design<br />
Center at Georgia Tech<br />
RTUIF-31: Uncovering the Physical<br />
Processes that Underlie AM/PM<br />
Conversion in Nonlinear Amplifiers<br />
S. Moloudi, A. A. Abidi<br />
University of California at Los Angeles<br />
RTUIF-04: A Direct Conversion 4.9GHz to<br />
5.925GHz OFDM Receiver with Matched<br />
Non-Integer quadrature LO<br />
Nitin Madan, Amit Burstein, Joshua Park*,<br />
Kerry Phillips, Jeffrey Feigin<br />
Skyworks Solutions Inc., USA, *Sitrix Inc., USA<br />
RTUIF-08: A 0.13 µm CMOS 4-Channel<br />
UWB Timed Array Transmitter Chipset<br />
with sub-200ps Switches and All-Digital<br />
Timing Circuitry<br />
Z. Safarian, T-S.Chu, H. Hashemi<br />
University of Southern California<br />
RTUIF-12: A 2.2dB NF, 5-6GHz Direct<br />
Conversion Multi-Standard RF Receiver<br />
Front-End in 90nm CMOS<br />
Brent R. Carlton, Jon S. Duster, Stewart S.<br />
Taylor, and Jing-Hong Conan Zhan*<br />
Communication Circuits Lab, Intel, Hillsboro, Oregon,<br />
USA; *RF Division, MediaTek, HsinChu, Taiwan<br />
RTUIF-16: A 24-GHz CMOS Butler Matrix<br />
MMIC for Multi-Beam Smart Antenna<br />
Systems<br />
T.-Y. Chin, S.-F. Chang, C.-C. Chang, J.-C. Wu<br />
Department of Electrical Engineering, Department<br />
of Communications Engineering, Center for<br />
Telecommunication Research, National Chung<br />
Cheng University, Chia-Yi, 621, Taiwan<br />
RTUIF-20: A 44.5 GHz Differentially Tuned<br />
vCO in 65nm Bulk CMOS with 8% Tuning<br />
Range<br />
H.M. Cheema, R. Mahmoudi, A.H.M.van<br />
Roermund, M.A.T. Sanduleanu*<br />
Department of Electrical Engineering, Eindhoven<br />
University of Technology, *Philips Research,<br />
Eindhoven, The Netherlands<br />
RTUIF-24: A 3 µW, 400 MHz Divide-by-5<br />
Injection-Locked Frequency Divider with<br />
56% Lock Range in 90nm CMOS<br />
Julie R. Hu, Brian P. Otis<br />
University of Washington.edu<br />
RTUIF-28: A Low Insertion Loss, High<br />
Linearity, T/R Switch in 65 nm Bulk CMOS<br />
for WLAN 802.11g Applications<br />
Yiping Han,Keith Carter*, Lawrence E.<br />
Larson, Arya Behzad*<br />
University of California at San Diego, *Broadcom, USA
General Chair Jenshan Lin<br />
TPC Co-Chair Tina Quach<br />
TPC Co-Chair Yann Deval<br />
Finance Chair David Ngo<br />
Workshops Chair Jacques C. Rudell<br />
Digest & CD-ROM chair Bertan Bakkaloglu<br />
Transactions / Guest Editor Albert Jerng<br />
RFIC STEERInG CoMMITTEE<br />
Invited Papers Chair Derek Schaeffer<br />
Panel Sessions Chair Kevin Kobayashi<br />
Publicity Chair Noriharu Suematsu<br />
Student Papers Yuhua Cheng<br />
Secretary Kevin McCarthy<br />
Conference Coordinator Larry Whicker<br />
Webmaster Takao Inoue<br />
EXECUTIVE CoMMITTEE and ADVISoRY boARD<br />
Executive Committee Advisory Board<br />
Natalino Camilleri, RFIC Chair of the Year 2003 Fazal Ali Mahesh Kumar David Lovelace<br />
Joseph Staudinger, RFIC Chair of the Year 2005 Eliot Cohen Louis Liu Vijay Nair<br />
Stefan Heinen, RFIC Chair of the Year 2006 Reynold Kagiwada Steve Lloyd Kenneth Oh<br />
Luciano Boglione, RFIC Chair of the Year 2007 Sayfe Kiaei<br />
Jenshan Lin, RFIC Chair of the Year 2008<br />
F. Ali<br />
W. Ali-Ahmad<br />
K. Ashby<br />
B. Bakkaloglu<br />
J. Begueret<br />
D. Belot<br />
P. Blount<br />
G. Boeck<br />
L. Boglione<br />
N. Camilleri<br />
S. Chakraborty<br />
G. Chang<br />
J. Chen<br />
N. Cheng<br />
Y. Cheng<br />
S. Dow<br />
B. Floyd<br />
TECHnICAl PRoGRAM CoMMITTEE<br />
R. Gharpurey<br />
A. Gupta<br />
T. Hancock<br />
A. Hanke<br />
S. Heinen<br />
F. Henkel<br />
T. Huang<br />
S. Iezekiel<br />
L. Jansson<br />
A. Jerng<br />
W. Khalil<br />
J. Khoja<br />
S. Kiaei<br />
B. Kim<br />
K. Kobayashi<br />
L. Kushner<br />
C. Lee<br />
D. Leenaerts<br />
D. Lie<br />
L. Liu<br />
T. Liu<br />
D. Lovelace<br />
D. Manstretta<br />
A. Maxim<br />
K. McCarthy<br />
S. Mehta<br />
J. Mondal<br />
D. Ngo<br />
S. Pellerano<br />
A. Podell<br />
S. Raman<br />
M. Reddy<br />
B. Redman-White<br />
E. Reese<br />
F. Rotella<br />
J. Rudell<br />
C. Saavedra<br />
D. Schaeffer<br />
J. Staudinger<br />
B. Stengel<br />
N. Suematsu<br />
J. Tham<br />
B. Thompson<br />
F. van Straten<br />
A. Wang<br />
P. Yue<br />
G. Zhang<br />
69
70<br />
MESSAGE FRoM THE ARFTG CHAIRS<br />
T<br />
he 71st Automatic RF Techniques Group (ARFTG) Microwave Measurement Conference will be held at the<br />
Omni Hotel at CNN Center in Atlanta, Georgia, on Friday, 20 June 2008. This year’s conference theme is<br />
“Network Analysis – 50 years on”. The conference will provide an opportunity to celebrate the role of the<br />
network analyzer in our industry during the past, present, and into the future. Doug Rytting, formerly of<br />
Hewlett Packard and Agilent Technologies, will start the conference and set the scene with a keynote address.<br />
Regular papers will also be focusing on network analysis and related topics.<br />
The conference will be preceded on Thursday afternoon by the Nonlinear Vector Network Analyzer (NVNA) Users’<br />
Forum - an informal discussion group devoted to sharing information and issues related to instrumentation utilized<br />
in vector large-signal analysis of microwave circuits and systems that contain nonlinear elements. All interested<br />
people are welcome to attend. Also, be sure to check out the joint ARFTG/IMS sponsored workshops. ARFTG is cosponsoring<br />
and co-organizing two workshops: “High Speed Signal Integrity Workshop – Emphasis on Jitter” and<br />
“Applications and Misapplications of Measurement Uncertainty”.<br />
An important part of all ARFTG conferences is the opportunity to interact one-on-one with colleagues, experts and<br />
vendors in the RF and microwave test and measurement community. Starting with the continental breakfast in the<br />
exhibition area, continuing through the two exhibition/interactive forum sessions and the luncheon, there will be<br />
ample opportunity for discussion with others facing similar challenges. So, come and join us. You’ll find that the<br />
atmosphere is informal, open, and friendly.<br />
Finally, we would like to thank all those that have contributed to making this event possible. In particular: Chris<br />
Ward, who, as local host, has undertaken all local planning arrangements; Elsie Cabrera, for providing liaison with<br />
all the other activities that are taking place; and, Joe Tauritz, for making arrangements for the companies that<br />
have chosen to exhibit at the conference. We also thank the authors who have contributed their technical papers,<br />
the members of the Technical <strong>Program</strong> Committee who reviewed the submissions and the exhibitors who will be<br />
bringing some of their latest products to show at the conference.<br />
Nick M Ridler<br />
Conference Chair<br />
71st ARFTG Conference<br />
Roger D Pollard<br />
Technical <strong>Program</strong> Chair<br />
71st ARFTG Conference
Session 1 - 50 years of vNAs<br />
08:00–09:40<br />
Network Analyzers – 50 Years On<br />
(Keynote – invited)<br />
D K Rytting<br />
Rytting Consulting, Santa Rosa, CA, USA<br />
Network Analyzer Calibrations –<br />
Yesterday, Today and Tomorrow<br />
K Wong<br />
Agilent Technologies, Santa Rosa, CA, USA<br />
Using Uncertain Complex Numbers<br />
with vNA Measurements<br />
B D Hall<br />
Measurement Standards Laboratory of New<br />
Zealand, New Zealand<br />
An advanced Full Path Loop-Back<br />
Testing Technique for Embedded RF<br />
Indentification (RFID) System-on-a-<br />
Chip (SoC) Applications<br />
B Kim, I-C Park, D Yoo, J Koo, I Kim, B W<br />
Choi, Y Bae and B Y Kim<br />
Samsung Electronics Co Ltd, Gyeonggi-Do,<br />
South Korea<br />
Measurement Uncertainty of Direct<br />
Power Measurement Using the<br />
Pulse Sensor MA2411B<br />
Y S (B) Lee<br />
Anritsu Corporation, Morgan Hill, CA, USA<br />
ARFTG TECHnICAl SESSIonS<br />
Session 2 - vNA calibration<br />
10:20–12:00<br />
Monte-Carlo Analysis of<br />
Measurement Uncertainties for On-<br />
Wafer Thru-Reflect-Line Calibrations<br />
J Leinhos 1,2 and U Arz 2<br />
1 Leibniz Universität Hannover, Germany;<br />
2 Physikalisch-Technischen Bundesanstalt<br />
(PTB), Germany<br />
A Mixed-Mode TRL Algorithm<br />
Based on Symmetrical Reflection<br />
Standards<br />
W Liang 1 and L Quanli 2<br />
1 Beijing University of Aeronautics and<br />
Astronautics, Beijing, China;<br />
2 Agilent Technologies, Beijing, China<br />
Accurate Broadband RLCG<br />
Parameter Extraction with TRL<br />
Calibration<br />
M Wojnowski1 , M Engl1 , V Issakov1 ,<br />
G Sommer1 and R Weigel2 1Infineon Technologies AG, Neubiberg,<br />
Germany;<br />
2University of Erlangen-Nuremberg, Germany<br />
Over-Determined Offset Short<br />
Calibration of a vNA<br />
J P Hoffmann, P Leuchtmann and R<br />
Vahldieck<br />
ETH Zurich, Zurich, Switzerland<br />
Session 3 - Passive components<br />
13:30–14:45<br />
A New Method for Determining the<br />
Characteristic Impedance Zc of<br />
Transmission Lines Embedded in<br />
Symmetrical Transitions<br />
J E Zúñiga-Juárez, J A Reynoso-<br />
Hernández and A Zárate-de Landa<br />
CICESE, Ensenada, B C México<br />
Analysis and Design of Coupled<br />
Coplanar Stripline Balun Probe for<br />
Differential Circuit Measurements<br />
J S Kim 1 , W R Eisenstadt 1 , M Andrew 2<br />
and P Hanaway 2<br />
1 University of Florida, FL, USA;<br />
2 Cascade Microtech Inc, Beaverton, OR, USA<br />
Comparison of a Single Channel and<br />
a Dual Channel Microwave<br />
Attenuation Measurement System<br />
T Y Wu and S W Chua<br />
National Metrology Centre, Singapore<br />
ARFTG InTERACTIVE FoRUM<br />
09:40–10:20 and 14:45–15:15<br />
High-Power On-Wafer Capabilities<br />
of a Time Domain Load-pull Setup<br />
F De Groote 1 , J P Teyssier 1,2 , J Verspecht<br />
1 and J Faraj 2<br />
1 Verspecht-Teyssier-DeGroote SAS, Brive,<br />
France; 2 Limoges University, Brive, France<br />
verification of Wafer-Level<br />
Calibration Accuracy at High<br />
Temperatures<br />
A Rumiantsev 1 and R Doerner 2<br />
1 SUSS MicroTec Test Systems GmbH, Sacka,<br />
Germany; 2 Ferdinand-Braun-Institut fuer<br />
Hoechstfrequenztechnik (FBH), Berlin,<br />
Germany<br />
A Load-Pull Wafer-Mapper<br />
F Vanaverbeke, K Vaesen, D Xiao, L<br />
Pauwels, W De Raedt, M Germain,<br />
S Degroote, J Das, J Derluyn and D<br />
Schreurs<br />
IMEC vzw, Kapeldreef, Belgium<br />
quantitative Understanding of the<br />
Mated Interface Characteristics of<br />
Precision Coaxial Connectors at<br />
Microwave and Millimeter-Wave<br />
Frequencies<br />
M Horibe, M Shida and K Komiyama<br />
National Metrology Institute of Japan, Japan<br />
Session 4 - Active devices<br />
15:15–16:40<br />
Phase Shift De-Skew of Oscilloscope<br />
Current and voltage Sensing Probes<br />
by Means of Energy Balance<br />
P Molina Gaudó and C Bernal<br />
University of Zaragoza, Zaragoza, Spain<br />
Active Harmonic Phase Standard<br />
with Low Sensitivity to Input Power<br />
Levels and Fundamental Drive<br />
Frequency<br />
D Gunyan and Y P Teoh<br />
Agilent Technologies, Santa Rosa, CA, USA<br />
An Extension of Existing Real-Time<br />
On-wafer Load Pull Systems to Perform<br />
Time Domain voltage/Current<br />
Waveform Reconstruction<br />
I Volokhine<br />
NXP-TSMC Research Center, Eindhoven, The<br />
Netherlands<br />
On-Chip Cancellation of Parasitic<br />
Effects for Dielectric Permittivity<br />
Measurement<br />
C Song and P Wang<br />
Clemson University, SC, USA<br />
A Method for Automatic Tuner<br />
verification<br />
E M Johnson<br />
Freescale Semiconductor, Tempe, AZ, USA<br />
FRIDAY<br />
7
7<br />
WoRKSHoPS<br />
Workshops and Tutorials are offered on Sunday, Monday, and Friday of Microwave Week. They are distinguished by the following features:<br />
• Advanced Level Workshops (designated as WSA, WSB, etc.) present the state of the art to specialists who are already experienced<br />
in the topic area<br />
• Tutorial Level Workshops (designated as TSA, TSB, etc.) are targeted towards educating attendees in new areas of microwave<br />
technology, reviewing material that is primarily a revision of previously published information.<br />
All Workshops and Tutorials will be held at the Georgia World Congress Center. Specific room assignments will be announced at check-in.<br />
WSA — 08:00-17:00<br />
High Data Rate 60GHz Radio Link Applications & Design<br />
Topics and Speakers:<br />
1- Millimeter Wave Terrestrial Gigabit Class Radio Technology,<br />
Lockie Douglas, Gigabeam<br />
2- Design and Layout of Single-Chip 77-96GHz Receivers and<br />
Transceivers, Sean Nicolson PhD, University of Toronto<br />
3- A Transceiver for 60GHz High Data Rate Wireless Transmission,<br />
Prof. Joy Laskar, Georgia Tech<br />
4- A CMOS mmW approach for 60GHz Transceiver - Francesco Svelto,<br />
Pavia<br />
5- 60 GHz RF Transceiver Circuits and System Integration Based on<br />
Commercial pHEMT and mHEMT Technologies, Prof. Herbert Zirath,<br />
Chalmers University<br />
6- SiGe Power Amplifiers for 60 GHz Communication Systems, Prof.<br />
Georg Boeck, Berlin University of Technology<br />
7- Broadband Millimeter Wave Communication, System Design<br />
Concepts and Trials, Wilhelm Keusgen PhD, Heinrich-Hertz-Institut<br />
Berlin<br />
Organizers: Mr. Didier BELOT, ST Microelectronics; Prof. Jean-Baptiste<br />
BEGUERET, University of Bordeaux; Prof. Georg Boeck, TU, Berlin; Eric<br />
Kerherve from Bordeaux<br />
Sponsor: RFIC<br />
Workshop Abstract: The presentations in this workshop will cover<br />
different aspects of 60GHz radio links. The morning session will open<br />
with a discussion of the applications of 60GHz radios followed by an<br />
overview of the main challenges of mmW integration. Then, several<br />
speakers will present example solutions in both CMOS and SiGe<br />
technologies.<br />
SUnDAY WoRKSHoPS<br />
WSB — 08:00-17:00<br />
Advances in Circuit Design for Wideband Millimeter<br />
Wave Applications<br />
Topics and Speakers:<br />
1- Millimetrer Wave Systems: Existing and Up-coming Applications,<br />
Dr. Dietmar Köther, IMST, RF Test Center<br />
2- System Level Aspects, Baseband Architectures, Modulation<br />
and Standardization of 60 GHz Wireless Communication, Dr. André<br />
Bourdoux, IMEC<br />
3- Millimeter Wave Design in Bulk-CMOS and CMOS-SOI, Dr. Andreia<br />
Cathelin, STMicroelectronics, FTM/Central CAD & Design Solutions<br />
4- S-Parameters Measurements and Small Signal Modeling of sub-<br />
65nm Silicon MOSFETs up to 220 GHz, Nicolas Waldhoff, IEMN<br />
5- Circuit Design Challenges for High-Power mmWave and THz<br />
Applications, Prof. Ullrich Pfeiffer, University of Siegen, Institute of<br />
High-Frequency and Quantum Electronics<br />
6- 80-160 GHz CMOS and SiGe BiCMOS Building Block Design, Prof.<br />
Sorin Voinigescu, University of Toronto<br />
7- Nonlinear Millimeter-Wave Modeling of Electron Devices in the<br />
Presence of Low-Frequency Dispersive Effects, Dr. Antonio Raffo,<br />
University of Ferrara<br />
8- Highly Integrated MMICs Based on III-V Technologies for<br />
Milimeterwave/THz Applications, Prof. Herbert Zirath, Chalmers<br />
University of Technology, Department of Microtechnology and<br />
Nanoscience<br />
Organizers: Prof. Dominique Schreurs, K.U.Leuven, Div. ESAT-TELEMIC;<br />
Prof. Patrick Reynaert, K.U.Leuven, Div. ESAT-MICAS<br />
Sponsors: MTT-1, MTT-6, MTT-20, MTT-23, RFIC<br />
Workshop Abstract: Wireless and mobile telecommunication<br />
applications in the lower microwave frequency range have become<br />
commonplace. To be able to offer higher data rates to the demanding
market, research is gradually focusing towards millimeter wave<br />
frequencies. The advantage of millimeter waves is that they are capable<br />
of providing wide (in the absolute sense) bandwidth for very highspeed<br />
wireless access. Next, millimeter wave networks are becoming<br />
viable due to cost reduction in semiconductor devices. This workshop<br />
aims at informing the attendees about the recent developments in this<br />
area. The workshop includes overview talks on emerging wideband<br />
millimeter wave applications. Recent advances in circuit design using<br />
various device technologies will be covered in great detail. As these<br />
progresses are intrinsically connected with developments in modeling<br />
and measurement techniques, those aspects are addressed as well.<br />
Ample time will be foreseen to allow interactions between attendees<br />
and speakers.<br />
WSC — 13:00-17:00<br />
Recent Advances in GaN HEMT Performance, Modeling,<br />
Linearity and Design Techniques<br />
Topics and Speakers:<br />
1- GaN Power Amplifiers for Mobile Communication Systems, Dr.<br />
Ruediger Quay, Fraunhofer Institute<br />
2- Advanced Modeling Techniques for GaN Wideband Gap HEMT<br />
Devices, Dr. Rolf Jansen, Aachen University<br />
3- Physical Phenomena Affecting the Linearity of AlGaN/GaN HFET<br />
Amplifiers, Dr. Robert J. Trew, No. Carolina State,EE<br />
4- Impact of Access Regions on GaN HFETs, Dr. M. Uren, QinetiQ, Micro<br />
Nanotechnology Labs<br />
5- GaN-HEMT Switch-Mode Microwave Power Amplifiers for Class-S<br />
Concept, Dr. Chafik Meliani, Ferdinand Braun Institute<br />
6- Recent Progress of GaN-HEMT Performance, Dr. Toshihide Kikkawa,<br />
Fujitsu Laboratories Ltd.<br />
Organizers: Mr. Frank Sullivan, Raytheon Company; Dr. Rolf Jansen,<br />
Aachen University; Dr. Ruediger Quay, Fraunhofer Institute<br />
Sponsors: MTT-1, MTT-6, MTT-7<br />
Workshop Abstract: In the last 2-3 years, GaN wideband gap<br />
HEMT technology has resulted in high power transistors with record<br />
breaking performance. Commercialization of devices has started in<br />
the U.S. and Japan and key groups in Europe are engaged in bringing<br />
power HEMT technology into products. Reliability issues have been<br />
addressed with very promising results. A key to the design of future<br />
high performance products is GaN HEMT modeling and the challenge<br />
is increasing accuracy to meet the linearity needs of future systems.<br />
The high power applications need modeling that includes thermal<br />
and memory effects. Improvements with respect to current collapse<br />
and knee-walkout modeling have been achieved. New developments<br />
SUnDAY WoRKSHoPS<br />
include switch mode power amplifiers that come along with the need<br />
of high model accuracy. The new circuit architectures for efficient<br />
linear applications call for more elaborate circuit design strategies and<br />
pose additional requirements on model accuracy and verification.<br />
WSD — 08:00-17:00<br />
RF SoC Interaction with Peripherals and the Demand for<br />
Attention to Coupling Effects in Early Design Phases<br />
Topics and Speakers:<br />
1- Cross Coupling in Baseband-Radio SoCs, Dr. Dietolf Seippel,<br />
Infineon Technologies<br />
2- Parasitic-aware Design Methodology for Wireless SoC, Dr. Robert<br />
A. Mullen, Cadence<br />
3- Post-Silicon and Pre-Silicon Techniques for Mitigating the Effects<br />
of Interference in Wireless SoCs, Oren Eliezer, Texas Instruments<br />
4- Advanced EM Simulation Technology for RF SoC Modeling, Dr. Jan<br />
Vanhese, Agilent<br />
5- Noise Coupling in RF and Mixed-signal Circuits: Modeling and<br />
Experimental Validation, Dr. Geert van der Plas, IMEC<br />
6- Electrical Signal Integrity Analysis in Mixed-Signal and RF ICs, Dr.<br />
Francois Clement, S.A. CWS<br />
7- RF SoC Coupling Effects and Interaction with Peripherals: Needs<br />
to be Dealt with in the Early Design Phases, Dr. Jan Niehof, NXP<br />
Semiconductors<br />
8- Isolation Issues in Multi-Chip Radio Modules for Cellular<br />
Applications: On Chip, Module-Chip and In Module, Jyoti Mondal,<br />
Freescale Semiconductor<br />
Organizers: Dr. Jan Niehof, NXP Semiconductors; Oren Eytan Eliezer,<br />
Texas Instruments<br />
Sponsor: RFIC<br />
Workshop Abstract: This workshop will focus on the key requirements<br />
to address physical design issues in the early design phases of complex<br />
RF SoC design. The workshop will be divided into two sessions. The<br />
morning session will focus on the required specifications related<br />
to the SoC physical design, including tool and flow requirements.<br />
Recognized companies and partnerships active in the semiconductor<br />
industry will give these presentations and explain their needs through<br />
actual examples. In the afternoon session, EDA vendors will give<br />
presentations to react on the customer requirements. They will present<br />
the future direction and CAD/EDA roadmaps to address these issues.<br />
SUnDAY<br />
73
74<br />
WSE — 08:00-12:00<br />
Advanced PLL Architectures for Embedded SoC<br />
Applications<br />
Topics and Speakers:<br />
1- Digital Clock and Data Recovery for Software-<strong>Program</strong>mable Links,<br />
Jafar Savoj, Rambus Inc<br />
2- Why Moore’s law and scaling work for mm-wave CMOS<br />
Synthesizers:, Dr. Sorin Voinigescu, Univrsity of Toronto<br />
3- Understanding Digital Quantization in Delta-Sigma and Related<br />
Fractional-N PLLs, Dr. Sudhakar Pamarti, UCLA<br />
4- Digital Implementation Techniques for Fractional-N Frequency<br />
Synthesizers, Dr. Michael Perott, MIT<br />
5- All-digital PLL Architectures for Fully-integrated Receiver SoCs, Dr.<br />
Francesco Svelto, University of Pavia<br />
Organizers: Dr. Bertan Bakkaloglu, Arizona State University; Dr. Sayfe<br />
Kiaei, Arizona State University<br />
Sponsor: RFIC<br />
Workshop Abstract: The ongoing migration of RF systems towards<br />
single-chip mixed-signal receiver/transceiver SoCs pushed towards<br />
a more digital-friendly implementation of the RF frequency<br />
synthesizers. The speed of modern CMOS technologies and advances<br />
in digital signal processing have enabled the evolution of PLL clock<br />
synthesis and clock and data recovery (CDR) circuits from analog to<br />
digital architectures. Digital solutions benefit from reduction of area<br />
and power consumption with device scaling, and facilitate porting of<br />
circuits across process nodes. Such designs achieve much lower power<br />
consumption, higher levels of integration, and improved immunity to<br />
supply and substrate noise compared to their analog counterparts.<br />
This workshop discusses state of the art approaches to digital intensive<br />
PLLs for SoC applications.<br />
WSF — 08:00-17:00<br />
Medical Applications of RF and Microwaves<br />
Topics and Speakers:<br />
1- Status and Future of Medical Applications of RF and Microwave<br />
Power, Dr. Eiji Tanabe, AET Inc.<br />
2- Medical Applications for Radiometric Sensing, Dr. Kenneth L. Carr,<br />
Meridian Medical Systems<br />
3- Electromagnetic and Thermal Simulations in Bio-medical<br />
Applications, Dr. Martin H. Vogel, Ansoft Corporation<br />
4- Non-Contact Assessment of Patient Cardiopulmonary Activity,<br />
Prof. Victor Lubecke, University of Hawaii at Manoa, Department<br />
of Electrical Engineering<br />
SUnDAY WoRKSHoPS<br />
5- Creation of Biological Stents and Occlusions with Microwave<br />
Catheters, Dr. Fred Sterzer, MMTC, Inc.<br />
6- Recent Advanced in RF and Microwave Applicators for Cancer<br />
Therapy, Dr. Paul Stauffer, Duke University Medical Center<br />
7- R&D and Standard of Wireless Body Area Network (WBAN), Prof.<br />
Ryuji Kohno, Yokohama National University, Division of Physics,<br />
Electrical and Computer Engineering<br />
8- Tissue Ablation using RF and Microwaves - Application to Treatment<br />
of Cancer and Cardiac Arrhythmia, Dr. Dieter Haemmerich, Medical<br />
Univ. South Carolina, Div. Pediatric Cardiology<br />
9- Microwave Imaging for Breast Cancer Detection, Dr. Elsie Fear,<br />
University of Calgary<br />
Organizers: Dr. Edward C. Niehenke, Niehenke Consulting, Engineering;<br />
Prof. Ayre Rosen, Drexel University, ECE Department; Dr. Roger Kaul,<br />
Army Research Laboratory, Engineering<br />
Sponsors: MTT-10, MTT-16, MTT-20<br />
Workshop Abstract: RF and Microwave technologies play a key role<br />
today in medical applications. This full-day workshop presents a<br />
broad range of the latest applications of this technology in this rapidly<br />
developing field with emphasis on newer emerging diagnostic and<br />
therapeutic techniques. Focused areas include imaging, diagnostics,<br />
therapy, and healthcare management. Key technology to be reported<br />
in the area of include: Cancer treatment with indirect RF/microwaves;<br />
Multi-megawatts of microwave power converted to high energy<br />
electrons, ions, plasma, and X-rays for cancer treatment; State-ofthe-art<br />
thermal tumor ablation; Catheter-based systems for biological<br />
stents; Microwave balloon systems; Electromagnetic and thermal<br />
simulation; Thermal limitations of MRI; Cardiac arrhythmia treatment;<br />
Microwave imaging; Radiometric sensing of vital sign sensing utilizing<br />
radar principle; and Microwave-communications in the management<br />
of healthcare. The workshop will conclude with an hour long panel<br />
session in which all the speakers will address and discuss specific<br />
written questions from the workshop attendees.<br />
WSG — 13:00-17:00<br />
Analog-Digital Co-Design Techniques for Nanometer<br />
CMOS Transceiver SoC Integration<br />
Submission Number: 130<br />
Workshop Classification:<br />
Advances<br />
Half Day<br />
Topics and Speakers:<br />
1 - Correcting Nanometer CMOS RF Circuit Impairments – Prof. Bram
Nauta (University of Twente)<br />
2 - Circuit Design Techniques for Ultra-low Voltage RF Receiver - Prof.<br />
Peter Kinget (Columbia University)<br />
3 - Analog-assisted digital and digitally-enhanced analog techniques<br />
for mixed signal SoC transceivers - Prof. John Long (University of<br />
Delft)<br />
4 - Digital signal processing techniques for linearity and efficiency<br />
enhancement of Envelope Tracking, EER, and Doherty amplifiers.<br />
- Prof. Larry Larson (UC San Diego)<br />
5 - Designing CMOS wireless system-on-a-chip for WLAN - Dr. David<br />
Su (Atheros)<br />
6 - Advantages of SoC for cellular RF transceiver design - Dr. Andre<br />
Hanke (Infineon)<br />
Workshop Abstract: The nanometer CMOS processes bring<br />
devices with high fT, enabling the SoC integration of multi-GHz RF<br />
communication systems. This gave a tremendous cost, area and power<br />
saving when compared with traditional bipolar or BiCMOS solutions.<br />
However, the higher noise, larger mismatches and wider process<br />
variations of nanometer FETs require extensive digital calibration to<br />
compete with traditional analog solutions. This workshop addresses<br />
advanced analog-digital co-design techniques which trade the higher<br />
speed and larger digital gate density of nanometer CMOS processes<br />
for relaxed analog front-end specifications. First, the ways to correct<br />
the nanometer CMOS device impairments and the very low-voltage<br />
circuit design challenges are presented. Then, new mixed-signal and<br />
all-digital approaches to implement traditional analog functions<br />
are investigated. Final presentations show how the analog-digital<br />
co-design techniques are applied to the major wireless applications:<br />
cellular, WLAN and broadcast.<br />
WSH — 08:00-17:00<br />
Measurements for Wireless System-Level Evaluation<br />
Topics and Speakers:<br />
1- Measurements for Behavioral Model Evaluation of I/Q Modulators<br />
and Transmitters, Prof. Kevin G. Gard, North Carolina State<br />
University, Dept. of ECE<br />
2- Measurements for Local Oscillator Phase Noise, Prof. Michael B.<br />
Steer, North Carolina State University, Dept. of ECE<br />
3- Poly-Harmonic Distortion Measurements: A Maturing Amplifier<br />
Measurement Technology, Dr. Jan Verspecht, Jan Verspecht, B.V.B.A.<br />
4- Large-Signal Measurements for Power Amplifier Characterization,<br />
SUnDAY WoRKSHoPS<br />
Dr. Joseph Gering, RF Micro Devices<br />
5- Characterizing FET-based Active Radiating Structures, Prof. Jose Angel<br />
Garcia, University of Cantabria, Dept. Communication Engineering<br />
6- The Receiver Front End: From RF Field to RF Signal, Dr. Kate A.<br />
Remley, NIST, Electromagnetics Division<br />
7- Characterization of Mixed Domain Components for SDR<br />
Applications, Prof. Nuno Borges Carvalho, IT-Universidade de Aveiro<br />
8- Measurements of wireless standards using Multisines, Dr.<br />
Dominique Schreurs, Catholic University Leuven<br />
Organizers: Dr. Kate A. Remley, NIST, Electromagnetics Division; Prof.<br />
Kevin G Gard, North Carolina State University, ECE; Prof. Nuno Borges<br />
Carvalho, IT-Universidade de Aveiro<br />
Organizers: Dr. Bogdan Staszewski (Texas Instruments), Prof. Yann Sponsors: MTT-11, MTT-20<br />
Deval (IMS, University of Bordeaux); Dr. Adrian Maxim, Silicon Laboratories<br />
Workshop Abstract: The demand of industry and society for an all-<br />
Sponsors: RFIC<br />
wireless world is pushing wireless device design towards higher levels<br />
of integration and complexity. As a result, characterization of each<br />
component becomes more and more complicated by its dependence<br />
on the system environment. This motivates the need for further<br />
innovation and development of new and refined measurement and<br />
modeling techniques to evaluate each component of the system,<br />
keeping in mind overall system performance evaluation.<br />
WSI — 08:00-12:00<br />
Adaptive Low-Power Front-Ends for Wireless<br />
Communication Systems<br />
Topics and Speakers:<br />
1- Low-power Reconfigurable Transmitter Architectures, Prof.<br />
Lawrence Larson, UC San Diego<br />
2- CMOS power amplifiers for mobile terminals, Prof. Patrick Reynaert,<br />
KU Leuven<br />
3- Leveraging VCO-based Quantization to Achieve Low Power,<br />
Wideband A/D Conversion for Multi-Standard RF Front-ends, Prof.<br />
Mike Perrott, MIT<br />
4- Low-power Receivers Concepts: An Industrial Example, Dr. Robert<br />
B. Staszewski, Texas Instruments<br />
5- Integrated Power Management Circuits for Wireless Applications,<br />
Prof. Hoi Lee, University of Texas<br />
Organizers: Dr. Gernot Hueber, DICE GmbH; Dr. Robert Bogdan<br />
Staszewski, Texas Instruments; Prof. Stefan Heinen, Infineon<br />
Technologies<br />
Sponsor: RFIC<br />
SUnDAY<br />
75
76<br />
Workshop Abstract: Current and future mobile terminals are<br />
becoming increasingly complex because they have to deal with a<br />
variety of frequency bands and communication standards. Achieving<br />
multi-band/multi-mode functionality poses a unique challenge on the<br />
RF-transceiver design due to limitations in terms of frequency agile RF<br />
components that meet the demanding cellular performance criteria, at<br />
costs that are attractive for mass market applications. The focus of this<br />
workshop will be on novel transceiver concepts for low power multimode/multi-band<br />
cellular systems from the antenna to baseband.<br />
Approaches include novel architectures, highly-configurable analog<br />
circuitry, digitally-assisted analog modules and the integration of<br />
digital signal processing into the traditionally purely analog frontend.<br />
However, the utilization of digital signal processing capabilities<br />
is in line with the ongoing trend towards SoCs in minimum-featuresized<br />
CMOS.<br />
WSJ — 13:00-17:00<br />
Advancements in Power Amplifiers and Transmitters for<br />
Mobile Wireless Products<br />
Topics and Speakers:<br />
1- Market Trends and Key Design Challenges for Mobile Cellular &<br />
WiMax Transmitters, Dr. Ken Weller, Skyworks Solutions<br />
2- Overview, Transmitter Linearization and Efficiency Enhancement<br />
Techniques, Gord Rabjohn, SiGe Semiconductor<br />
3- Application of Adaptive Digital Predistortion for EDGE, W<br />
CDMA, and LTE Mobile Transmitters, Dr. George Norris, Freescale<br />
Semiconductor<br />
4- Advancements in Power Amplifiers for Polar Modulation<br />
Architectures, Wayne Kennan, RFMD<br />
5- Power Amplifier Architectures for 3G Handsets: Balanced vs.<br />
Single-ended Structure, Dr. Gary Zhang, Skyworks Solutions<br />
6- Switched Doherty PAs for 3G, Thomas Apel, Triquint Semiconductor<br />
7- Improvements in Power Amplifier Performance via Adaptive<br />
Antenna Matching Techniques, Andre Van Bezooijen, NXP<br />
Semiconductor<br />
Organizers: Joseph Staudinger, Freescale Semiconductor; Dr. Natalino<br />
Camilleri, Alien Technology<br />
Sponsors: RFIC, IMS08<br />
Workshop Abstract: Advancements in wireless transmitters continue<br />
to focus on improving efficiency while maintaining acceptable levels<br />
of linearity. Emerging high speed data centric services result in RF<br />
signals which are particularly challenging to amplify in a handset<br />
environment. The large dynamic range and high instantaneous<br />
bandwidths are difficult to linearly amplify, especially in very low cost<br />
SUnDAY WoRKSHoPS<br />
small footprint packaging. Additionally, multi-mode and multi-band<br />
operation further extends the operational performance space of the<br />
underlying power amplifier. Current efforts focus on both the overall<br />
transmitter architecture as well as the underlying power amplifier<br />
circuit. Several presentations focus on the application of adaptive<br />
digital pre-distortion linearization techniques supporting 2.5G, 3G,<br />
and LTE signal formats. Subsequent presentations examine innovative<br />
circuit techniques employed to improve the underlying amplifier.<br />
WSK — 08:00-12:00<br />
Advances in High Power Devices and PA Architectures for<br />
Wireless Infrastructure<br />
Topics and Speakers:<br />
1- Trends in High Power and Efficiency Amplifiers for Infrastructure,<br />
Dr. John Wood, Freescale Semiconductors Inc., Phoenix AZ, USA<br />
2- Recent Advances in LDMOS Technology, Dr. Wayne Burger, Freescale<br />
Semiconductors Inc., Phoenix AZ, USA<br />
3- Improvement of GaN HEMT for High Efficiency PA Technique, Dr.<br />
Toshi Kikkawa, Fujitsu Laboratories Ltd, Japan<br />
4- Applying GaN HEMT Amplifiers to High Efficiency Techniques, Dr.<br />
David Runton, RF Micro Devices, Phoenix AZ, USA<br />
5- Recent Advances on Doherty Amplifiers, Dr. J. Gajadharsing, NXP<br />
Semiconductors Inc., Nijmegen, The Netherlands<br />
6- Digital Envelope Tracking and Load Modulation Technique for<br />
Efficiency and Linearity, Dr. Yuanxun Ethan Wang, UCLA, Electrical<br />
Engineering Department, LA, USA<br />
Organizers: Dr. Edmar Camargo, RF Micro Devices, Scotts Valley,<br />
CA, USA; Dr. Carlo Poledrelli, NXP Semiconductors, Nijmegen, The<br />
Netherlands<br />
Sponsors: MTT-5, MTT-7, MTT-20, RFIC<br />
Workshop Abstract: The market requirements on PA technology,<br />
has been increasingly demanding in terms of power, efficiency and<br />
linearity. This workshop will address these issues on the status of<br />
device technology, including LDMOS and GaN in the first part. In<br />
the second their application on PA, targeting high efficiency or high<br />
linearity will be discussed. The amplifier techniques such as Envelope<br />
Tracking and Switched Mode will be covered and a special emphasis<br />
will be dedicated to the Doherty configuration combined with Digital<br />
Pre-distortion. The workshop subjects will be covered by academic<br />
and international industry specialists detailing their developments<br />
and solutions.
WSL — 08:00-17:00<br />
On-Chip Calibration, Compensation, and Filtering<br />
Techniques for Wireless SoC<br />
Topics and Speakers:<br />
1- IIP2 and DC offset calibration techniques in 3G transceivers, Dr.<br />
Krzysztof Dufrene, DICE Danube Integrated Circuit Engineering<br />
GmbH<br />
2- Accurate tuning and calibration of Fractional-N frequency<br />
synthesizers, Waleed Khalil, Robert Santucci, and Dmitry Petrov,<br />
Intel Corp.<br />
3- Calibration Techniques for Wireless SoCs, Arya Behzad, Broadcom<br />
Corp.<br />
4- Digital Hardware and Software Based Mechanisms for Calibration<br />
and Compensation in Wireless SoCs, Oren Eliezer, Texas<br />
Instruments<br />
5- Compensation of radio impairments for low cost wireless<br />
transceiver design, Steve Cicarrelli, Qualcomm<br />
6- Calibration, Compensation, and On-chip Filtering techniques used<br />
in 3G transceivers, Jonathan Strange, Mediatek Wireless, UK<br />
7- Digital Calibration Techniques for Cellular Receivers, Abdellatif<br />
Bellaouar, Sherif Embabi, and Hamid Safiri, Sirific Wireless<br />
8- Digital Calibration Techniques for Cellular Transmitters, Abdellatif<br />
Bellaouar, Sherif Embabi, and Hamid Safiri, Sirific Wireless<br />
Organizers: Dr. Walid Ali-Ahmad, MediaTek, Singapore<br />
Sponsor: RFIC<br />
Workshop Abstract: As wireless SoCs are being targeted for multistandard<br />
and multi-band applications, the demand is still for excellent<br />
radio performance and minimum number of off-chip components. In<br />
addition, higher quality modulation techniques are being used in these<br />
systems to deliver higher data rates in a cellular environment. Hence,<br />
there is more weight being put on developing RF front-ends which are<br />
as good as ideal! Furthermore, there is currently a big emphasis on<br />
eliminating the undesirable large number of external RF SAW filters in<br />
multi-band operation. In order to achieve all these new requirements,<br />
on-chip correction techniques are needed that complement the onchip<br />
radio circuitry and benefit from state-of-the-art CMOS processes<br />
currently available for wireless SoCs. This workshop will review on-chip<br />
calibration techniques for RF and BB impairments compensation, plus<br />
on-chip filtering circuitry to relax front-end linearity requirements<br />
and minimize the need for off-chip filters.<br />
SUnDAY WoRKSHoPS<br />
WSM — 08:00-12:00<br />
Advanced CMOS Based Systems for Biomedical<br />
Applications<br />
Topics and Speakers:<br />
1- Ultra Low Power Wireless for Body Sensor Networks, Mr. Alan<br />
Wong, Toumaz Technologies<br />
2- Clinical Prosthetic Devices for Glaucoma, Epilepsy, and Traumatic<br />
Brain Injury Repair, Dr. Pedro Irazoqui, Purdue University<br />
3- Mixed-signal Data Mining on Microphone Array Hearing Aids, Dr.<br />
Shantanu Chakrabartty, Michigan State University<br />
4- CMOS ICs for Biomedical Spectroscopy, Dr. Arjang Hassibi,<br />
University of Texas at Austin<br />
Organizers: Dr. Sudipto Chakraborty, Texas Instruments; Dr. Shekar<br />
Rao, Texas Instruments<br />
Sponsor: RFIC<br />
Workshop Abstract: CMOS integration has impacted numerous diverse<br />
disciplines in the recent years. Biomedical technology is a rapidly<br />
emerging area and low power, miniaturized solutions have attracted<br />
great deal of interest. Such systems are usually perceived by integration<br />
of diverse building blocks such as sensors, power management,<br />
telemetry and analog processing, to name a few. In this workshop, we<br />
will explore the applications of Silicon based technologies in various<br />
areas of biomedical technology developments.<br />
WSN — 13:00-17:00<br />
Low-voltage RF Design in 45nm and Beyond<br />
Topics and Speakers:<br />
1- Radio-Frequency Receiver Design in 45nm Digital CMOS<br />
Technology, Dr. Christopher D. Hull, Intel Corp.<br />
2- Transmitters in 45nm and Beyond: Whither Linear, Dr. Earl<br />
McCune, Panasonic<br />
3- Challenges in Low Voltage Frequency Synthesizer Design, Prof.<br />
Sudhakar Pamarti, UCLA<br />
4- A/D Converter Design in 45nm and Beyond, Prof. Boris Murmann,<br />
Stanford University<br />
Organizers: Dr. Stewart S. Taylor, Intel Corp.; Dr. Jacques C. Rudell,<br />
Intel Corp.<br />
Sponsor: RFIC<br />
SUnDAY<br />
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78<br />
Workshop Abstract: Architecture and circuit refinements/evolution<br />
have postponed the pain of low-voltage design. With most 45nm<br />
processes using a 1V supply, radical new thinking is required to realize<br />
high performance front-end transceivers in current and future silicon<br />
CMOS technologies. Although the intrinsic speed of the device (ft) has<br />
now reached well into the 100GHz region, new challenges with respect<br />
to low gain (gm*Ro), higher 1/f noise, extreme mismatch conditions,<br />
and low supply voltages will require a new design paradigm. This half<br />
day workshop will focus on some of the key challenges associated<br />
with realizing robust circuits in 45nm processes and beyond. The first<br />
speaker will focus on receiver architectures and circuits for nanometer<br />
technologies while the second speaker will give a similar presentation<br />
on transmitter design. The third presentation will focus on synthesizers<br />
and finally, the fourth presentation will focus on data converters.<br />
WSO — 08:00-12:00<br />
Getting Accurate Results with Nonlinear Circuit Analysis<br />
Topics and Speakers:<br />
1- Welcome and Introduction, Prof. Dominique Schreurs, K.U. Leuven,<br />
Div. ESAT-TELEMIC<br />
2- Network Design with Advanced Harmonic-Balance Tools, Dr.<br />
Ruediger Follmann, IMST<br />
3- Accuracy of Nonlinear Circuit Analysis, Prof. Stephen A. Maas,<br />
Nonlinear Technologies, Inc<br />
4- What Can Time-Domain Modeling do for RF Nonlinear Circuit<br />
Analysis, Dr. Kriplani, North-Carolina State University, Electronics<br />
Research Laboratory<br />
5- Nonlinear Model-Simulator Interface, Prof. Tom Brazil, University<br />
College Dublin, Department of Electronic Engineering<br />
Organizers: Prof. Dominique Schreurs, K.U.Leuven, Div. ESAT-TELEMIC;<br />
Prof. Adalbert Beyer, Duisburg-Essen University, Electrical Engineering;<br />
Dr. Stephen Maas, Nonlinear Technologies, Inc.<br />
Sponsors: MTT-1, MTT-20, MTT-22<br />
Workshop Abstract: Even though nonlinear circuit-analysis software<br />
has been in use for many years, users still have difficulty obtaining<br />
valid results with existing methods. Recognized problems include<br />
poor accuracy, convergence difficulties, long simulation times, and<br />
unstable results (i.e., results that vary greatly with minor changes<br />
in parameters). These problems are encountered in both harmonicbalance<br />
and time-domain simulations. In this workshop, we examine<br />
the reasons for these phenomena and describe ways to overcome<br />
them and make good, efficient use of existing methods. We also show<br />
where more research could provide deeper understanding of such<br />
phenomena and better simulator performance.<br />
SUnDAY WoRKSHoPS<br />
TSB — 13:00-17:00<br />
Noise In Linear Circuits<br />
Topics and Speakers:<br />
1- Physical Sources of Noise, Marian Pospieszalski, NRAO.<br />
2- Noise Analysis of Linear Networks, Luciano Boglione, UMass-<br />
Lowell.<br />
3- Noise Measurement, Luciano Boglione, UMass-Lowell.<br />
4- Noise Models of Solid State Devices”, Marian Pospieszalski, NRAO<br />
5- Low Noise Amplifiers, Luciano Boglione, UMass-Lowell.<br />
6- Miscellaneous Topics, Marian Pospieszalski, NRAO.<br />
Organizers: Luciano Boglione, University of Massachusetts-Lowell,<br />
Engineering Technology; Marian Pospieszalski, NRAO<br />
Sponsors: MTT-14, MTT-23, RFIC<br />
Workshop Abstract: The workshop will address both theoretical and<br />
specific technical concepts encountered in the analysis, measurement<br />
and design of linear noisy circuits. Although the material to be<br />
presented can be found in many published books and papers, it is<br />
usually broadly scattered and not necessarily presented in orderly<br />
sequence. This workshop will focus on tutorial exposition of some key<br />
physical and network theoretic ideas as applied to practical models,<br />
circuits and measurement methods. It is therefore addressed to those<br />
interested in developing a good understanding of noise in microwave<br />
devices and circuits, especially to those practitioners entering the field.<br />
The subjects to be covered are as follows: Physical sources of noise,<br />
Noise analysis of linear networks, Noise measurement, Noise models<br />
of solid-state devices, Low-noise amplifiers, and miscellaneous topics<br />
associated with noise in linear circuits.<br />
TSC — 08:00-17:00<br />
Advances in CAD Techniques for EM Modeling and Design<br />
Optimization<br />
Topics and Speakers:<br />
1- Rapid Design with Electromagnetic Accuracy: Space Mapping<br />
and Beyond, Dr. John W. Bandler, Bandler Corporation; Q.S. Cheng,<br />
S. Koziel, McMaster University and K. Madsen, Technical University<br />
of Denmark<br />
2- Manifold Mapping: A Two-Level Optimization Technique, Dr.<br />
David Echeverria Ciaurri, Stanford University, Energy Resources<br />
Engineering<br />
3- Fast Parametric Models for EM Design Using Neural Networks and<br />
Space Mapping, Prof. Q.J. Zhang, Carleton University, and Prof.<br />
José Rayas-Sánchez, ITESO<br />
4- EM Modeling of Three Dimensional Microwave Circuits and
Systems in LTCC Technology, Prof. Ingo Wolff, IMST GmbH<br />
5- Electromagnetic Simulation for the Design and Modeling<br />
of High-Power Microwave Transistors, Dr. Peter Aaen, Freescale<br />
Semiconductor<br />
6- Macromodeling of High Speed VLSI Interconnects and Packages,<br />
Prof. Michel S. Nakhla, Carleton University<br />
7- Multi-Level Modeling and Co-Simulation for Microwave CAD,<br />
Prof. Wolfgang J.R. Hoefer, University of Victoria, Electrical and<br />
Computer Engineering<br />
8- Speeding Up Design Optimization through Direct Sensitivity<br />
Computation, Dr. Zoltan J. Cendes, Ansoft Corporation<br />
9- <strong>Complete</strong> Technology for 3D Electromagnetic Simulations, Dr.<br />
Peter Thoma, CST GmbH<br />
10- Application of Perfectly Calibrated Ports in EM Analysis to<br />
Advanced Design Methodologies, Dr. James Rautio, Sonnet<br />
Software<br />
Organizers: Prof. Q.J. Zhang, Carleton University, Canada; Prof. Jose E.<br />
Rayas-Sanchez, ITESO, Mexico<br />
Sponsors: MTT-1, MTT-15<br />
Workshop Abstract: Microwave engineers require CAD techniques<br />
and tools to assist their design. However, conventional CAD<br />
approaches may not work well with EM. For example, iterative<br />
design and optimization using full-wave EM is still too expensive<br />
WMA — 08:00-17:00<br />
Highly Efficient Linear Power Transmitters for Wireless<br />
Applications based on Switching Mode Amplifiers<br />
Topics and Speakers:<br />
1- Recent advances in switching-mode amplifier design, Dr. Renato<br />
Negra, University of Calgary, iRadio Lab<br />
2- Design and linearization techniques for high-efficiency UHF<br />
through X-band class-E power amplifiers, Prof. Zorana Popovic,<br />
University of Colorado, Electrical and Computer Engineering<br />
3- Highest PA efficiency Options for LINC and Polar PA Systems, Dr.<br />
Steve Cripps, Hywave Associates<br />
4- Recent Advances in LINC Amplification Systems, Prof. Fadhel<br />
Ghannouchi, University of Calgary, Electrical and Computer<br />
Engineering<br />
5- Sigma-Delta Modulator based Polar Transmitter, Prof. Bumman<br />
Kim, Postech Electrical Engineering<br />
6- Envelope Elimination and Restoration and Envelope Tracking<br />
Amplifiers, Prof. Peter Asbeck, Univ. of California, San Diego,<br />
SUnDAY WoRKSHoPS<br />
MonDAY WoRKSHoPS<br />
for the majority of practical microwave problems. A new generation<br />
of CAD techniques addressing EM-oriented design is needed. This<br />
workshop describes recent major advances in CAD methodologies<br />
for intelligent multi-level co-simulated EM-based modeling and<br />
design optimization. These methodologies help microwave engineers<br />
to dramatically accelerate their design task without sacrificing<br />
accuracy. The workshop presents a tutorial review of the state-ofthe-art<br />
in CAD techniques for EM-based modeling and design. We<br />
describe neural network modeling and space mapping optimization,<br />
operating concurrently and interactively with full-wave EM tools<br />
for efficient EM modeling and design. We present design methods<br />
based on calibrated ports in EM analysis, model-order reduction,<br />
macromodeling, mixed linear/nonlinear simulation, accelerated direct<br />
EM sensitivities, multilevel EM field/circuit co-simulation, knowledgebased<br />
neural networks, input/output/implicit-space mapping and<br />
manifold mappings. The workshop covers fundamental concepts<br />
and methodologies, industrial applications, and future trends in<br />
CAD R&D. These methodologies will be illustrated using microwave<br />
design examples, considering microstrip circuits, waveguide circuits,<br />
power semiconductor packaging, high-speed VLSI interconnects and<br />
packages, multilayer LTCC circuits, antennas and more. These CAD<br />
techniques efficiently exploit commercially available EM tools, based<br />
on a variety of computational electromagnetic methods, such as the<br />
Method of Moments, the Finite Element method, the Finite-Difference<br />
Time-Domain method, the Transmission Line Matrix method, and the<br />
Multilevel Fast Multipole Method.<br />
Electrical and Computer Engineering<br />
7- Linearization of Polar Transmitter Architectures, Prof. Steve Kenney,<br />
Georgia Institute of Technology, Electrical and Computer Engineering<br />
8- Adaptive Digital Predistortion of Nonlinear Power Amplifiers<br />
Using Signal Dependent Reduced Order Memory Correction, Dr.<br />
Neil Braithwaite, Powerwave Technologies<br />
Organizers: Prof. Bumman Kim, Pohang University of Science and<br />
Technology, Electrical Engineering; Prof. Fadhel Ghannouchi, University<br />
of Calgary, Electrical and Computer Engineering<br />
Sponsors: MTT-5, MTT-17<br />
Workshop Abstract: The wireless and satellite communications<br />
communities have always been looking for efficient linear amplification<br />
systems. Recent advances in device technologies are making the highly<br />
efficient switching mode RF power amplifiers a feasible solution<br />
for such applications. For that, the design of the power amplifiers<br />
has to be considered closely together with the transmitter system<br />
SUnDAY<br />
79
80<br />
architecture in order to ensure optimal system level performances.<br />
This implies the use of adequate system architectures that convert<br />
the nonlinear amplification of the switching amplifier to the linear<br />
amplification of the analog baseband information with the help of<br />
the digital predistortion techniques. This full day workshop consists<br />
in two parts. In the first one, the principles and design techniques of<br />
switching mode amplifiers along with practical realizations will be<br />
presented. The second part will be devoted to the highly efficient and<br />
linear transmitters based on the switching mode amplifiers and their<br />
digital linearization.<br />
WMB — 08:00-17:00<br />
Enabling Technologies for Wireless Transceivers Beyond-3G<br />
Topics and Speakers:<br />
1- Beyond 3G needs for power amplifier, Prof. E. Bertran, Catalunia<br />
Polithecnic University, Telecommunication Systems<br />
2- The Impact of Signal Peak to Average Power Ratio on new Wireless<br />
Transmission Chains, Prof. N. B. Carvalho, University of Aveiro,<br />
Institute of Telecomunications<br />
3- Digital Linearization and Signal Shaping for Wideband Wireless<br />
Power Amplifiers, Dr. A. Zhu, Prof. T. Brazil, University College<br />
Dublin, School of Electrical, Electronic and Mechanical<br />
Engineering<br />
4- Digital Techniques in RF Wireless Transmitters, Prof. J. C. Pedro, P.<br />
M. Cabral, University of Aveiro, Institute of Telecommunications; J.<br />
A. Garcia, University of Cantabria<br />
5- Multipath Polyphase Circuits for Cognitive Radio Transmitters,<br />
Prof. E. Klumperink, University of Twente, CTIT, IC Design Group<br />
6- Digital transmitter architecture using BAW filters, Dr. A. Kaiser,<br />
IEMN-ISEN, Lille, France<br />
7- Efficiency enhancement in multi-mode SiGe-HBT PA, Dr. A.<br />
Cidronali, Dr. I. Magrini, R. Fagotti, Prof. G. Manes, University of<br />
Florence, Electronics and Telecommunications<br />
8- MIMO radios for next generation wireless networks, Dr. Y. Palaskas,<br />
Intel, Inc., Communications Circuits Laboratory<br />
9- Flexible analog circuits for SDR transceivers, Dr. V. Giannini, J.<br />
Craninckx IMEC, Belgium; A. Baschirotto, University of Salento, Italy<br />
Organizers: Mr. Vijay K. Nair, Intel Corporation, Communication<br />
Technology Lab; Dr. Alessandro Cidronali, University of Florence,<br />
Electronics and Telecommunications; Prof. Gianfranco Manes,<br />
University of Florence, Electronics and Telecommunications<br />
Sponsors: MTT-20, MTT-23<br />
Workshop Abstract: This workshop focuses on recent research<br />
achievements in the field of wireless transceiver technologies for<br />
MonDAY WoRKSHoPS<br />
Beyond-3G (B3G) systems, which is the integration of a multitude of<br />
wireless technologies in the same platforms. It can be logically divided<br />
in two sections. The first is devoted to the techniques based on the<br />
exploitation of power DSPs tightly integrated with PAs, which allow<br />
the signal integrity by proper base-band signal treatments; the second<br />
deals with the system\circuit design approaches capable to increase the<br />
data rate, the cooperation and the complementary use of the different<br />
available radio access technologies. Several innovative concepts will<br />
be discussed namely, the design of all-digital transmitters, which<br />
don’t involve dedicated frequency selective filters, the all-digital RF<br />
signal generation suitable for B3G systems requirements, the enabling<br />
PA technologies for multi-mode operation and finally, two complete<br />
RFIC solutions for SDR and MIMO systems.<br />
WMC — 08:00-17:00<br />
Challenges in Model-based HPA Design<br />
Topics and Speakers:<br />
1- An overview of transistor/amplifier modeling methods and their<br />
use in design, Dr. Lawrence Dunleavy, Modelithics Inc.<br />
2- Bias voltage and temperature-dependent modeling and its<br />
application to amplifier design, Dr. Yusuke Tajima, Auriga<br />
Measurement Systems, LLC<br />
3- Modeling of GaN HEMT Devices using classic Nonlinear FET<br />
Techniques, Faramarz Kharabi, RF Micro Devices<br />
4- GaN HEMT Device Characterization and Modeling for RF Power<br />
Amplifier Applications, Raymond S. Pengelly, Cree Inc.<br />
5- High-Power Microwave Transistor Modeling for Amplifier Design,<br />
Peter Aaen, Freescale Semiconductor Inc.<br />
6- Addressing Linearity Issues in HPA Design at the Semiconductor<br />
Level, Angel Mediavilla, University of Cantabria<br />
7- Modeling requirements for modern HPA design, Dr. Walter Curtice,<br />
W.R. Curtice Consulting<br />
Organizers: Dr. Lawrence Dunleavy, Modelithics, Inc.; Dr. Yusuke<br />
Tajima, Auriga Measurement Systems, LLC<br />
Sponsor: MTT-5<br />
Workshop Abstract: This workshop will bring microwave amplifier<br />
designers and device modelers together to discuss their experiences<br />
in large signal model applications. We will hear about what works well<br />
now and also where significant challenges remain and where currently<br />
available models are falling short in providing the simulations required<br />
to create a successful design and to meet their needs of the future.
WMD — 08:00-17:00<br />
Millimeter-Wave Power Amplifier Technology: Power,<br />
Linearity and Efficiency<br />
Topics and Speakers:<br />
1- MMIC Devices for Millimeter-Wave Power Amplifiers, Dr. Elias<br />
Reese, TriQuint Semiconductor<br />
2- MHEMT and PHEMT Devices for Millimeter-Wave Power Amplifiers,<br />
Dr. Phillip Smith, BAE Systems<br />
3- Developments in the Application of GaN Power Devices at<br />
Millimeter-Wave, Dr. Miroslav Micovic, Hughes Research Labs<br />
4- Millimeter-Wave Spatial/quasi-optical power-combining techniques,<br />
Dr. Michael DeLisio, Wavestream<br />
5- Overview of Latest High Power Millimeter-Wave Helix-TWTs, Dr.<br />
Chae K. Chong, L-3 ETI<br />
6- New Developments in Millimeter-Wave Power Modules for Digital<br />
Communication, Tom Schoemehl, L-3 EDD<br />
7- Millimeter-Wave Coupled-Cavity TWTs, Jim Legarra, CPI Satcom<br />
Division<br />
8- Millimeter-Wave Extended Interaction Klystrons (EIK), Dr. Brian<br />
Steers, CPI Satcom Division<br />
9- Advances in Millimeter-Wave Power Amplifier Linearization, Dr.<br />
Allen Katz, LTI/TCNJ,ECE<br />
Organizers: Dr. Joe Qiu, Naval Research Laboratory, Vacuum Electronics<br />
Branch; Dr. Allen Katz, Linearizer Technology Inc./The College of New<br />
Jersey<br />
Sponsors: MTT-5, MTT-16, MTT-20<br />
Workshop Abstract: Today’s millimeter-wave (MMW) power<br />
amplifiers operate at higher frequency and wider bandwidth and can<br />
provide greater power levels with increased efficiency and linearity<br />
in a smaller space. Solid state power amplifiers (SSPAs) now offer a<br />
viable alternative to vacuum devices, while vacuum technology (VT)<br />
has also made great strides. More than 1 kW of MMW linear power can<br />
now be produced with high efficiency in a relatively small package.<br />
Power amplification from a few watts to hundreds of watts over<br />
the frequencies range from 26.5 to above 100 GHz will be the focus<br />
of this workshop. Advances in SSPA technology will be presented<br />
including the latest developments in GaAs power MMICs, GaN and<br />
MHEMT devices. VT devices to be covered will include traveling wave<br />
tube amplifiers (TWTAs – helix and coupled cavity), Klystrons, and<br />
hybrid millimeter-wave power modules (MMPMs). Techniques such<br />
as Spatial/quasi-optical power-combining and linearization will also<br />
be included.<br />
MonDAY WoRKSHoPS<br />
WME — 08:00-17:00<br />
CMOS/SiGe-based Systems for mm-Wave Commercial<br />
Applications<br />
Topics and Speakers:<br />
1- 60 GHz WPAN Standardization within IEEE 802.15.3c, Dr. Reed<br />
Fisher, Oki Electric & Chair TG3c<br />
2- 60GHz Channel Modeling, Dr. Peter Smulders, Technical Univ. of<br />
Eidhoven<br />
3- Millimeter-wave CMOS Radio Design for Gigabit Wireless<br />
Applications, Dr. James Gilb, SiBEAM, Director Standards and<br />
Advanced Technology<br />
4- On the Development of a Fully Integrated 60 GHz Digital Radio:<br />
Antenna, CMOS and Signal Processing, Prof. Joy Laskar, Georgia<br />
Tech., Georgia Electronic Design Center<br />
5- 60-GHz low-power gigabit wireless RF-CMOS transceiver, Prof.<br />
Tian-Wei Huang, National Taiwan University, Dept. of EE<br />
6- 24 GHz UWB Radars in Production, Dr. Andy Street, Tyco<br />
Electronics, Wireless Systems Segment<br />
7- 77GHz Automotive Radar Transceivers in SiGe, Dr. Herbert Knapp,<br />
Infineon<br />
8- Si-Based mm-Wave Systems, Prof. Ali Hajimiri, Cal. Tech, Electrical<br />
Engineering<br />
9- 65nm CMOS and SiGe HBT Transceivers and Receivers for<br />
Automotive Radar and mm-Wave Imaging in the 75GHz to 175GHz<br />
Range, Prof. Sorin P. Voinigescu, Univ. of Toronto, ECE Department<br />
10- Silicon-based Phased-Array Transceivers for 6 to 60 GHz<br />
Applications, Prof. Gabriel M. Rebeiz, UC at San Diego, Electrical &<br />
Computer Engineering<br />
Organizers: Dr. Hiroshi Kondoh, Hitachi Ltd., Central Research Lab; Dr.<br />
Debabani Choudhury, Intel<br />
Sponsors: MTT-6, MTT-16, MTT-20<br />
Workshop Abstract: With the recent progress and maturity of<br />
Si processes down to 45nm CMOS scale close to production and<br />
SiGe BiCMOS with fT beyond 200GHz, extended R&D efforts have<br />
been reported in literature with ever-increasing enhancements of<br />
performance, operation frequencies beyond 100GHz and integration<br />
levels towards practical mm-wave applications. This workshop reviews<br />
the latest progress and technical trends as well as regulatory issues<br />
toward practical mm-wave commercial applications at system levels.<br />
The workshop will consist of two parts. Part 1 is dedicated to the<br />
application to 60GHz wireless communications, including discussion<br />
on IEEE802.15.3c and channel modeling. Part 2 covers systems and<br />
subsystems for other applications up to 175GHz including 77GHz/<br />
24GHz automotive radars. The covered technical areas include system<br />
MonDAY<br />
8
8<br />
designs with mm-wave functions, antenna, packaging/assembly, IF/<br />
baseband integration, manufacturability and testing.<br />
WMF — 08:00-12:00<br />
Design and Implementation Techniques for Multiband<br />
Filters<br />
Topics and Speakers:<br />
1- Computation of optimal multi-band filtering characteristics, Dr.<br />
Fabien Seyfert, INRIA<br />
2- Design of Dual-Mode Dual-Band Filters With Reduced Sensitivity,<br />
Prof. Smain Amari, Royal Military College of Canada<br />
3- Analytical synthesis of dual-band filters through frequency<br />
transformation and implementation by means of microstrip Split-<br />
Ring Resonators, Dr. Alejandro Garcia, Lamperez, Universidad<br />
Carlos III de Madrid<br />
4- Multiband Approximation Using Transformed Variables, Dr. Clark<br />
H. Bell, HF Plus<br />
5- N-Band planar filter, Prof. Cedric Quendo, University of Brest, LEST<br />
Laboratory<br />
6- Implementation of dualband filters in base stations for mobile<br />
communications, Dr. Stefano Tamiazzo, Andrew Telecommunication<br />
Products<br />
7- Design of Multiband Filters in Waveguide Technology for Space<br />
Applications, Dr. Stephane Bila, University of Limoges, XLIM<br />
Organizers: Prof. Giuseppe Macchiarella, Politecnico di Milano,<br />
Elettronica e Informazione; Dr. Fabien Seyfert, Institut National de<br />
Recherche en Informatique et Automatique, INRIA<br />
Sponsor: MTT-8<br />
Workshop Abstract: In recent years communication systems capable<br />
to process simultaneously signals belonging to different frequency<br />
bands are more and more requested. In mobile communications<br />
multiband operation is a common requirement for enhancing reliability<br />
and offering more and more services. In space communication the<br />
use of multi-spot antennas and dynamic channel assignment call<br />
for signals having a not contiguous spectrum. Further examples of<br />
multiband signals can be found in WiFi system, where modern devices<br />
must operate both on 2.4 and 5 GHz (802.11a/g). There is then in the<br />
microwave engineers community an increasing interest on specific<br />
design techniques for multiband filters; also the practical issues<br />
associated to the realization of this kind of filters call for answers which<br />
are not easily found today. The proposed workshop tries to fill this lack<br />
of information on multiband filters design from both theoretical and<br />
practical points of view.<br />
MonDAY WoRKSHoPS<br />
WMG — 13:00-17:00<br />
Miniaturization Techniques of RF and Microwave Filters<br />
Topics and Speakers:<br />
1- Miniaturization using adaptive Pre-distortion and Lossy Circuit<br />
Techniques, Dr. Ming Yu, Com Dev Ltd, R&D<br />
2- Artificial Dielectric Resonators for miniaturized filters, Prof. Ikuo<br />
Awai, Ryukoku University<br />
3- LTCC LC RF filters, Dr. Toshio Ishizaki, Panasonic Electronic Devices<br />
Co., Ltd.<br />
4- LTCC Technology For Microwave Filter Applications, Prof. Kawthar<br />
Zaki, University of Maryland, ECE<br />
5- A Systematic Design Methodology for Miniaturized Mutlilayer<br />
Filters, Mr. Lap K. Yeung and Ke-Li Wu, The Chinese University of<br />
Hong Kong, Electronic Engineering<br />
6- Miniaturized RF Bandpass Filter Based on Thin-Film Bulk Acoustic-<br />
Wave Resonator, Dr. Bradley P. Barber and Dr. Frank Bi, Skyworks<br />
Solutions Inc.<br />
Organizers: Prof. Ke-Li Wu, The Chinese University of Hong Kong,<br />
Electronic Engineering; Dr. Ming Yu, Com Dev Ltd, R&D<br />
Sponsors: MTT-8<br />
Workshop Abstract: This workshop will review some of advanced<br />
miniaturization techniques of RF/microwave filters for mobile<br />
terminals, wireless access and satellite payload. Technologies include<br />
LTCC LC and waveguide filters, artificial high K dielectric resonators,<br />
pre-distortion techniques and Bulk Acoustic Wave (BAW) filters. The<br />
basic implementations, design methodologies, and future trend<br />
of various LTCC filters will be addressed. Methods for the design of<br />
band pass filters and multiplexers using LTCC waveguide filters will<br />
be presented. The application of pre-distorted filters for C band Input<br />
Multiplexer that achieves a significant volume and mass saving with<br />
an effective Q of 20,000 will be demonstrated. An overview of BAW<br />
technology and a discussion of how RF applications benefit from BAW<br />
filter solutions will be covered in this workshop. The speakers come<br />
from both industry and academia. The workshop will be based on the<br />
advanced technologies in an educational approach.<br />
WMH — 08:00-17:00<br />
Advances in Reconfigurable Microwave Technologies for<br />
Wireless Communication and Radar Sensing<br />
Topics and Speakers:<br />
1- The Development of RF Spectrum Signal Processing for Cognitive<br />
Radio, Dr. Kyutae Lim, Georgia Tech, School of Electrical and<br />
Computer Engineering
2- Tunable technologies for agile microwave systems, Prof. Spartak<br />
Gevorgian, Chalmers University of Technology, Department of<br />
Microtechnology and Nanoscience MC2<br />
3- Frequency synthesizers and phase shifters for use in satellite<br />
applications, Dr. Ruediger Follmann, IMST GmbH<br />
4- Ferroelectric Thick Film Components for Future Wireless<br />
Communication, Mr. Yuliang Zheng, Darmstadt University of<br />
Technology, Institute of Microwave Engineering<br />
5- Tunable BST-Varactor-Based Matching Networks for Mobile<br />
Radio Applications, Mr. Errikos Lourandakis, University of Erlangen-<br />
Nuremberg, Institute for Electronics Engineering<br />
6- Liquid Crystal Phase Shifters for Electronically Steerable Antenna<br />
Systems, Dr. Stefan Mueller, Darmstadt University of Technology,<br />
Institute of Microwave Engineering<br />
7- Low complexity RF-MEMS switch technology for tunable<br />
microwave components, Dr. Volker Ziegler, EADS Innovation Works,<br />
Sensors, Electronics and System Integration<br />
8- Innovative reconfigurable circuits for advanced communication<br />
systems, Prof. Roberto Sorrentino, University of Perugia,<br />
Department of Electronic and Information Engineering<br />
Organizers: Dr. Stefan Mueller, TU Darmstadt, Institute of Microwave<br />
Engineering; Prof. Robert Weigel, University of Erlangen-Nuremberg,<br />
Institute for Electronics Engineering; Prof. Ingo Wolff, IMST GmbH;<br />
Prof. Rolf Jakoby, TU Darmstadt, Institute of Microwave Engineering<br />
Sponsors: MTT-8, MTT-11, MTT-13, MTT-20, MTT-21<br />
Workshop Abstract: The objective of this workshop is to highlight<br />
current research and development efforts to create reconfigurable<br />
RF-circuits for future wireless systems, in particular for mobile<br />
communication, but also for RFID and radar-sensor systems by<br />
using new design approaches, novel tunable non-linear dielectrics,<br />
semi-conductors, RF-MEMS, and other emerging technologies. This<br />
workshop will address: (1) Tunable components like phase shifters,<br />
filters, Matching-networks Si(Ge), and integrated synthesizer based<br />
on non-linear dielectrics, semi-conductors, or MEM switches (2)<br />
Reconfigurable (adaptive) antennas: phase-scanning antennas with<br />
passive phase shifters, reflector antennas, reflect arrays, and others.<br />
(3) (Hybrid) integration into LTCC-Technology (4) Spectrum sensing<br />
technologies based on analog signal processing (5) System integration<br />
strategies and (6) Reliability issues and radiation hardness.<br />
WMI — 08:00-12:00<br />
High Speed Signal Integrity Workshop with Emphasis on<br />
Jitter<br />
Topics and Speakers:<br />
MonDAY WoRKSHoPS<br />
1- Jitter effects, constraints, and mitigation in multi-gigabit links for<br />
Terascale computing, Mr. Randy Mooney, Intel Corp.,<br />
2- Managing Jitter in High-speed Digital Communications Systems,<br />
Mr. Greg LeCheminant, Agilent Technologies<br />
3- Time Domain Jitter Measurement Distortion, Mr. Larry Jacobs,<br />
LeCroy<br />
4- Modeling Jitter and Crosstalk Due To Backplanes Using Modified<br />
Rational Functions, Dr. Robert Zeng, The MathWorks, Inc.<br />
5- Signal Integrity Panel Session, Dr. Marc Vanden Bossche, NMDG<br />
Engineering<br />
Organizers: Mr. Thomas G. Ruttan, Intel Corp, ATTD; Mr. Mike Resso,<br />
Agilent Technologies, Component Test Division<br />
Sponsors: MTT-11, MTT-12, ARFTG<br />
Workshop Abstract: Signal integrity is a topic that has generated<br />
a significant amount of interest with microwave as well as high<br />
speed digital system designers with the emphasis on faster data<br />
bus performance that is required for the latest computer and<br />
communications systems and products. As the system is analyzed and<br />
separated into the key contributors to degradation of the high speed<br />
data through the bus structure, jitter stands out as a major factor that<br />
drives system performance and design focus. It is important that the<br />
designer understand where jitter comes from, how it impacts the<br />
system performance, how to model jitter and become familiar with<br />
methodologies for measuring jitter. This workshop will focus on these<br />
key areas in a full-day workshop that will end with a panel discussion<br />
on signal integrity topics (jitter and others) of interest to the workshop<br />
attendees.<br />
WMJ — 08:00-12:00<br />
3D Metamaterials: Theory, Structures, Techniques, and<br />
Devices<br />
Topics and Speakers:<br />
1- A 3D Isotrophic Left-Handed Metamaterial Composed of Wired<br />
Metallic Spheres, Dr. Atsushi Sanada, Yamaguchi University<br />
2- 3D Plasmonic Metamaterials in Microwave and Optics, Prof.<br />
Nader Engheta, University of Pennsylvania, Electrical and Systems<br />
Engineering<br />
3- The development of realizable 3D metamaterials from<br />
computational transmission line models (TLM), Prof. J.R. Wolfgang<br />
Hoefer, Faustus Scientific Corporation<br />
4- 3D Metamaterials: Experiments and Analysis Prof. Anthony Grbic,<br />
University of Michigan, Electrical Engineering and Computer Science<br />
5- Design and electromagnetic modeling of 3D planarized composite<br />
right-left-handed metamaterials, Prof. Peter Russer, Technische<br />
Universität München, Electrical Engineering<br />
MonDAY<br />
83
84<br />
Organizers: Prof. Christophe Caloz, Ecole Polytechnique de Montreal,<br />
Electrical Engineering; Prof. Poman So, University of Victoria, Electrical<br />
and Computer Engineering<br />
Sponsor: MTT-15<br />
Workshop Abstract: Recently, metamaterials, which are defined as<br />
electromagnetically continuous structures made of subwavelength<br />
molecules with tailorable permittivity and permeability, have<br />
emerged as a novel paradigm in modern science and technology.<br />
While the first generation of practical metamaterial structures and<br />
applications have been mostly 1D and 2D, the development of bulk 3D<br />
metamaterials with well-controlled constitutive parameters (values<br />
and dispersion) and engineered by efficient processes will be key for<br />
the future of this field. Recently, there has been significant progress in<br />
this direction. It is the purpose of this workshop to report this progress,<br />
including the demonstration of isotropic 3D negative refractive index<br />
metamaterials, the discovery of graded-index metamaterials (based<br />
on transformational electromagnetics) providing invisibility cloaking<br />
but also practical quasi-optical devices, and novel plasmonic metastructures.<br />
WMK — 08:00-17:00<br />
High-speed Electronic Technologies for > 100-G<br />
Communications<br />
Topics and Speakers:<br />
1- Introduction, A. Konczykowska III-V Lab, K. Murata, NTT<br />
2- 100G serial transport - System Considerations and Design<br />
Challenges, J. Sinsky, P. Winzer, Bell Labs-Crawford Hill<br />
3- MMIC and Packaging Technologies for 120-GHz 10-Gbit/s Wireless<br />
Link Systems, T. Kosugi, A. Hirata, NTT<br />
4- Millimeter-wave and high-speed MMIC design, interconnects and<br />
packaging, V. Krozer, DT University<br />
5- Co-modeling (EM-Circuit) design of microwave and optoelectronic<br />
wideband modules, D. Baillargeat, University of Limoges<br />
6- InP HBT Technology for 100 Gbps ICs, M. Sokolich, HRL Laboratories,<br />
LLC<br />
7- InP D-HBT circuits operating up to sub-mmwave frequencies for<br />
next generation data transmission systems, Y. Baeyens, N.<br />
Weimann, V. Houtsma, Bell Labs-Murray Hill<br />
8- Circuit technologies for 100 Gbps wired communications, T. Swahn,<br />
Chalmers University<br />
9- Electronic and Electro-optic Components for 100G Networks<br />
– Design and Packaging Methodologies, J. Sinsky, Bell Labs-<br />
Crawford Hill<br />
10- CMOS and SiGe BiCMOS 40 Gb/s to 100 Gb/s ICs for high speed<br />
serial IOs, M. Meghelli, IBM Watson Research Center<br />
MonDAY WoRKSHoPS<br />
Organizers: Dr. Agnieszka Konczykowska, Alcatel-Thales III-V Lab; Dr.<br />
Koichi Murata, NTT<br />
Sponsors: MTT-2, MTT-9, MTT-11<br />
Workshop Abstract: With the progress of semiconductor technology<br />
and the continuous pressure to increase the efficiency of high speed<br />
transmission, 100GbE as well as E-band or higher wireless systems<br />
start to emerge as a near future applications. Wireless systems with<br />
over 100 GHz carriers as well as first over 100-G fibre systems were<br />
reported. These two applications present new challenges for circuit<br />
designers. This workshop will be devoted to technologies and various<br />
aspects of circuit design for wireless communications at millimeterwave<br />
frequency and over 100-Gb data transmission. Two overview<br />
presentations on wired and wireless systems will show the context of<br />
this research including design challenges, relevant trade-offs and the<br />
present bottle-necks. Different system architectures will be presented<br />
with their impact on component requirements. Similarities and<br />
differences of wired and wireless applications will be pointed out. Design<br />
methodologies, necessary tools and circuit performances obtained in<br />
various technologies (Si, SiGe, GaAs and InP) will be presented and<br />
discussed. Finally, modeling, measurements and packaging problems<br />
at such high frequencies/speeds will be also addressed.<br />
WML — 13:00-17:00<br />
Progress in Microwave Ferrite Materials and<br />
Applications<br />
Topics and Speakers:<br />
1- An Overview: The New Paradigm for Designers of Ferrite Devices<br />
in the USA, Dr. Charles R. Boyd, Jr., Microwave Applications Group.<br />
2- Current State of Ferrite Materials Art, Dr. David Cruickshank,<br />
Trans-Tech, Inc.<br />
3- High Power Circulators and Isolators, Dr. William Alton, The<br />
Ferrite Company, Inc.<br />
4- Novel Processing for New Ferrite Devices, Dr. Chek Pin Yang,<br />
University of Birmingham, Electrical Engineering<br />
5- Magnetic Biasing Techniques for Circulators, Analysis and Design<br />
Considerations, Dr. Thomas Lingel, Anaren, Inc.<br />
6- Design and Application of Very High Performance Quasi-Optical<br />
Circulators and Isolators, Dr. Duncan Robertson, University of St.<br />
Andrews<br />
7- Advanced Lumped Element Nonreciprocal Devices for Portable<br />
Phones (Theory and Applications), Dr. Shigeru Takeda, Magnontech<br />
Organizers: Dr. Charles R. Boyd, Jr., Microwave Applications Group; Dr.<br />
William Alton, The Ferrite Company Inc.; Dr. Thomas Lingel, Anaren, Inc.<br />
Sponsor: IMS08
Workshop Abstract: The most recent MTT-S workshop broadly<br />
defining the current state-of-the-art for microwave ferrite materials<br />
and microwave ferrite devices took place at IMS 2000 in Boston, MA.<br />
Much has changed since then. A significant objective of this proposed<br />
workshop will be to provide an updated working knowledge of current<br />
activities in microwave ferrite materials and devices for use by both<br />
creators and users of these configurations. This proposed half-day<br />
workshop session has the goal of broadly defining the current stateof-the-art<br />
for microwave ferrite materials and microwave ferrite<br />
devices. It is intended to be comprehensive, ranging from essential<br />
background information through recent typical practice up to current<br />
advances in materials and component designs that are expanding the<br />
envelope of technology. Materials topics will include comparison of<br />
material composition types and methods of preparation, as well as<br />
special properties and shapes, such as single-crystals and thin films.<br />
Application topics will focus mainly on those uniquely suited for ferrite<br />
materials, e.g. nonreciprocal and/or high-power microwave circuit uses<br />
at all frequencies and in both conventional and novel configurations.<br />
WMM — 13:00-17:00<br />
Printed RF Electronics, RFID’s and Wireless Sensors:<br />
State and Challenges<br />
Topics and Speakers:<br />
1- Printable RFID-Enabled Wireless Sensors: Is it the Ultimate Low-<br />
cost Solution for Ubiquitous Sensing?, Manos M. Tentzeris, Amin<br />
Rida, Georgia Tech, GEDC/ECE<br />
2- Novel Flexible Magnetic Composites: Development and Effect<br />
of Material Properties on RF Design for RFID and Wearable Wireless<br />
Applications, Lara Martin, Motorola<br />
3- Printable RFID’s and Other Security/Authenticity-enhancement<br />
Devices”, Gerald DeJean, Microsoft Research Labs<br />
4- Ink-Jet Technology for Printed Electronics, Jan Sumerel, FUJIFILM<br />
Dimatix<br />
5- Evaluation Techniques of Common Problems in RFID, Bob Sainati,<br />
3M<br />
6- Inkjet-printed RFID’s and Electronics for Automotive Applications,<br />
Li Yang, Georgia Tech, GEDC/ECE<br />
Organizer: Prof. Manos M. Tentzeris, Georgia Tech, GEDC/ECE<br />
Sponsor: IMS08, MTT-12<br />
Workshop Abstract: This workshop will introduce microwave<br />
society to the fundamental printed electronics technologies for<br />
communications, RFID and sensing applications. In addition, it will<br />
familiarize MTT members with a large variety of applications and will<br />
MonDAY WoRKSHoPS<br />
introduce them to major challenges of the future “convergent” wireless<br />
sensing/cognition/multimedia modules: the integration of printed<br />
power sources and power scavenging devices, the miniaturization<br />
of antennas for harsh environments and the development of inkjetprinted<br />
circuits on flexible organic and paper-based ultra-low cost<br />
materials for HF, UHF and microwave frequencies. This workshop will<br />
review and explore challenges in printed high-frequency electronics<br />
including RFID and wireless sensors for both traditional and emerging<br />
applications. It will also cover ultra-low-cost paper-based electronics,<br />
inkjet-printed circuits and batteries, energy scavenging approaches,<br />
RFID IC approaches and matching, as well as RF performance under<br />
various challenging sensor topologies.<br />
WMN — 08:00-17:00<br />
Applications and Misapplications of Measurement<br />
Uncertainty<br />
Topics and Speakers:<br />
1- A Review of Current Recommended Practices for Evaluating<br />
Uncertainty, Including Revisions of the ISO GUM, Nick Ridler, NPL<br />
2- Use and Misuse of Uncertainties in Statistical Process Control, Ken<br />
Wong, Agilent Technologies<br />
3- Common Mistakes and Pitfalls When Analyzing Microwave<br />
Measurement Uncertainties, Brian Lee, Anritsu.<br />
4- Calibration Uncertainty Estimation for the S-parameter<br />
Measurements at the Wafer Level, Andrej Rumiantsev, SUSS<br />
MicroTec Test Systems GmbH.<br />
5- The Importance of Measurement Verification for Accurate<br />
Uncertainty Analysis of Network Analyzer PCB TRL Calibration<br />
Standards, Heidi Barnes, Verigy.<br />
6- Uncertainty for Digital Modulation Measurement, Brian Lee,<br />
Anritsu<br />
7- Uncertainty and Modulated-signal Measurements, Kate Remley,<br />
National Institute of Standards and Technology (NIST), RF Field<br />
Group<br />
Organizers: Nick. Ridler, National Physical Laboratory (NPL); Daniel<br />
Pasquet, ENSEA; Andrej Rumiantsev, SUSS MicroTec Test Systems GmbH.<br />
Sponsors: MTT-11, ARFTG<br />
Workshop Abstract: Following recent successful workshops during<br />
Microwave Week 2006 (titled, “Practical methods for determining the<br />
accuracy of measurements; a review of techniques both old and new”)<br />
and European Microwave Week 2007 (titled, “Determining accuracy<br />
of measurements at high frequencies – from error to uncertainty”),<br />
this workshop will build on this success by presenting more practical<br />
information on evaluating accuracy (and, more generally, uncertainty)<br />
MonDAY<br />
85
86<br />
of measurements made at RF and microwave frequencies. This<br />
workshop will review the current status of methods that are<br />
recommended for evaluating uncertainty and present an update on<br />
the latest developments in this field. Specific presentations will then<br />
identify areas where common mistakes can occur when applying<br />
uncertainty in different circumstances, i.e. Statistical Process Control<br />
(SPC) and the analysis of microwave measurement data. Finally,<br />
applications of uncertainty to particular measurement environments,<br />
i.e. planar circuit measurements and digital modulation measurement,<br />
will be presented.<br />
TMA — 08:00-12:00<br />
RF Design Components of Magnetic Resonance Imaging<br />
Topics and Speakers:<br />
1- Introduction to MRI Concepts, Eddy Boskamp, GE-Healthcare, USA<br />
2- MRI System Hardware Overview/Transceiver Technology, Ronald<br />
Watkins, Stanford University School of Medicine, Department of<br />
Radiology<br />
3- RF Coil Design for MRI Applications, Eddy Boskamp, GE-<br />
Healthcare<br />
4- High Power MRI RF Amplifiers, Richard Frey, Microsemi PPG<br />
5- High Power PIN Diodes for Switching RF Coils in High Field MR<br />
Scanners, William Doherty, Microsemi-Lowell<br />
6- PIN Diode SPICE Modeling for MRI Applications, Robert Caverly,<br />
Villanova University, ECE<br />
Organizers: Dr. Robert Caverly, Villanova University, Electrical and<br />
Computer Engineering; Mr. William Doherty, Microsemi Corp-Lowell<br />
Division<br />
Sponsor: MTT-17<br />
Workshop Abstract: The tutorial will present material covering the<br />
theory underlying Magnetic Resonance Imaging with presentations<br />
on hardware component design for MRI systems. The workshop will<br />
be geared for RF and microwave engineers wishing to gain insight into<br />
MR technology as a means to move this important medical imaging<br />
technology forward. The tutorial topics range from an introduction of<br />
the basic concepts of magnetic resonance and the imaging process to<br />
discussions of MRI transceiver technology, RF coil design, high power RF<br />
amplifier design and high power, high speed switching in MRI systems.<br />
MonDAY WoRKSHoPS<br />
TMB — 13:00-17:00<br />
Demystifying Microwave Signal Integrity - High Speed<br />
Design & Measurement<br />
Topics and Speakers:<br />
1- Signal Integrity: From Signal Path Analysis to Application<br />
Performance Prediction, Prof. Klaus Helmreich, University of<br />
Erlangen<br />
2- Fundamentals and Emerging Concepts in Signal Integrity Analysis<br />
in High-Speed Designs, Prof. Ramachandra Achar, University of<br />
Charleton<br />
3- Datamining 12 port S-parameters for Backplane Analysis, Dr.<br />
Eric Bogatin, Bogatin Enterprises, LLC and Mr. Mike Resso, Agilent<br />
Technologies<br />
Organizers: Mr. Hermann F. Boss, Rohde & Schwarz, R&D; Dr. K.C.<br />
Wang, UMC, R&D<br />
Sponsors: MTT-2, MTT-9, MTT-11 MTT-16<br />
Workshop Abstract: The tutorial starts with explaining mechanisms<br />
and parameters that are relevant for signal integrity, illustrates their<br />
individual impact, and introduces typical measurement methods<br />
for signal integrity parameters in frequency and time domain. The<br />
following talk presents an overview of high-frequency/high-speed<br />
design issues and interconnect modeling and simulation strategies. It<br />
covers high-speed design issues, models and basic principles of circuit<br />
simulation. Furthermore, emerging concepts in signal integrity area,<br />
such as differential lines, MGTs, FPGAs with low voltages but high<br />
currents, strong transients in designs and pre/de-emphasis techniques<br />
will be discussed. The last part explains the use of 12-port differential<br />
S-parameters to describe the behavior of differential channels in a<br />
high-speed serial interconnect. It shows the most important terms<br />
and valuable information that can be extracted about interconnect<br />
performance from these measurements.
WFA — 08:00-17:00<br />
Unification of Time Domain Methods in Computational<br />
Electromagnetics<br />
Topics and Speakers:<br />
1- Overview of Computational Electromagnetics, Prof. Peter Russer,<br />
Technische Universität Muenchen, Institute for High Frequency<br />
Engineering<br />
2- Unifying Concepts in Computational Electromagnetics, Prof.<br />
Wolfgang Hoefer, University of Victoria, Department of Electrical<br />
and Computer Engineering<br />
3- General Mathematical Derivations of Frequency- and Time-<br />
domain Numerical Methods with Method of Moments, Prof.<br />
Zhizhang Chen, Dalhousie University, Department of Electrical and<br />
Computer Engineering<br />
4- MOM vs. FDTD vs. FIT vs. FEM vs. TLM and Frequency Domain vs.<br />
Time Domain, Dr. Holm Krueger, CST, GmbH<br />
5- Embedded Features in TLM, Prof. Christos Christopoulos, University<br />
of Nottingham, Department of Electrical and Computer Engineering<br />
6- Construction of Optimal Grids for Efficient EM Wave Simulation<br />
Using Finite Methods, Prof. Andreas Cangellaris, University of<br />
Illinois at Urbana-Champaign, Department of Electrical and<br />
Computer Engineering<br />
7- Higher-Order Time-Domain Methods and Applications, Prof. Costas<br />
Sarris, University of Toronto, Department of Electrical and Computer<br />
Engineering<br />
8- Pros and Cons of a Unified Implementation, Mr. Daniel Swanson,<br />
Tyco electronics, Strategic R&D Group<br />
9- Object-Oriented Paradigm for Computational Electromagnetics,<br />
Prof. Poman P.M. So, University of Victoria, Department of Electrical<br />
and Computer Engineering<br />
Organizers: Prof. Poman So, University of Victoria, Department of Electrical<br />
and Computer Engineering; Prof. Christos Christopoulos, University of<br />
Nottingham, George Green Institute of Electromagnetics Research<br />
Sponsors: MTT-1, MTT-15<br />
Workshop Abstract: Recent theoretical studies in computational<br />
electromagnetics have confirmed that the generalized method of<br />
moments can be used to derive most time and frequency domain<br />
modeling methods. Such a fundamental modeling subject is of<br />
fundamental important to the microwave field theory committee as<br />
well as to the software industry. An in-depth review of the method of<br />
moments, which focuses on its capability to unify various modeling<br />
methods, will be presented by leading experts in the method.<br />
Challenges and implementation arising in the realization of a unified<br />
modeling framework will be discussed. Experts in the CEM software<br />
FRIDAY WoRKSHoPS<br />
industry and experienced users in the microwave industry will be<br />
invited to present their visions on the subject.<br />
WFB — 08:00-17:00<br />
System in Package Technologies and Trends<br />
Topics and Speakers:<br />
1- SiP Current and Future Trends/Needs, Mr. Ross Lahlum, Motorola<br />
2- State-of-the-art SiP Fabrication Capabilities and Limitations,<br />
Mr. Stuart Watson, Modular Components National, Inc, Sales and<br />
Marketing<br />
3- A new compact filter design approach using interdigitally-coupled<br />
line resonators with EM simulations, Mr. Hee-Soo Lee, Agilent<br />
4- LTCC-Based SiPs and FEMs for ultra-small size Wireless Solutions,<br />
Mr. Neal Mellen, TDK<br />
5- Wireless Packaging Technologies for Converged Mobile Platforms,<br />
Mr. Marc Mangrum, Freescale<br />
6- GaAs Integrated Passive Devices for Size Reduction in SiP modules,<br />
Mr. Kevin Gallagher, Triquint<br />
7- Multilayer RF MEMS Phased Array Antenna Integrated Within<br />
a Liquid Crystal Polymer (LCP) SiP, Dr. Nickolas Kingsley, Auriga<br />
Measurement Systems, Modeling and Design<br />
8- RF SiP Technology and Capability Overview, Mr. Mike Gaynor,<br />
Antenova research<br />
Organizers: Mr. Michael P. Gaynor, Antneova, research; Dr. Nickolas<br />
Kingsley, Auriga Measurement Systems, Modeling and Design; Prof.<br />
John Papapolymerou, Georgia Tech, School of ECE<br />
Sponsors: MTT-16, MTT-20<br />
Workshop Abstract: This workshop will cover in detail the three<br />
most commonly used System in Package approaches: Laminate, LTCC,<br />
and Silicon Integrated Passives Devices. The opening presentations<br />
will cover the current needs, limitations, and future trends for<br />
SiP technologies. Industry experts will discuss the latest wireless<br />
advancements made possible using SiP approaches. Future capabilities,<br />
such as ink-jet passives and actives for RFID and 3-D integration, will<br />
also be presented.<br />
WFC — 08:00-17:00<br />
Progress in Local and Global Positioning in Europe<br />
Topics and Speakers:<br />
1- Wireless Local Positioning Based on Modulated Reflection, Prof.<br />
Martin Vossiek, University of Clausthal, Germany<br />
2- Multi-sensor Data Fusion in Local Positioning, Prof. Andreas Stelzer,<br />
University of Linz, Austria<br />
MonDAY<br />
FRIDAY<br />
87
88<br />
3- Advances in Precise Vehicle Positioning, Dr. Peter Gulden, Symeo,<br />
Munich, Germany<br />
4- Highly Integrated A-GPS/Galileo Chipset for Consumer Applications,<br />
Anna Miskiewicz, Infineon Technologies, Neubiberg, Germany<br />
5- Reconfigurable Systems for Mobile Local Communication and<br />
Positioning, Thomas Ussmueller, University of Erlangen-<br />
Nuremberg, Germany<br />
6- Time Series Modeling of Multipath Propagation for Pedestrian<br />
GNSS Applications, Dr. Andreas Lehner, German Aerospace Center,<br />
Institute of Communications and Navigation, Oberpfaffenhofen,<br />
Germany<br />
7- Positioning of Low-cost IEEE 802.15.4 (ZigBee) Devices by Means<br />
of Phase Difference Measurements, Stefan Schwarzer, Siemens<br />
Corporate Research, Munich, Germany<br />
8- Implementing Heading Detection for an Optical Positioning<br />
System, Oliver Maye, IHP Microelectronics, Frankfurt/Oder,<br />
Germany<br />
9- Localization with Impulse UWB Radio, Gunter Fischer, IHP<br />
Microelectronics, Frankfurt/Oder, Germany<br />
Organizers: Prof. Robert Weigel, University of Erlangen-Nuremberg,<br />
Institute for Electronics Engineering, Germany; Prof. Andreas Stelzer,<br />
University of Linz, Institute for Communications & Information<br />
Engineering, Austria; Prof. Martin Vossiek, University of Clausthal,<br />
Germany<br />
Sponsors: MTT-2, MTT-8, MTT-12, MTT-13, MTT-16<br />
Workshop Abstract: This workshop deals with various solutions<br />
for localization and positioning. It will focus on the advancements<br />
achieved by current research work in European projects. Both local and<br />
global positioning systems will be addressed. Great efforts are made<br />
in Europe in the field of local positioning. Newest ultra-wideband<br />
positioning technologies will be shown in this workshop. Furthermore<br />
results concerning the enhancement of positioning accuracy through<br />
additional motion sensors will be presented. Advancements achieved<br />
for the European satellite navigation system GALILEO will be addressed.<br />
A system analysis of a fully integrated multi-standard GPS/GALILEO<br />
chipset will be given.<br />
WFD — 08:00-17:00<br />
Computational Multi-Physics Techniques for the Analysis<br />
& Design of Electromagnetic Micro/Nano-Devices<br />
Topics and Speakers:<br />
1- The Role of Model-order Reduction in Electro-thermal Analysis<br />
of Integrated Electronics for Multi-scale Modeling of MEMS &<br />
NEMS, Prof. Andreas Cangellaris, University of Illinois, Urbana-<br />
FRIDAY WoRKSHoPS<br />
Champaign, Department of Electrical and Computer Engineering<br />
2- Detailed Analysis of Electro-thermal Effects in Nanoscale<br />
MOSFETs, Prof. Umberto Ravaioli, University of Illinois, Urbana-<br />
Champaign, Department of Electrical and Computer Engineering<br />
3- Electromagnetic Modeling of Carbon Nanotubes, Prof. Peter<br />
Russer, Munich University of Technology, Institute of High-<br />
Frequency Engineering<br />
4- Electromagnetic Probing of Nanostructures, Prof. Paolo Lugli,<br />
Munich University of Technology, Institute of Nano-Electronics<br />
5- Multi-physics Simulation Using Compact Models: EM, Circuit,<br />
Thermal, Molecular Electronics, Prof. Michael Steer, North Carolina<br />
State University, Electrical and Computer Engineering<br />
6- A New Full-wave Transmission-Line-Matrix/Finite-Difference<br />
Scheme for the Combined Maxwell-Schrödinger Problem in the<br />
Electronic/Electromagnetic Characterization of Nanodevices, Dr.<br />
Luca Pierantoni, Università Politecnica delle Marche, Dipartimento<br />
di Elettromagnetismo e Bioingegneria.<br />
7- Analysis of Carbon Nanoribbons Devices by Joint Use of<br />
Electromagnetic Solvers and Multi-channel Transport Models,<br />
Dr. Davide Mencarelli, Università Politecnica delle Marche,<br />
Dipartimento di Elettromagnetismo e Bioingegneria<br />
8- Methodologies for the Modeling of MEMS and NEMS, Prof.<br />
Marco Farina, Università Politecnica delle Marche, Dipartimento di<br />
Elettromagnetismo e Bioingegneria,<br />
Organizers: Dr. Luca Pierantoni, University of Politecnica delle Marche,<br />
Dipartimento di Elettromagnetismo e Bioingegneria; Prof. Andreas<br />
Cangellaris, University of Illinois at Urbana-Champaign, Department<br />
of Electrical and Computer Engineering<br />
Sponsor: MTT-15<br />
Workshop Abstract: The continuing scaling of semiconductor<br />
devices down to the nanometer region, combined with advances in<br />
the understanding of the physics of nanostructures, points to unique<br />
opportunities for the “three-dimensional” integration of sensing,<br />
computing and communication functions. However, the complexity<br />
of such micro/nano systems can not be handled by today’s computeraided<br />
design tools. Furthermore, their exploration cannot rely solely on<br />
experiment-based trial and error. What is needed is the advancement<br />
of a multi-physics, computational framework, capable of covering the<br />
various energy domains governing the desired operation of the device<br />
with the rigor and accuracy needed for reliable predictive analysis. In<br />
addition to describing correctly the non-linear coupling between the<br />
different physical domains, the computational framework must be<br />
able to support the multi-scale nature of the coupled domains, from<br />
atomistic models at the nanoscale to the microscale. Furthermore,<br />
the development of methods for the physically-consistent and
computationally-efficient interfacing of models at different scales is<br />
critical for the advancement of a versatile computational framework.<br />
This workshop reviews recent research activities on modeling<br />
methodologies and numerical techniques aimed at tackling the<br />
aforementioned challenges. The common theoretical platform of<br />
the presentations in this workshop is provided by the mathematical<br />
description of the self-consistent coupling of Maxwell’s equations<br />
with the mathematical models that govern the additional physics<br />
that impacts the operation of these devices, e.g. quantum transport/<br />
diffusion, thermal effects, mechanical strain, charge scattering. The<br />
resulting advanced models and numerical tools are necessary for<br />
the design exploration of new devices that exploit the opportunities<br />
provided by new emerging materials and multi-functional integration<br />
at the nanoscale.<br />
TFA — 08:00-12:00<br />
Spectrum Policy for the Microwave Engineer: Getting<br />
Technology from the Lab to the Marketplace<br />
Topics and Speakers:<br />
1- Legal Issues in Spectrum Policy, Ms. Anne Linton, Patton Boggs LLP<br />
2- Technical Issues in Spectrum Policy, Dr. Michael J. Marcus, Marcus<br />
Spectrum Solutions LLC<br />
Organizers: Dr. Michael J. Marcus, Marcus Spectrum Solutions LLC;<br />
Ms. Anne E. Linton, Patton Boggs LLP<br />
Sponsors: MTT-16, MTT-18<br />
Workshop Abstract: Spectrum policy and regulatory issues are just<br />
as real for the designer of innovative wireless systems as Maxwell’s<br />
Equations, although they sometimes can be changed given early<br />
recognition of problems and adequate lead time. This course will be<br />
taught by an engineer and a lawyer who both have long experience<br />
in spectrum policy issues. The course will show how to see if a new<br />
wireless technology raises significant issues under current regulations<br />
or not, estimating the complexity of possible regulatory issues that<br />
might impact practical use of the technology, and evaluating options<br />
for addressing policy issues in parallel with development. It will also<br />
address the importance of designing compliance into new technology<br />
just as one would design reliability into a product and not waiting<br />
until the eve of production. Finally, it will review the final step of how<br />
to get a new wireless system that complies with regulations approved<br />
for sale in various markets.<br />
FRIDAY WoRKSHoPS<br />
FRIDAY<br />
89
90<br />
CoMMERCIAl EXHIbIT<br />
The MTT-S Exhibition has been held annually since 1970 and is comprised of more than 400 microwave, subassembly, component, device,<br />
material, instrument, and design software suppliers, and draws approximately 10,000 engineers involved in the design of microwave systems,<br />
subsystems, components, and devices. The 2008 Exhibition will occupy Halls A1 and A2 of the Georgia World Congress Center, and will be open<br />
from 09:00 to 17:00 on Tuesday and Wednesday, and from 09:00 to 15:00 on Thursday. Our apologies, but children under the age of 14 will not<br />
be admitted to the Exhibition Hall at any time.<br />
3G Metalworx Inc.<br />
A-Alpha Waveguide Co.<br />
Acceleware Corp.<br />
Accumet Engineering Corp.<br />
Actipass Co. Ltd.<br />
Advanced Control Components Inc.<br />
Advanced Switch Technology<br />
Aeroflex Inc.<br />
Aethercomm Inc.<br />
Agilent Technologies<br />
AKON Inc.<br />
Allrizon-TG Communications Equipment<br />
Altair Technologies Inc.<br />
AMCAD Engineering<br />
American Microwave Corp.<br />
American Standard Circuits Inc.<br />
American Technical Ceramics<br />
Ametek HCC Industries<br />
AML Communications Inc.<br />
Amplifier Solutions<br />
AmpliTech Inc.<br />
Analog Devices Inc.<br />
AnaPico AG<br />
Anaren Inc.<br />
Anatech Electronics Inc.<br />
Anoison Electronics<br />
Anritsu Co.<br />
Ansoft Corp.<br />
Antenna Research Associates-ARA<br />
Antenna Systems & Technology Mag.<br />
Apollo Microwaves Ltd.<br />
Applied Radar Inc.<br />
Applied Thin-Film Products<br />
Applied Wave Research Inc.<br />
AR Amplifier Research<br />
ARC Technologies Inc.<br />
Arlon Technology Enabling Innovation<br />
Artech House<br />
ASB Inc.<br />
Assemblies Inc.<br />
Astrolab Inc.<br />
Avago Technologies<br />
Avnet Electronics Marketing<br />
AWT Co. Ltd.<br />
B&Z Technologies<br />
Barry Industries Inc.<br />
Beckelec Inc.<br />
Berlin Microwave Technologies AG<br />
Besser Associates Inc.<br />
Bliley Technologies Inc.<br />
Bonding Source<br />
Boonton Electronics<br />
Brush Ceramic Products<br />
C-Tech Co. Ltd.<br />
California Eastern Labs<br />
Cambridge University Press<br />
CAP Wireless Inc.<br />
Carleton University<br />
Cascade Microtech<br />
Centellax Inc.<br />
Century Seals Inc.<br />
Ceramic Products Group<br />
Cernex Inc.<br />
Channel Microwave Corp.<br />
Charter Engineering Inc.<br />
Chengdu AINFO Inc.<br />
Ciao Wireless Inc.<br />
ClearComm Technologies Inc.<br />
Cobham DES<br />
Coilcraft Inc.<br />
Coining Inc.<br />
Coleman Microwave Co.<br />
Colorado Microcircuits<br />
COM DEV/CodeOne<br />
Commercial Microwave Technology<br />
Communications & Power Industries<br />
Compex Corp.<br />
Component Distributors Inc.<br />
COMSOL Inc.<br />
Comtech PST<br />
Connectronics Inc.<br />
CoorsTek<br />
Corning Gilbert Inc.<br />
Corry Micronics<br />
Crane Aerospace & Electronics<br />
CRC Press-Taylor & Francis Grp LLC<br />
Cree Inc.<br />
Cristek Interconnects Inc.<br />
CST of America Inc.<br />
CTT Inc.<br />
Cuming Microwave Corp.<br />
Custom Cable Assemblies Inc.<br />
Custom Interconnects<br />
Custom Microwave Components Inc.<br />
Daa Sheen Technology Co. Ltd.<br />
dBm<br />
Delta Electronics Mfg Corp.<br />
DeWeyl Tool Company Inc.<br />
Diablo Industries Thin Film<br />
Diamond Antenna<br />
Dielectric Laboratories Inc.<br />
DiTom Microwave Inc.<br />
Dorado International Corp.<br />
Dow Key Microwave<br />
Ducommun Technologies Inc.<br />
DuPont<br />
Dyconex AG<br />
Dynawave Inc.<br />
e2v<br />
EADS North America Defense<br />
Eagle Comtronics<br />
Eclipse Microwave Inc.<br />
EE-Evaluation Engineering<br />
Egide<br />
Elcom Technologies Inc.<br />
Electro Rent Corp.<br />
Electromagnetic Technologies Ind.<br />
ElectromagneticWorks Inc.<br />
EM Research Inc.<br />
EM Software & Systems (USA) (FEKO)<br />
EMAG Technologies Inc.<br />
EMC Technology Inc.<br />
EMCO Elektronik GmbH<br />
Emcore (formerly Ortel)<br />
Emerson & Cuming<br />
Emerson & Cuming Microwave Products<br />
Emerson Network Power Connectivity<br />
Empower RF Systems<br />
Endwave Corp.<br />
ETS-Lindgren<br />
Eudyna Devices Inc.<br />
European Microwave Week<br />
Excelics Semiconductor Inc.<br />
EZ Form Cable Corp.<br />
F&K Delvotec Inc.<br />
Farran Technology Ltd.<br />
FCT Electronics LP<br />
The Ferrite Company Inc.<br />
Filtel Microwave Inc.<br />
Filtran Microcircuits Inc.<br />
Filtronic Compound Semiconductors<br />
Filtronic Sage Laboratories Inc.<br />
Firan Technology Group<br />
Flann Microwave Ltd.<br />
Flexco Microwave Inc.<br />
Florida RF Labs Inc.<br />
Focus Microwaves Inc.<br />
Fotofab<br />
Freescale Semiconductor<br />
FujiFilm Dimatix Inc.<br />
General Dynamics Satcom Technology<br />
Gerotron Communication GmbH<br />
GGB Industries Inc.<br />
Giga-tronics Inc.<br />
GigaLane Co. Ltd.<br />
Global Communication Semiconductors<br />
Good Will Instrument Co. Ltd.<br />
WL Gore & Associates Inc.<br />
Gowanda Electronics<br />
Gryphics Prod Grp/Cascade Microtech<br />
GT Microwave Inc.<br />
Hantechnic Inc.<br />
Harbour Industries<br />
Helic SA<br />
Herley Industries Inc.<br />
Herotek Inc.<br />
Hesse & Knipps Inc.<br />
High Frequency Electronics<br />
Hittite Microwave Corp.<br />
Holzworth Instrumentation<br />
HTMicrowave Co. Ltd.<br />
HUBER+SUHNER Inc.<br />
IEEE Communications Magazine<br />
IEEE Microwave Magazine<br />
IHP GmbH<br />
IKE Micro<br />
IMST GmbH<br />
Infineon Technologies<br />
Innertron Inc.<br />
Instruments For Industry (IFI)<br />
Integra Technologies Inc.<br />
International Manufacturing Svcs.<br />
Ion Beam Milling Inc.<br />
Isotec Corp.<br />
ITF Co. Ltd.<br />
ITT Corp. - Microwave Systems<br />
IW Inc.<br />
J MicroTechnology Inc.<br />
Jacket Micro Devices Inc.<br />
Jazz Semiconductor<br />
Jersey Microwave<br />
JFW Industries Inc.<br />
Johanson Manufacturing Corp.<br />
Johanson Technology Inc.<br />
Jointcom Communication Technology<br />
JQL Electronics Inc.<br />
JyeBao Co. Ltd.<br />
K&L Microwave Inc.<br />
Kabem Wireless Silicon Inc.<br />
Keithley Instruments Inc.<br />
Kemac Technology Inc.<br />
KMIC Technology Inc.<br />
KOR Electronics<br />
Krytar Inc.<br />
Kyocera America Inc.<br />
L-3 Communications - Narda<br />
Labtech Ltd.<br />
LadyBug Technologies<br />
Lake Shore Cryotronics Inc.<br />
Lambda Americas<br />
Lark Engineering Co./Baier & Baier<br />
Laser Process Mfg. Inc.<br />
Laser Services Inc.<br />
Linear Photonics<br />
Linearizer Technology<br />
Litron Inc.<br />
LNX Corp.<br />
Locus Microwave<br />
Logus Microwave Corp.<br />
Lorch Microwave
LPKF Laser & Electronics<br />
M2 Global Technology Ltd.<br />
Maury Microwave Corp.<br />
Maxtek Components Corp.<br />
McGraw-Hill<br />
MECA Electronics Inc.<br />
Mega Circuit Inc.<br />
MegaPhase<br />
Meggitt Safety Systems Inc.<br />
Merix Corp.<br />
Merrimac Industries Inc.<br />
MESL Microwave Ltd.<br />
Metropole Products Inc.<br />
MICA Microwave<br />
Mician GmbH<br />
Micreo Limited<br />
Micro Lambda Wireless Inc.<br />
Micro-Coax Inc.<br />
Micro-Mode Products Inc.<br />
MicroFab Inc.<br />
Microlab/FXR<br />
Micronetics Inc.<br />
Microphase Corp.<br />
Microsemi Corp.<br />
Microsorb Technologies Inc.<br />
Microtech Inc.<br />
Microwave Applications Group<br />
Microwave Communications Labs Inc.<br />
Microwave Concepts Inc.<br />
Microwave Development Labs Inc.<br />
Microwave Dynamics<br />
Microwave Engineering Corp.<br />
Microwave Engineering Europe<br />
Microwave Filter Co. Inc.<br />
Microwave Innovation Group<br />
Microwave Journal<br />
Microwave Product Digest<br />
Microwave Technology Inc.<br />
Microwaves & RF<br />
Military & Aerospace Electronics<br />
Millitech Inc.<br />
Mimix Broadband Inc.<br />
Mini-Circuits<br />
Mini-Systems Inc.<br />
Mission Technology Co. (MTC)<br />
MITEQ Inc.<br />
Mitsubishi Electric & Electronics<br />
Modelithics Inc.<br />
Modular Components National Inc.<br />
Molex RF/Microwave Div.<br />
Momentive Performance Materials<br />
MPDevice Co. Ltd.<br />
MtronPTI<br />
Murata Electronics-SILVER SPONSOR<br />
NaF Technology Corp.<br />
Nanjing Jiexi Technologies Co. Ltd.<br />
Nanjing LOPU Co. Ltd.<br />
Natel Engineering Co. Inc.<br />
National Instruments<br />
NDK-GOLD SPONSOR<br />
Netcom Inc.<br />
CoMMERCIAl EXHIbIT<br />
Networks International Corp. (NIC)<br />
New Continents Technology<br />
Nitronex Corp.<br />
Noise Com<br />
NoiseWave<br />
Northeast Electronics Corp.<br />
Northrop Grumman-Velocium<br />
NSI<br />
NTK Technologies Inc.<br />
Nuhertz Technologies LLC<br />
NXP Semiconductors<br />
Octagon Communications<br />
OPHIR RF Inc.<br />
Orient Microwave Corp.<br />
P/M Industries Inc.<br />
P1dB<br />
Paratek Microwave Inc.<br />
Park Electrochemical/Neltec<br />
Partron Co. Ltd.<br />
Pascall Electronics Ltd.<br />
Passive Microwave Technology<br />
Penn Engineering Components<br />
Peregrine Semiconductor Corp.<br />
Phase Matrix Inc.<br />
The Phoenix Company of Chicago<br />
Piconics Inc.<br />
Picosecond Pulse Labs<br />
Planar Electronics Technology<br />
Planar Monolithics Industries Inc.<br />
Plextek Ltd.<br />
Pole/Zero Corp.<br />
Polyfet RF Devices<br />
Polyflon, a Crane Co. company<br />
Precision Connector Inc.<br />
Precision Photo-Fab Inc.<br />
Presidio Components Inc.<br />
Prewell Corp.<br />
Pulsar Microwave Corp.<br />
Q Microwave Inc.<br />
Q3 Laboratory<br />
Quantum Leap Packaging Inc.<br />
QUEST Microwave Inc.<br />
Questech Services Corp.<br />
QuinStar Technology Inc.<br />
R&D Microwaves LLC<br />
R&K Company Ltd.<br />
R-Theta Thermal Solutions Inc.<br />
Radant MEMS Inc.<br />
Radiall-AEP<br />
Reactel Inc.<br />
Reinhardt Microtech AG<br />
RelComm Technologies Inc.<br />
Remtec Inc.<br />
Renaissance Electronics Corp.<br />
Resin Systems Corp.<br />
RF Depot.Com Inc.<br />
RF Design Magazine<br />
RF Globalnet<br />
RF Industries’ RF Connectors Div.<br />
RF Morecom<br />
RFHIC Corp.<br />
RFMD<br />
RFMD-GOLD SPONSOR<br />
RFMW Ltd.<br />
RH Laboratories Inc.<br />
Richardson Electronics<br />
RJR Polymers Inc.<br />
RLC Electronics Inc.<br />
Rogers Corp.<br />
Rohde & Schwarz Inc.<br />
Rohm and Haas Electronic Materials<br />
Rosenberger North America LLC<br />
Roswin Inc.<br />
Roth & Rau AG<br />
RTx Technology Co. Ltd.<br />
Samsung Electro-Mechanics Corporation<br />
Samtec Inc.<br />
Sangshin Elecom Co. Ltd.<br />
Santron Inc.<br />
Sawcom Tech Inc.<br />
Sawnics Inc.<br />
Schleifring und Apparatebau GmbH<br />
Schmid & Partner Engineering AG<br />
Scientific Microwave Corp.<br />
Semi Dice Inc.<br />
SET Tech Co. Ltd.<br />
Shadow Technologies Inc.<br />
Shenzhen Kingsignal Cable Tech Co.<br />
Shenzhen Shennan Circuits Co. Ltd.<br />
Shenzhen Sinte Technology Co. Ltd.<br />
Shoulder Electronics Co. Ltd.<br />
Sigma Systems Corp.<br />
Signatone (Lucas/Signatone)<br />
Silicon Cert Ltd.<br />
Simulation Technology & Applied Res<br />
Sinclair Manufacturing Co.<br />
Skyworks Solutions Inc.<br />
Sonnet Software Inc.<br />
Soshin Electric Co. Ltd.<br />
Sources East Inc.<br />
Southwest Microwave Inc.<br />
Spectrum Control<br />
Spectrum Elektrotechnik GmbH<br />
Spectrum Microwave Inc.<br />
Spectrum Power Management Systems<br />
Spectrum Sensors & Controls<br />
Sprague-Goodman Electronics Inc.<br />
SRI Hermetics Inc.<br />
SSI Cable Corp.<br />
State of the Art Inc.<br />
Stealth Microwave<br />
Stellar Industries Corp.<br />
Storm Products Co.<br />
StratEdge Corp.<br />
Summitek Instruments Inc.<br />
SUSS Microtec Inc.<br />
SV Microwave Inc.<br />
CW Swift & Associates Inc.<br />
Synergy Microwave Corp.-SILVER SPONSOR<br />
T-Tech Inc.<br />
Taconic<br />
Talley Communications Corp.<br />
Tecdia Inc.<br />
Technical Research & Manufacturing<br />
Technical Services Laboratory Inc.<br />
Tegam Inc.<br />
Tektronix Inc.<br />
Teledyne Technologies<br />
Telegartner Inc.<br />
TeleMobile Electronics<br />
Tensolite<br />
Terabeam/HXI<br />
TeraVicta Technologies Inc.<br />
Test & Measurement World<br />
Test Equipment Solutions Today<br />
Thales Components Corp.<br />
Times Microwave Systems<br />
Toshiba America Electronic Comp.<br />
TRAK Microwave Corp.<br />
Trans-Tech Inc.<br />
Transcom Inc.<br />
Trilithic Inc.<br />
TriQuint Semiconductor<br />
Tronser Inc.<br />
TRS-RenTelco<br />
TRU Corporation Inc.<br />
TT Electronics<br />
TTE Europe<br />
TTE Inc.<br />
AJ Tuck Co.<br />
Tyco Electronics: Aerosp & Def Prod<br />
Tyco Electronics: CC&CE Products<br />
Tyco Electronics: GIC Products<br />
Tyco Electronics: M/A-COM Products<br />
UltraSource Inc.<br />
United Monolithic Semiconductors<br />
Universal Microwave Corp.<br />
UTE Microwave Inc.<br />
Valpey Fisher Corp.<br />
Vector Fields Inc.<br />
Vectron International<br />
Verspecht-Teyssier Corp.<br />
VIDA Products Inc.<br />
Virginia Diodes Inc.<br />
Vishay Intertechnology Inc.<br />
Voltronics Corp.<br />
VTI Microwave<br />
Vubiq Inc.<br />
Weinschel Associates<br />
Wenzel Associates Inc.<br />
Werlatone Inc.<br />
West Bond Inc.<br />
Wiley<br />
WIN Semiconductor Corp.<br />
WIPL-D d.o.o.<br />
Wireless Design & Development<br />
Yantel Corp.<br />
Yixin Microwave Electronics Co. Ltd<br />
Z-Communications Inc.<br />
Zeland Software Inc.<br />
ZIFOR Enterprise Co. Ltd.<br />
9
9<br />
Gold Sponsors:<br />
Ansoft Corp.<br />
RFMD<br />
CST of America Inc.<br />
Agilent Technologies<br />
NDK<br />
EXHIbIT GolD and SIlVER SPonSoRS<br />
The Microwave Applications Seminars (MicroApps),<br />
inaugurated in 1996, serves as a forum for IMS<br />
Exhibitors to present the technology behind their<br />
commercial products and their special capabilities. This<br />
year, MicroApps is being hosted by Agilent Technologies<br />
and will feature a variety of measurement specific<br />
presentations by Agilent’s measurement experts as<br />
well a variety of other presentations from companies<br />
MICRoAPPS<br />
Silver Sponsors:<br />
Mimix Broadband Inc.<br />
Murata Electronics<br />
Tyco Electronics: M/A-COM Products<br />
Keithley Instruments Inc.<br />
Synergy Microwave Corp.<br />
Anritsu Co.<br />
exhibiting at IMS. Everyone who attends MicroApps will<br />
receive a free CD-ROM that includes informative details<br />
from every presentation. This year’s MicroApps will be<br />
located in the Exhibition Hall near Aisle 200. For more<br />
information on the Agilent presentations please visit<br />
www.agilent.com/find/IMS2008 where you can see<br />
how Agilent is Helping You Pioneer a Connected World.
09:20<br />
09:40<br />
10:00<br />
10:40<br />
11:20<br />
11:40<br />
12:00<br />
12:20<br />
12:40<br />
13:00<br />
13:20<br />
13:40<br />
TUESDAY<br />
17 June 2008<br />
Title: Advanced Measurement Techniques of<br />
Characterizing Signal Transition Behaviors of Phas-<br />
Locked-Loop<br />
Author: Akihiko Oginuma, Agilent Techologies<br />
Title: Achieve Greater Wireless Mobile Device Runtime<br />
and Accelerate Design Validation by Automating<br />
Battery Drain Characterization Under Simulated Real<br />
Network Use<br />
Author: Dave Allen, Agilent Technologies<br />
Title: Advances in EM Modeling for Circuit Designers<br />
Authors: Erwin Debaetselier and Mounir Adada,<br />
Agilent Technologies<br />
Title: Isolation Enhancement Using Noise Cancellation<br />
Techniques<br />
Author: Sam Mendolia, Edward Gebara, and Jon<br />
Mitchell, Quellan, Inc.<br />
Title: Design of a Digital Broadcast TV Module for<br />
Mobile Phone<br />
Author: Akira Kato, Yasushi Okumura, Mitsuhiro<br />
Hoshii, and Toshio Hata, Murata Manufacturing<br />
Company, Limited.<br />
Title: Design and Usage of Ultra-small, High Power<br />
Density, SMT Package GaAs MMICs for 2 & 4-Watt<br />
Ku/Ka Band V-sat<br />
Author: Kohei Fujii and Henrik Morkner, Avago<br />
Technologies, Inc<br />
Title: Leadless Ceramic SMT Substrates and Packages<br />
From DC to 30GHz<br />
Author: Nahum Rapoport, President, Remtec Inc.<br />
Title: A Bias Circuit for High Efficient Mosfet Designed<br />
into GaAs Chip<br />
Author: Dr. Yuepeng Yan, Yantel Corporation<br />
Title: GaAs pHEMT MMIC Constant Phase Digital<br />
Attenuators<br />
Authors: Diana Zha and Christopher Weigand, M/A-COM<br />
Title: Simulation and Design of Software Defined<br />
Radios (SDR)<br />
Author: Frank Ditore, Agilent Technologies<br />
Title: Peak Power Measurement Techniques for WiMAX<br />
Author: Richard Theiss, Boonton Electronics<br />
WEDnESDAY<br />
18 June 2008<br />
Title: Practical Verification and Design for Yield<br />
Anlaysis of a Full Transceiver<br />
Author: Andy Howard, Agilent Technologies<br />
Title: Wideband Measurements—Tools, Techniques<br />
& Accuracy<br />
Author: Kay Gheen, Agilent Technologies<br />
Title: Front-to-Back MMIC Design Flow with ADS 2008<br />
Author: Jack Sifri, Agilent Technologies<br />
Title: Testing High Speed Wireless Systems Using AWGN<br />
Author: Bob Muro, Noisecom<br />
Title: State of the Art Cross-Correlation Noise<br />
Measurement System<br />
Author: Guillaume De Giovanni, Phase Noise Products,<br />
Aeroflex, Inc.<br />
Title: EMPIRE XCcel 5.2- 3D FDTD Field Simulation<br />
with 1 GCells/s<br />
Author: A. Lauer, W.Simon, and A. Wien, IMST GmbH<br />
Title: Agilent and Auriga<br />
Authors: David Menzer, Auriga Measurement Systems,<br />
LLC and Loren Betts, Agilent Technologies, Inc.<br />
Title: Kingsignal<br />
Author: Kristen Wang<br />
Title: GaN MCM and Hybrid for 3G and 4G Applications<br />
Author: Dr. Samuel CHO, RFHIC Corporation<br />
Title: Advances in Millimeter Wave Measurements<br />
Author: Suren Singh, Agilent Technologie<br />
14:00 Title: Nonlinear Vector Network Analyzer (NVNA)<br />
14:20<br />
15:20<br />
15:40<br />
16:00<br />
16:20<br />
16:40<br />
Title: Breakthrough in Noise Figure Measurement<br />
Technique Greatly Reduces Systematic Error While<br />
Simplifying Measurement Setup<br />
Author: Dave Ballo<br />
Title: WiMAXTM Wave 2 Testing – MIMO & STC<br />
Author: Ben Zarlingo, Agilent Technologies<br />
Title: Analysis of Baseband IQ Signals<br />
Authors: Hiromi Matsuoka and Ben Zarlingo, Agilent<br />
Technologies<br />
Title: Design of a Highly Integrated Multi Chip FEM for<br />
WiMAX Application<br />
Author: Conrad Mmasi, Sr., Jacket Micro Devices<br />
Measures New Nonlinear X-Parameters<br />
Authors: Loren Betts and How Siang Yap, Agilent<br />
Technologies<br />
Title: A New Test System for Military Radios<br />
Author: John Swanstrom, Agilent Technologies<br />
Title: Application and Design Principles for Circulators<br />
and Isolators<br />
Authors: Anthony Edridge and Mr. Rene Quintanilla,<br />
M2 Global Technology Ltd.<br />
Title: Accurate Phase Noise Measurements made Cost<br />
Effective<br />
Author: Jason Breitbarth, Holzworth Instrumentation<br />
THURSDAY<br />
19 June 2008<br />
Title: SiGe BiCMOS Technologies in RF and mmWave<br />
Applications<br />
Author: David Cheskis, Jazz Semiconductor<br />
Title: High Dynamic Range Hybrid Integrated Fiber<br />
Transmitters<br />
Authors: John A. MacDonald and Allen Katz, Linear<br />
Photonics, LLC<br />
Title: Implementing the Split Cylinder Resonator<br />
Method for Measuring Complex Permittivity of Low<br />
Loss Materials<br />
Author: Shelley Begley, Agilent Technologies<br />
Title: Optimization of Vector Waveforms<br />
Author: John Hansen, Agilent Technologies<br />
Title: Ribbon Bonding for High Frequency Applications<br />
Author: Joseph S. Bubel, Hesse & Knipps, Inc.<br />
Title: 802.11n Front-end Modules (Both Single and<br />
Dual Band) for MIMO applications<br />
Author: Rabia Fathima, Jacket Micro Devices<br />
Title: Millimeter Wave Development System using 60<br />
GHz ICs with Integrated Antennas<br />
Author: Michael Pettus, Vubiq, Inc.<br />
Title: Thermal Pyrolytic Graphite Packaging Solutions<br />
for Advanced Thermal Management<br />
Author: Xiang Liu, Matthijs Suijlen, and Robert<br />
Marchiando; Momentive Performance Materials, Inc.<br />
Title: Partron<br />
Author: Jason Park, Partron Co. Ltd.<br />
Title: Fast and Accurate CAD Solutions for Passive<br />
Waveguide Components with the µWave Wizard<br />
Author: Thomas Sieverding, Mician<br />
Title: Microstrip-Launched Filters<br />
Author: Craig Higginson and Sunita Shah, Q<br />
Microwave Inc.<br />
Title: New Continents Technology Corp.<br />
Author: J. Zhu and C. Xie, New Continents Technology Corp.<br />
Title: Vida Products<br />
Authors: Ron Parrott, Al Sweet and John Dunseth,<br />
VIDA Products<br />
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Sunday, 15 June 2008<br />
RFIC Reception — 19:00-21:00<br />
Georgia World Congress Center, Room A412ab<br />
Immediately following the RFIC Plenary Session is the RFIC Reception<br />
to be held in adjacent room 412ab at the Georgia World Congress<br />
Center. This social event is a key component of the RFIC Symposium,<br />
providing an opportunity to connect with old friends, make new<br />
acquaintances, and catch up on the wireless industry. Admittance is<br />
included with RFIC Symposium registration. Additional tickets can<br />
also be purchased separately at registration.<br />
Monday, 16 June 2008<br />
IMS 2008 Reception — 18:00-20:00<br />
Omni Hotel, Grand Ballroom<br />
All Microwave Week attendees and exhibitors are invited to attend<br />
a reception hosted by IMS 2008 in the Grand Ballroom of the Omni<br />
Hotel.<br />
Tuesday, 17 June 2008<br />
Women in Microwaves Reception — 18:00-20:00<br />
Omni Hotel, International Ballroom A<br />
Student Reception — 19:00-21:00<br />
Omni Hotel, International Ballroom D<br />
Joe Taylor Rump Session Reception — 18:30-20:00<br />
Georgia World Congress Center, A412ab<br />
A reception will be held for all attendees of the Joe Taylor Rump<br />
Session prior to the presentation.<br />
Ham Radio Social — 20:00-22:00<br />
Georgia World Congress Center, A402/403<br />
Radio amateurs attending the IEEE MTT-S International Microwave<br />
Symposium (IMS 2008) in Atlanta are invited to the Ham Radio Social.<br />
It follows the talk by Joe Taylor K1JT on “The Discovery of Gravity Waves<br />
Amidst the Noise,” which leads into the WSJT software for weak-signal<br />
amateur communication. The organizers are Fritz Raab W1FR and Al<br />
Katz K2UYH.<br />
SoCIAl EVEnTS<br />
Wednesday, 18 June 2008<br />
Industry Hosted Cocktail Reception — 18:00-20:00<br />
Omni Hotel, International Ballroom<br />
Symposium Exhibitors will host a cocktail reception. Complimentary<br />
beverage tickets will be included in the registration packages.<br />
MTT-S Awards Banquet — 19:30-22:00<br />
Omni Hotel, Grand Ballroom<br />
The MTT-S Awards Banquet includes a fine dinner, awards presentation,<br />
and entertainment. Major society awards will be presented. Tickets<br />
can be purchased at the time of registration.<br />
Thursday, 19 June 2008<br />
MTT-S Student Awards Luncheon — 12:00-14:00<br />
Omni Hotel, International Ballroom F<br />
All students are invited to attend the luncheon, which recognizes<br />
recipients of the IMS 2008 Student Paper Awards, MTT-S Graduate<br />
Fellowships, MTT-S Undergraduate Scholarships, the Student High-<br />
Efficiency Power Amplifier Competition Prize, and the Student Low<br />
Power Consumption FM Radio Receiver Design Competition.<br />
MTT-S Graduates of the Last Decade (GOLD) Reception<br />
— 17:30-19:00<br />
STATS Food Play Sports Bar<br />
The IEEE MTT GOLD Committee invites all MTT GOLD members to a<br />
reception at the STATS Food Play Sports Bar which is conveniently<br />
located in downtown Atlanta across from the Georgia World Congress<br />
Center. This will be an excellent opportunity not only to relax and<br />
entertain, but also to interact and network with other GOLD members.<br />
If you require more information regarding GOLD or the reception,<br />
please feel free to stop by the GOLD Pavillion located in Hall A3 of the<br />
exhibition hall.
HoSPITAlITY SUITE and RECREATIonAl ACTIVITIES<br />
Hospitality Suite:<br />
Omni Hotel - Pecan Room (Level M3)<br />
We are pleased to offer a hospitality suite in the Omni Hotel for the<br />
families of our technical attendees to relax and enjoy in between<br />
experiencing everything that Atlanta, Georgia has to offer. The suite<br />
will be open Sunday, 15 June, through Friday, 20 June from 07:00 to<br />
12:00 and will offer a light breakfast, grab-and-go snacks, and guest<br />
tour information.<br />
Please note that guest badges are required for entry into the hospitality<br />
suite.<br />
Recreational Activities:<br />
While you are in Atlanta we hope that you can enjoy the all that the<br />
city has to offer. From the sleek modern sky scrapers, to the quaint<br />
southern charm, we have a variety of activities planned for you and<br />
your guests to enjoy all aspects of life in and around Atlanta.<br />
We have partnered with Atlanta Arrangements, Inc, the premier destination<br />
management company in Atlanta. They will handle all aspects of the activity<br />
registration and on-site logistics of each event. Please visit their website,<br />
http://www.atlantaarrange.com/ims/, to preregister for each activity<br />
and to see the most up-to-date information regarding the tours.<br />
Atlanta Arrangements may also be reached at 1-800-883-3866 or<br />
aai@atlantaarrange.com.<br />
We strongly recommend that you secure your space on your favorite<br />
tours as soon as possible! However, there will be an on-site sign-up<br />
desk available in the Georgia World Congress Center, Building A, Level<br />
4 Lobby near the IMS 2008 main registration area. Come enjoy Southern<br />
hospitality at its best.<br />
Sunday, 15 June 2008<br />
HALF DAY TOUR OPTION - ATLANTA’S FAMOUS FIRSTS<br />
Introducing the world’s favorite soft<br />
drink and the first cable television<br />
network on earth, both of whom<br />
proudly call Atlanta home.<br />
As part of the Cable News Network,<br />
CNN and Headline News have<br />
their home in the heart of<br />
downtown Atlanta. Today, you will<br />
catch a glimpse of the fast-paced<br />
excitement of a 24-hour news broadcast in the making with a tour<br />
of Inside CNN Atlanta. You’ll view the newsroom, the cameras and<br />
lights, and all the other behind-the-scenes places and things the<br />
viewing public never sees.<br />
The World of Coke is a new and expanded attraction where you can<br />
explore the complete story - past, present and future - of the world’s<br />
best-known brand.<br />
There’s something for visitors of all ages to enjoy, from a thrilling 4D<br />
cinematic experience, to the largest collection of Coke memorabilia<br />
ever assembled, to the World of CocaCola favorite, the tasting<br />
experience with over 70 different products to sample. And that’s just a<br />
glimpse of what the NEW World of CocaCola has to offer!<br />
TIME: 13:00-18:00<br />
ADULT COST: $36.00 per person.<br />
CHILD COST (5-12 yrs): $32.00 per person. Price includes guides, tour<br />
of CNN and Coke, and entrance fee.<br />
PLEASE NOTE:<br />
Children under the age of 6 are not allowed to tour CNN. Handicap<br />
accessibility is limited. This is a walking tour that descends eight<br />
flights of stairs. Comfortable walking shoes are recommended.<br />
Monday, 16 June 2008<br />
HALF DAY TOUR OPTION - GEORGIA’S STONE MOUNTAIN<br />
Come explore Stone Mountain Park, a 3,200 acre world where<br />
excitement’s carved in stone.<br />
Georgia’s Stone Mountain, known as the eighth wonder of the world,<br />
amazes millions of people and was formed approximately 300 million<br />
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HoSPITAlITY SUITE and RECREATIonAl ACTIVITIES<br />
years ago. The giant granite rock rises 1,683 feet above sea level and<br />
covers 583 acres of rolling plateau. The largest bas-relief sculpture in<br />
the world, the Confederate Memorial Carving, depicts three heroes<br />
of the Civil War-Confederate President Jefferson Davis and Generals<br />
Robert E. Lee and Thomas J. “Stonewall” Jackson. The three-acre<br />
carved surface is larger than a soccer field!<br />
Enjoy your choice of the Park’s attractions, including an authentic 19building<br />
antebellum Plantation complex, Swiss Cablecar Skylift and<br />
Crossroads, an 1870’s Southern town. You will receive a lunch voucher<br />
to be used in the park.<br />
TIME: 09:00-12:00<br />
COST: $40.00 per person. Price includes luxury motorcoach<br />
transportation, guides, choice of two attractions, parking, and<br />
entrance fees.<br />
Monday, 16 June 2008<br />
FULL DAY TOUR OPTION - WILD ATLANTA!<br />
Begin your day on an<br />
urban safari to the magical<br />
land of Zoo Atlanta. From<br />
the zebras and giraffes of<br />
the Ketambe bush to the<br />
gorillas and orangutans of<br />
the Ford African Rain Forest,<br />
the zoo’s exotic residents<br />
will provide the perfect backdrop for this wild day.<br />
Zoo Atlanta is committed to studying giant pandas, to help them<br />
to survive and avoid extinction. You may experience rare up-close<br />
viewing opportunities in the Asian Forest Exhibit and Conservation<br />
Center. Everybody seems to love giant pandas!<br />
Following their visit to the zoo, guests will get to visit the Georgia<br />
Aquarium. Guests can explore all of the Aquarium’s fascinating exhibits<br />
where they will be amazed at every turn!<br />
This worldc<br />
l a s s<br />
entertainment<br />
attraction features more than 100,000 animals from over 500 species.<br />
The Aquarium itself holds over eight million gallons of fresh and<br />
marine water! The exterior of the Georgia Aquarium building has been<br />
designed to look like a giant ship breaking through a wave. As guests<br />
enter the huge atrium inside the building, they will be led into the<br />
facility by “a wall of fish” guiding them inside.<br />
Located in the heart of downtown, your guests will be treated to<br />
an afternoon filled with underwater wonder and excitement! The<br />
Georgia Aquarium promises to be entertaining … intriguing …<br />
and educational for guests of all ages. While promoting a fun and<br />
entertaining learning experience, the Aquarium will instill in your<br />
guests a new appreciation for the world’s aquatic biodiversity. At the<br />
aquarium, guests will also be able to enjoy lunch on their own at the<br />
food court.<br />
TIME: 10:00-15:00<br />
ADULT COST: $70.00 per person.<br />
CHILD COST (3 – 11 yrs): $62.00 per person. Price includes luxury<br />
motorcoach transportation, guides, and admission fees.<br />
Tuesday, 17 June 2008<br />
HALF DAY TOUR OPTION - A TASTE OF THE PEACH<br />
Prepare yourself for an exciting taste of Atlanta. This city tour will<br />
introduce you to the sprawling metropolis locals fondly call “The Big<br />
Peach”.<br />
Relax as your experienced guide acquaints you<br />
with the city’s history--from its fiery past to its<br />
exciting future.<br />
Catch a glimpse of Peachtree Center, Georgia’s<br />
gold-domed State Capitol, the Georgia World Congress Center, the<br />
Georgia Dome, Philips Arena, Centennial Olympic Park, CNN Center,<br />
Martin Luther King, Jr. Historic District and much, much more.<br />
Then it’s off toward revitalized Midtown, home of the world<br />
headquarters of the Coca-Cola Company, the ever-expanding campus<br />
of the Georgia Institute of Technology and the newly constructed
HoSPITAlITY SUITE and RECREATIonAl ACTIVITIES<br />
Atlantic Station, with a live, work, and play environment.<br />
You will receive a “Taste of the Peach” Recipe Brochure so you can<br />
create mouth-watering Southern meals when you return home.<br />
TIME: 13:00-17:00<br />
COST: $31.00 per person. Price includes luxury motorcoach<br />
transportation, guides, self guided tour of MLK Center, tour of<br />
Cyclorama and entrance fees.<br />
Tuesday, 17 June 2008<br />
FULL DAY TOUR OPTION - COvINGTON’S MANSIONS AND<br />
MAGNOLIAS<br />
Be carried away to ages past; back to the time of mansions and magnolias.<br />
Go east to the town of Covington, where you will tour beautiful historic<br />
homes. These fine homes have been beautifully maintained and are<br />
decorated in keeping with the styles of their era. All are private homes,<br />
with the owners serving as your guide at each.<br />
Lunch will be served at the Blue Willow Inn, a charming restaurant<br />
house in a turn of the century Greek Revival mansion. Here you can<br />
help yourself to the all-you-can-eat Southern buffet. You won’t want<br />
to miss trying fried green tomatoes.<br />
TIME: 09:30-15:30<br />
COST: $72.00 per person. Price includes luxury motocoach<br />
Transportation, guides, tour of three homes, lunch at the Blue Willow<br />
Inn, and entrance fees.<br />
Wednesday, 18 June 2008<br />
HALF DAY TOUR OPTION - ATLANTA’S FAMOUS FIRSTS<br />
TIME: 09:00-13:00<br />
ADULT COST: $36.00 per person<br />
CHILD COST (5-12 yrs): $32.00 per person. Price includes guides, tour<br />
of CNN and Coke and entrance fees.<br />
Wednesday, 18 June 2008<br />
HALF DAY TOUR OPTION - MOMMY AND ME<br />
This tour is the perfect way to explore<br />
the city of Atlanta with your kids!<br />
Bond with other parents and their<br />
children as you experience two of<br />
Atlanta’s most popular attractions for<br />
children, Imagine It! and the Georgia<br />
Aquarium.<br />
Begin your day with face painting at the hotel! A face painter will be<br />
on-site to draw your kids’ favorite pictures on their faces to get them<br />
ready for their day of fun! Then your guests will walk from the hotel<br />
to Imagine It!, the Children’s Museum that is just across Centennial<br />
Olympic Park.<br />
The mission of Imagine It! The Children’s Museum of Atlanta is to<br />
create environments and activities where young children experience<br />
the power of imagination and the pure delight of learning with each<br />
other and with grown-ups. As a group, your kids are sure to make<br />
new friends and interact with one another during this fun learning<br />
experience!<br />
Following Imagine It! your guests will head to the Georgia Aquarium.<br />
Here at the Aquarium your guests can enjoy lunch on their own at the<br />
food court!<br />
On the way back to the hotel, be sure to stop by the fountains in<br />
Centennial Olympic Park to cool off before heading back to the hotel!<br />
This fun-filled day is sure to be a great bonding experience for the<br />
children and their parents.<br />
TIME: 10:00-15:00<br />
ADULT COST: $60.00 per person<br />
CHILD COST (3 – 11 yrs): $55.00 per person. Price includes guides,<br />
face painter, and admission fees.<br />
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HoSPITAlITY SUITE and RECREATIonAl ACTIVITIES<br />
Wednesday, 18 June 2008<br />
FULL DAY TOUR OPTION - THE GOOD LIFE IN HISTORIC<br />
BUCKHEAD<br />
Buckhead is Atlanta’s premier residential and shopping district. Tour<br />
Georgia’s elegant Governor’s Mansion, a stunning example of Classical<br />
Revival architecture. This 1968 mansion, the home of Georgia’s Chief<br />
Executive and his family, is filled with an extensive collection of<br />
Federal period furniture and Aubusson carpets.<br />
Afterward, visit the Atlanta History Center with its regal Swan House,<br />
quaint Tullie Smith House, and the Atlanta History Museum with the<br />
recently opened Centennial Olympic Games Exhibit.<br />
Enjoy a truly Southern lunch at the Swan Coach House, the former<br />
garage and servant quarters for the Swan House.<br />
Following their visit to the Atlanta History Center, guests will continue<br />
with a visit to the Carter Presidential Library.<br />
TIME: 09:30-16:00<br />
COST: $94.00 per person. Price includes luxury motorcoach<br />
transportation, tour of Governor’s Mansion, Tour of the History Center,<br />
Tullie Smith and The Swan House, lunch, and entrance fees.<br />
Thursday, 19 June 2008<br />
HALF DAY TOUR OPTION - CULTURAL MIDTOWN<br />
Start your day with a visit to the glorious Atlanta Botanical Gardens,<br />
a showcase of the most beautiful and unusual flora in our region,<br />
located on a 60-acre site in Midtown’s Piedmont Park. Take a quiet<br />
stroll through the massive hardwood forest or the lovely vegetable,<br />
rose, or Japanese gardens.<br />
Then feast your senses at the magnificent Dorothy Fuqua Conservatory.<br />
Under the glittering glass dome live some of the world’s most exotic<br />
and glorious plants.<br />
Next, enjoy a spectacular visit to one of Atlanta’s favorite attractions,<br />
Margaret Mitchell’s “Dump”. This is the home she lived in with her<br />
husband while writing the world famous book Gone With the Wind in<br />
1926.<br />
You will also have the opportunity to visit a museum at the Margaret<br />
Mitchell House. The museum exhibits Herb Bridges collection of Gone<br />
With The Wind movie memorabilia and opened on December 15,<br />
1999, the 60 th anniversary of Gone With The Wind’s premiere. Bridges<br />
is considered the world’s foremost authority on Gone With The Wind<br />
and this is the largest memorabilia collection.<br />
TIME: 13:00-17:00<br />
COST: $52.00 per person. Price includes luxury motorcoach, guides,<br />
self guided tours of High Museum and the Margaret Mitchell House,<br />
and entrance fees.<br />
Thursday, 19 June 2008<br />
HALF DAY TOUR OPTION - SHOP TILL YOU DROP<br />
Enjoy a day full of shopping as your motorcoach takes you to elegant<br />
Buckhead. Phipps Plaza - named a “Southern Best” in “Southern<br />
Living” magazine’s Readers’ Choice Awards - is anchored by Nordstrom,<br />
Parisian, and Sak’s Fifth Avenue. Atlanta’s premier upscale shopping<br />
center, Phipps Plaza is home to more than 100 specialty stores, four<br />
restaurants, including the newly opened Twist serving creative satays,<br />
tapas, and wraps, and a 14-screen AMC theatre.<br />
Across the way from Phipps Plaza is Lenox Square. Lenox Square is<br />
anchored by Neiman Marcus, Macy’s and Bloomingdale’s. Guests are<br />
treated to unique specialty retailers such as BCBG, Burberry, Brooks<br />
Brothers, Cartier, Louis Vuitton, Hermes, Ferragamo, Ralph Lauren,<br />
St. John’s Knits and Versace Jeans Couture. Experience fine dining at<br />
the new Clubhouse, Brasserie Le Coze or Prime. You are also invited to
HoSPITAlITY SUITE and RECREATIonAl ACTIVITIES<br />
enjoy a meal at one of five casual eateries, or even a quick bite at one<br />
of a wide selection of specialty food shops at the Market Food Court.<br />
TIME: 09:00-14:00<br />
COST: $24.00 per person. Price includes luxury motorcoach<br />
transportation.<br />
Thursday, 19 June 2008<br />
HALF DAY TOUR OPTION - OUTLET SHOPPING<br />
Spend a great afternoon shopping at the North Georgia Premium<br />
Outlets, located in Dawsonville, north of Atlanta. Discover 140 outlet<br />
stores offering the area’s finest collection of designer fashions and<br />
leading brand names, all at everyday savings of 25% to 65%. You will<br />
find a wide assortment of specialty shops such as Anne Klein, BCBG<br />
Max Azria, Donna Karan, Gap Outlet, Polo Ralph Lauren, Crate & Barrel<br />
Outlet, Royal Doulton, Williams - Sonoma Furniture and Outlet and<br />
many more.<br />
Your motorcoach/minibus will bring you to the outlets where you can<br />
spend a whole afternoon finding great deals. If you need a break, you<br />
can enjoy lunch on your own at the Main Street Eatery.<br />
TIME: 14:30-18:30<br />
COST: $28.00 per person. Price includes luxury motorcoach<br />
transportation.<br />
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